https://periodictable.page/2026-11-03https://periodictable.page/images/periodic-table-infographic-state-at-room-temperature.webpPeriodic table of states of matter at room temperature: solids in grey, the liquids bromine and mercury in blue, and the eleven gases in orange in the top-right cornerhttps://periodictable.page/terms/https://periodictable.page/images/periodic-table-infographic-atomic-mass.webpPeriodic table of atomic masses with each element shaded from light to dark teal by atomic weight, from hydrogen at 1.008 u to oganesson at 294 uhttps://periodictable.page/terms/https://periodictable.page/images/periodic-table-elements-per-period-by-block.svgEach period's length is the sum of the blocks it fills: s holds 2 elements, p 6, d 10 and f 14.Stacked bar chart of the periodic table showing periods 1 to 7 holding 2, 8, 8, 18, 18, 32 and 32 elements, split into s-, p-, d- and f-block elementshttps://periodictable.page/terms/https://periodictable.page/images/periodic-table-infographic-electron-shells.webpPeriodic table of electron configurations showing the electrons per shell on each tile, coloured by s-block, p-block, d-block and f-blockhttps://periodictable.page/terms/https://periodictable.page/images/periodic-trends-first-ionisation-energy-line-chart.svgFirst ionisation energy rises across each period and drops sharply at every new alkali metal.Line chart of first ionisation energy for elements 1 to 20, peaking at helium, neon and argon and falling at lithium, sodium and potassiumhttps://periodictable.page/terms/https://periodictable.page/images/periodic-table-infographic-electronegativity.webpPeriodic table of electronegativity on the Pauling scale, with tiles shading darker towards fluorine at 3.98 in the top-right cornerhttps://periodictable.page/terms/https://periodictable.page/images/periodic-table-infographic-element-families.webpPeriodic table by element family, with all 118 elements colour-coded into alkali metals, alkaline earth metals, transition metals, post-transition metals, metalloids, reactive nonmetals, halogens, noble gases, lanthanides and actinideshttps://periodictable.page/terms/https://periodictable.page/images/periodic-law-history-timeline.svgFrom triads to a complete seventh period: the milestones that shaped the modern table.Timeline of periodic law history from Döbereiner's triads in 1829 and Mendeleev's 1869 table to the naming of elements 113 to 118 in 2016https://periodictable.page/terms/https://periodictable.page/images/periodic-table-molar-mass-iron-oxide-waterfall.svgTwo iron atoms contribute 111.690 g/mol and three oxygen atoms 47.997 g/mol, for 159.687 g/mol in total.Waterfall chart adding the atomic weight of 2 iron atoms and 3 oxygen atoms to reach a molar mass of 159.687 g/mol for iron(III) oxidehttps://periodictable.page/terms/ https://periodictable.page/sitemap/2026-11-03 https://periodictable.page/alkali-metals-periodic-table/2026-11-03 https://periodictable.page/alkaline-earth-metals-periodic-table/2026-11-03 https://periodictable.page/transition-metals-periodic-table/2026-11-03 https://periodictable.page/post-transition-metals-periodic-table/2026-11-03 https://periodictable.page/metalloids-periodic-table/2026-11-03 https://periodictable.page/reactive-nonmetals-periodic-table/2026-11-03 https://periodictable.page/halogens-periodic-table/2026-11-03 https://periodictable.page/noble-gases-periodic-table/2026-11-03 https://periodictable.page/lanthanides-periodic-table/2026-11-03 https://periodictable.page/actinides-periodic-table/2026-11-03 https://periodictable.page/hydrogen-element-periodic-table/2026-11-03https://periodictable.page/images/hydrogen-bohr-model-animation.avifThe hydrogen atom in motion: its 1 electron travel round 1 shell while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Hydrogen Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/hydrogen-bohr-model-quarter-cutaway.webpA quarter of the hydrogen atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Hydrogen Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/hydrogen-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the hydrogen atom show how its electrons are spread over 1 shell. Protons are red, neutrons yellow and electrons blue.Hydrogen Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/hydrogen-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut hydrogen atom has its 1 electron on rings around a nucleus of 1 proton and neutrons. Protons are red, neutrons yellow and electrons blue.Hydrogen Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/helium-element-periodic-table/2026-11-03https://periodictable.page/images/helium-bohr-model-animation.avifThe helium atom in motion: its 2 electrons travel round 1 shell while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Helium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/helium-bohr-model-quarter-cutaway.webpA quarter of the helium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Helium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/helium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the helium atom show how its electrons are spread over 1 shell. Protons are red, neutrons yellow and electrons blue.Helium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/helium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut helium atom has its 2 electrons on rings around a nucleus of 2 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Helium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/lithium-element-periodic-table/2026-11-03https://periodictable.page/images/lithium-bohr-model-animation.avifThe lithium atom in motion: its 3 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Lithium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/lithium-bohr-model-quarter-cutaway.webpA quarter of the lithium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Lithium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/lithium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the lithium atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Lithium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/lithium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut lithium atom has its 3 electrons on rings around a nucleus of 3 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Lithium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/beryllium-element-periodic-table/2026-11-03https://periodictable.page/images/beryllium-bohr-model-animation.avifThe beryllium atom in motion: its 4 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Beryllium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/beryllium-bohr-model-quarter-cutaway.webpA quarter of the beryllium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Beryllium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/beryllium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the beryllium atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Beryllium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/beryllium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut beryllium atom has its 4 electrons on rings around a nucleus of 4 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Beryllium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/boron-element-periodic-table/2026-11-03https://periodictable.page/images/boron-bohr-model-animation.avifThe boron atom in motion: its 5 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Boron Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/boron-bohr-model-quarter-cutaway.webpA quarter of the boron atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Boron Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/boron-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the boron atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Boron Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/boron-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut boron atom has its 5 electrons on rings around a nucleus of 5 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Boron Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/carbon-element-periodic-table/2026-11-03https://periodictable.page/images/carbon-bohr-model-animation.avifThe carbon atom in motion: its 6 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Carbon Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/carbon-bohr-model-quarter-cutaway.webpA quarter of the carbon atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Carbon Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/carbon-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the carbon atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Carbon Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/carbon-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut carbon atom has its 6 electrons on rings around a nucleus of 6 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Carbon Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/nitrogen-element-periodic-table/2026-11-03https://periodictable.page/images/nitrogen-bohr-model-animation.avifThe nitrogen atom in motion: its 7 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Nitrogen Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/nitrogen-bohr-model-quarter-cutaway.webpA quarter of the nitrogen atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Nitrogen Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/nitrogen-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the nitrogen atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Nitrogen Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/nitrogen-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut nitrogen atom has its 7 electrons on rings around a nucleus of 7 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Nitrogen Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/oxygen-element-periodic-table/2026-11-03https://periodictable.page/images/oxygen-bohr-model-animation.avifThe oxygen atom in motion: its 8 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Oxygen Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/oxygen-bohr-model-quarter-cutaway.webpA quarter of the oxygen atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Oxygen Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/oxygen-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the oxygen atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Oxygen Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/oxygen-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut oxygen atom has its 8 electrons on rings around a nucleus of 8 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Oxygen Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/fluorine-element-periodic-table/2026-11-03https://periodictable.page/images/fluorine-bohr-model-animation.avifThe fluorine atom in motion: its 9 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Fluorine Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/fluorine-bohr-model-quarter-cutaway.webpA quarter of the fluorine atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Fluorine Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/fluorine-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the fluorine atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Fluorine Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/fluorine-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut fluorine atom has its 9 electrons on rings around a nucleus of 9 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Fluorine Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/neon-element-periodic-table/2026-11-03https://periodictable.page/images/neon-bohr-model-animation.avifThe neon atom in motion: its 10 electrons travel round 2 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Neon Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/neon-bohr-model-quarter-cutaway.webpA quarter of the neon atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Neon Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/neon-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the neon atom show how its electrons are spread over 2 shells. Protons are red, neutrons yellow and electrons blue.Neon Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/neon-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut neon atom has its 10 electrons on rings around a nucleus of 10 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Neon Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/sodium-element-periodic-table/2026-11-03https://periodictable.page/images/sodium-bohr-model-animation.avifThe sodium atom in motion: its 11 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Sodium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/sodium-bohr-model-quarter-cutaway.webpA quarter of the sodium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Sodium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/sodium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the sodium atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Sodium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/sodium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut sodium atom has its 11 electrons on rings around a nucleus of 11 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Sodium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/magnesium-element-periodic-table/2026-11-03https://periodictable.page/images/magnesium-bohr-model-animation.avifThe magnesium atom in motion: its 12 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Magnesium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/magnesium-bohr-model-quarter-cutaway.webpA quarter of the magnesium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Magnesium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/magnesium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the magnesium atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Magnesium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/magnesium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut magnesium atom has its 12 electrons on rings around a nucleus of 12 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Magnesium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/aluminium-element-periodic-table/2026-11-03https://periodictable.page/images/aluminium-bohr-model-animation.avifThe aluminium atom in motion: its 13 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Aluminium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/aluminium-bohr-model-quarter-cutaway.webpA quarter of the aluminium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Aluminium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/aluminium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the aluminium atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Aluminium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/aluminium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut aluminium atom has its 13 electrons on rings around a nucleus of 13 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Aluminium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/silicon-element-periodic-table/2026-11-03https://periodictable.page/images/silicon-bohr-model-animation.avifThe silicon atom in motion: its 14 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Silicon Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/silicon-bohr-model-quarter-cutaway.webpA quarter of the silicon atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Silicon Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/silicon-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the silicon atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Silicon Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/silicon-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut silicon atom has its 14 electrons on rings around a nucleus of 14 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Silicon Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/phosphorus-element-periodic-table/2026-11-03https://periodictable.page/images/phosphorus-bohr-model-animation.avifThe phosphorus atom in motion: its 15 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Phosphorus Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/phosphorus-bohr-model-quarter-cutaway.webpA quarter of the phosphorus atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Phosphorus Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/phosphorus-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the phosphorus atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Phosphorus Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/phosphorus-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut phosphorus atom has its 15 electrons on rings around a nucleus of 15 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Phosphorus Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/sulfur-element-periodic-table/2026-11-03https://periodictable.page/images/sulfur-bohr-model-animation.avifThe sulfur atom in motion: its 16 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Sulfur Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/sulfur-bohr-model-quarter-cutaway.webpA quarter of the sulfur atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Sulfur Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/sulfur-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the sulfur atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Sulfur Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/sulfur-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut sulfur atom has its 16 electrons on rings around a nucleus of 16 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Sulfur Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/chlorine-element-periodic-table/2026-11-03https://periodictable.page/images/chlorine-bohr-model-animation.avifThe chlorine atom in motion: its 17 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Chlorine Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/chlorine-bohr-model-quarter-cutaway.webpA quarter of the chlorine atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Chlorine Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/chlorine-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the chlorine atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Chlorine Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/chlorine-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut chlorine atom has its 17 electrons on rings around a nucleus of 17 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Chlorine Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/argon-element-periodic-table/2026-11-03https://periodictable.page/images/argon-bohr-model-animation.avifThe argon atom in motion: its 18 electrons travel round 3 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Argon Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/argon-bohr-model-quarter-cutaway.webpA quarter of the argon atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Argon Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/argon-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the argon atom show how its electrons are spread over 3 shells. Protons are red, neutrons yellow and electrons blue.Argon Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/argon-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut argon atom has its 18 electrons on rings around a nucleus of 18 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Argon Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/potassium-element-periodic-table/2026-11-03https://periodictable.page/images/potassium-bohr-model-animation.avifThe potassium atom in motion: its 19 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Potassium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/potassium-bohr-model-quarter-cutaway.webpA quarter of the potassium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Potassium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/potassium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the potassium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Potassium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/potassium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut potassium atom has its 19 electrons on rings around a nucleus of 19 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Potassium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/calcium-element-periodic-table/2026-11-03https://periodictable.page/images/calcium-bohr-model-animation.avifThe calcium atom in motion: its 20 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Calcium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/calcium-bohr-model-quarter-cutaway.webpA quarter of the calcium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Calcium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/calcium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the calcium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Calcium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/calcium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut calcium atom has its 20 electrons on rings around a nucleus of 20 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Calcium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/scandium-element-periodic-table/2026-11-03https://periodictable.page/images/scandium-bohr-model-animation.avifThe scandium atom in motion: its 21 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Scandium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/scandium-bohr-model-quarter-cutaway.webpA quarter of the scandium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Scandium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/scandium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the scandium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Scandium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/scandium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut scandium atom has its 21 electrons on rings around a nucleus of 21 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Scandium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/titanium-element-periodic-table/2026-11-03https://periodictable.page/images/titanium-bohr-model-animation.avifThe titanium atom in motion: its 22 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Titanium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/titanium-bohr-model-quarter-cutaway.webpA quarter of the titanium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Titanium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/titanium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the titanium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Titanium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/titanium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut titanium atom has its 22 electrons on rings around a nucleus of 22 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Titanium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/vanadium-element-periodic-table/2026-11-03https://periodictable.page/images/vanadium-bohr-model-animation.avifThe vanadium atom in motion: its 23 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Vanadium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/vanadium-bohr-model-quarter-cutaway.webpA quarter of the vanadium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Vanadium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/vanadium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the vanadium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Vanadium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/vanadium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut vanadium atom has its 23 electrons on rings around a nucleus of 23 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Vanadium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/chromium-element-periodic-table/2026-11-03https://periodictable.page/images/chromium-bohr-model-animation.avifThe chromium atom in motion: its 24 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Chromium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/chromium-bohr-model-quarter-cutaway.webpA quarter of the chromium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Chromium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/chromium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the chromium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Chromium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/chromium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut chromium atom has its 24 electrons on rings around a nucleus of 24 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Chromium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/manganese-element-periodic-table/2026-11-03https://periodictable.page/images/manganese-bohr-model-animation.avifThe manganese atom in motion: its 25 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Manganese Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/manganese-bohr-model-quarter-cutaway.webpA quarter of the manganese atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Manganese Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/manganese-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the manganese atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Manganese Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/manganese-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut manganese atom has its 25 electrons on rings around a nucleus of 25 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Manganese Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/iron-element-periodic-table/2026-11-03https://periodictable.page/images/iron-bohr-model-animation.avifThe iron atom in motion: its 26 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Iron Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/iron-bohr-model-quarter-cutaway.webpA quarter of the iron atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Iron Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/iron-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the iron atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Iron Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/iron-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut iron atom has its 26 electrons on rings around a nucleus of 26 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Iron Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/cobalt-element-periodic-table/2026-11-03https://periodictable.page/images/cobalt-bohr-model-animation.avifThe cobalt atom in motion: its 27 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Cobalt Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/cobalt-bohr-model-quarter-cutaway.webpA quarter of the cobalt atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Cobalt Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/cobalt-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the cobalt atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Cobalt Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/cobalt-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut cobalt atom has its 27 electrons on rings around a nucleus of 27 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Cobalt Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/nickel-element-periodic-table/2026-11-03https://periodictable.page/images/nickel-bohr-model-animation.avifThe nickel atom in motion: its 28 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Nickel Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/nickel-bohr-model-quarter-cutaway.webpA quarter of the nickel atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Nickel Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/nickel-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the nickel atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Nickel Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/nickel-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut nickel atom has its 28 electrons on rings around a nucleus of 28 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Nickel Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/copper-element-periodic-table/2026-11-03https://periodictable.page/images/copper-bohr-model-animation.avifThe copper atom in motion: its 29 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Copper Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/copper-element-periodic-table/images/copper-electrical-conductivity-comparison.svgCopper conducts electricity almost as well as silver and far better than aluminium or iron.Bar chart comparing the electrical conductivity of silver, copper, gold, aluminium and iron, with copper second at 59.6 MS/mhttps://periodictable.page/terms/https://periodictable.page/images/copper-bohr-model-quarter-cutaway.webpA quarter of the copper atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Copper Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/copper-element-periodic-table/images/copper-alloys-composition-bars.svgHow much copper each common alloy contains, from about 90% in marine cupronickel down to 2.5% in a modern penny.Stacked bar chart showing the copper share of bronze, brass, cupronickel, Muntz metal, sterling silver and a modern US pennyhttps://periodictable.page/terms/https://periodictable.page/copper-element-periodic-table/images/uses-of-copper-share-by-end-use.svgElectrical wire takes about three fifths of all copper, more than every other use combined.Horizontal stacked bar splitting copper end uses into electrical wire at 60 percent, roofing and plumbing at 20 percent, industrial machinery at 15 percent and alloys at 5 percenthttps://periodictable.page/terms/https://periodictable.page/images/copper-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the copper atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Copper Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/copper-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut copper atom has its 29 electrons on rings around a nucleus of 29 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Copper Bohr model, angled cutawayhttps://periodictable.page/terms/https://periodictable.page/copper-element-periodic-table/images/copper-history-timeline.svgCopper's history spans about eleven thousand years, from hammered beads to the wires of the electric grid.Timeline of copper history from first native copper use around 9000 BC through smelting, bronze, Egyptian blue and Roman mining to the electrical age and 2024 productionhttps://periodictable.page/terms/ https://periodictable.page/zinc-element-periodic-table/2026-11-03https://periodictable.page/images/zinc-bohr-model-animation.avifThe zinc atom in motion: its 30 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Zinc Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/zinc-bohr-model-quarter-cutaway.webpA quarter of the zinc atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Zinc Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/zinc-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the zinc atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Zinc Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/zinc-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut zinc atom has its 30 electrons on rings around a nucleus of 30 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Zinc Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/gallium-element-periodic-table/2026-11-03https://periodictable.page/images/gallium-bohr-model-animation.avifThe gallium atom in motion: its 31 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Gallium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/gallium-bohr-model-quarter-cutaway.webpA quarter of the gallium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Gallium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/gallium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the gallium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Gallium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/gallium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut gallium atom has its 31 electrons on rings around a nucleus of 31 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Gallium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/germanium-element-periodic-table/2026-11-03https://periodictable.page/images/germanium-bohr-model-animation.avifThe germanium atom in motion: its 32 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Germanium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/germanium-bohr-model-quarter-cutaway.webpA quarter of the germanium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Germanium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/germanium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the germanium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Germanium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/germanium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut germanium atom has its 32 electrons on rings around a nucleus of 32 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Germanium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/arsenic-element-periodic-table/2026-11-03https://periodictable.page/images/arsenic-bohr-model-animation.avifThe arsenic atom in motion: its 33 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Arsenic Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/arsenic-bohr-model-quarter-cutaway.webpA quarter of the arsenic atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Arsenic Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/arsenic-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the arsenic atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Arsenic Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/arsenic-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut arsenic atom has its 33 electrons on rings around a nucleus of 33 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Arsenic Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/selenium-element-periodic-table/2026-11-03https://periodictable.page/images/selenium-bohr-model-animation.avifThe selenium atom in motion: its 34 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Selenium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/selenium-bohr-model-quarter-cutaway.webpA quarter of the selenium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Selenium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/selenium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the selenium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Selenium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/selenium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut selenium atom has its 34 electrons on rings around a nucleus of 34 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Selenium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/bromine-element-periodic-table/2026-11-03https://periodictable.page/images/bromine-bohr-model-animation.avifThe bromine atom in motion: its 35 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Bromine Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/bromine-bohr-model-quarter-cutaway.webpA quarter of the bromine atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Bromine Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/bromine-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the bromine atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Bromine Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/bromine-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut bromine atom has its 35 electrons on rings around a nucleus of 35 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Bromine Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/krypton-element-periodic-table/2026-11-03https://periodictable.page/images/krypton-bohr-model-animation.avifThe krypton atom in motion: its 36 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Krypton Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/krypton-bohr-model-quarter-cutaway.webpA quarter of the krypton atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Krypton Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/krypton-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the krypton atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Krypton Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/krypton-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut krypton atom has its 36 electrons on rings around a nucleus of 36 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Krypton Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/rubidium-element-periodic-table/2026-11-03https://periodictable.page/images/rubidium-bohr-model-animation.avifThe rubidium atom in motion: its 37 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Rubidium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/rubidium-bohr-model-quarter-cutaway.webpA quarter of the rubidium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Rubidium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/rubidium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the rubidium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Rubidium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/rubidium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut rubidium atom has its 37 electrons on rings around a nucleus of 37 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Rubidium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/strontium-element-periodic-table/2026-11-03https://periodictable.page/images/strontium-bohr-model-animation.avifThe strontium atom in motion: its 38 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Strontium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/strontium-bohr-model-quarter-cutaway.webpA quarter of the strontium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Strontium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/strontium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the strontium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Strontium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/strontium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut strontium atom has its 38 electrons on rings around a nucleus of 38 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Strontium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/yttrium-element-periodic-table/2026-11-03https://periodictable.page/images/yttrium-bohr-model-animation.avifThe yttrium atom in motion: its 39 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Yttrium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/yttrium-bohr-model-quarter-cutaway.webpA quarter of the yttrium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Yttrium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/yttrium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the yttrium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Yttrium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/yttrium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut yttrium atom has its 39 electrons on rings around a nucleus of 39 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Yttrium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/zirconium-element-periodic-table/2026-11-03https://periodictable.page/images/zirconium-bohr-model-animation.avifThe zirconium atom in motion: its 40 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Zirconium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/zirconium-bohr-model-quarter-cutaway.webpA quarter of the zirconium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Zirconium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/zirconium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the zirconium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Zirconium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/zirconium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut zirconium atom has its 40 electrons on rings around a nucleus of 40 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Zirconium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/niobium-element-periodic-table/2026-11-03https://periodictable.page/images/niobium-bohr-model-animation.avifThe niobium atom in motion: its 41 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Niobium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/niobium-bohr-model-quarter-cutaway.webpA quarter of the niobium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Niobium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/niobium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the niobium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Niobium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/niobium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut niobium atom has its 41 electrons on rings around a nucleus of 41 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Niobium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/molybdenum-element-periodic-table/2026-11-03https://periodictable.page/images/molybdenum-bohr-model-animation.avifThe molybdenum atom in motion: its 42 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Molybdenum Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/molybdenum-bohr-model-quarter-cutaway.webpA quarter of the molybdenum atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Molybdenum Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/molybdenum-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the molybdenum atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Molybdenum Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/molybdenum-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut molybdenum atom has its 42 electrons on rings around a nucleus of 42 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Molybdenum Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/technetium-element-periodic-table/2026-11-03https://periodictable.page/images/technetium-bohr-model-animation.avifThe technetium atom in motion: its 43 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Technetium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/technetium-bohr-model-quarter-cutaway.webpA quarter of the technetium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Technetium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/technetium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the technetium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Technetium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/technetium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut technetium atom has its 43 electrons on rings around a nucleus of 43 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Technetium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/ruthenium-element-periodic-table/2026-11-03https://periodictable.page/images/ruthenium-bohr-model-animation.avifThe ruthenium atom in motion: its 44 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Ruthenium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/ruthenium-bohr-model-quarter-cutaway.webpA quarter of the ruthenium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Ruthenium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/ruthenium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the ruthenium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Ruthenium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/ruthenium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut ruthenium atom has its 44 electrons on rings around a nucleus of 44 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Ruthenium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/rhodium-element-periodic-table/2026-11-03https://periodictable.page/images/rhodium-bohr-model-animation.avifThe rhodium atom in motion: its 45 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Rhodium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/rhodium-bohr-model-quarter-cutaway.webpA quarter of the rhodium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Rhodium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/rhodium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the rhodium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Rhodium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/rhodium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut rhodium atom has its 45 electrons on rings around a nucleus of 45 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Rhodium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/palladium-element-periodic-table/2026-11-03https://periodictable.page/images/palladium-bohr-model-animation.avifThe palladium atom in motion: its 46 electrons travel round 4 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Palladium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/palladium-bohr-model-quarter-cutaway.webpA quarter of the palladium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Palladium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/palladium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the palladium atom show how its electrons are spread over 4 shells. Protons are red, neutrons yellow and electrons blue.Palladium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/palladium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut palladium atom has its 46 electrons on rings around a nucleus of 46 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Palladium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/silver-element-periodic-table/2026-11-03https://periodictable.page/images/silver-bohr-model-animation.avifThe silver atom in motion: its 47 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Silver Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/silver-bohr-model-quarter-cutaway.webpA quarter of the silver atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Silver Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/silver-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the silver atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Silver Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/silver-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut silver atom has its 47 electrons on rings around a nucleus of 47 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Silver Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/cadmium-element-periodic-table/2026-11-03https://periodictable.page/images/cadmium-bohr-model-animation.avifThe cadmium atom in motion: its 48 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Cadmium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/cadmium-bohr-model-quarter-cutaway.webpA quarter of the cadmium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Cadmium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/cadmium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the cadmium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Cadmium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/cadmium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut cadmium atom has its 48 electrons on rings around a nucleus of 48 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Cadmium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/indium-element-periodic-table/2026-11-03https://periodictable.page/images/indium-bohr-model-animation.avifThe indium atom in motion: its 49 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Indium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/indium-bohr-model-quarter-cutaway.webpA quarter of the indium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Indium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/indium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the indium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Indium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/indium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut indium atom has its 49 electrons on rings around a nucleus of 49 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Indium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/tin-element-periodic-table/2026-11-03https://periodictable.page/images/tin-bohr-model-animation.avifThe tin atom in motion: its 50 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Tin Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/tin-bohr-model-quarter-cutaway.webpA quarter of the tin atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Tin Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/tin-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the tin atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Tin Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/tin-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut tin atom has its 50 electrons on rings around a nucleus of 50 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Tin Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/antimony-element-periodic-table/2026-11-03https://periodictable.page/images/antimony-bohr-model-animation.avifThe antimony atom in motion: its 51 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Antimony Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/antimony-bohr-model-quarter-cutaway.webpA quarter of the antimony atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Antimony Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/antimony-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the antimony atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Antimony Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/antimony-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut antimony atom has its 51 electrons on rings around a nucleus of 51 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Antimony Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/tellurium-element-periodic-table/2026-11-03https://periodictable.page/images/tellurium-bohr-model-animation.avifThe tellurium atom in motion: its 52 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Tellurium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/tellurium-bohr-model-quarter-cutaway.webpA quarter of the tellurium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Tellurium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/tellurium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the tellurium atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Tellurium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/tellurium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut tellurium atom has its 52 electrons on rings around a nucleus of 52 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Tellurium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/iodine-element-periodic-table/2026-11-03https://periodictable.page/images/iodine-bohr-model-animation.avifThe iodine atom in motion: its 53 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Iodine Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/iodine-bohr-model-quarter-cutaway.webpA quarter of the iodine atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Iodine Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/iodine-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the iodine atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Iodine Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/iodine-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut iodine atom has its 53 electrons on rings around a nucleus of 53 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Iodine Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/xenon-element-periodic-table/2026-11-03https://periodictable.page/images/xenon-bohr-model-animation.avifThe xenon atom in motion: its 54 electrons travel round 5 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Xenon Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/xenon-bohr-model-quarter-cutaway.webpA quarter of the xenon atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Xenon Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/xenon-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the xenon atom show how its electrons are spread over 5 shells. Protons are red, neutrons yellow and electrons blue.Xenon Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/xenon-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut xenon atom has its 54 electrons on rings around a nucleus of 54 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Xenon Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/cesium-element-periodic-table/2026-11-03https://periodictable.page/images/cesium-bohr-model-animation.avifThe cesium atom in motion: its 55 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Cesium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/cesium-bohr-model-quarter-cutaway.webpA quarter of the cesium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Cesium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/cesium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the cesium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Cesium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/cesium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut cesium atom has its 55 electrons on rings around a nucleus of 55 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Cesium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/barium-element-periodic-table/2026-11-03https://periodictable.page/images/barium-bohr-model-animation.avifThe barium atom in motion: its 56 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Barium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/barium-bohr-model-quarter-cutaway.webpA quarter of the barium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Barium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/barium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the barium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Barium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/barium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut barium atom has its 56 electrons on rings around a nucleus of 56 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Barium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/lanthanum-element-periodic-table/2026-11-03https://periodictable.page/images/lanthanum-bohr-model-animation.avifThe lanthanum atom in motion: its 57 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Lanthanum Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/lanthanum-bohr-model-quarter-cutaway.webpA quarter of the lanthanum atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Lanthanum Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/lanthanum-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the lanthanum atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Lanthanum Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/lanthanum-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut lanthanum atom has its 57 electrons on rings around a nucleus of 57 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Lanthanum Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/cerium-element-periodic-table/2026-11-03https://periodictable.page/images/cerium-bohr-model-animation.avifThe cerium atom in motion: its 58 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Cerium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/cerium-bohr-model-quarter-cutaway.webpA quarter of the cerium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Cerium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/cerium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the cerium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Cerium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/cerium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut cerium atom has its 58 electrons on rings around a nucleus of 58 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Cerium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/praseodymium-element-periodic-table/2026-11-03https://periodictable.page/images/praseodymium-bohr-model-animation.avifThe praseodymium atom in motion: its 59 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Praseodymium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/praseodymium-bohr-model-quarter-cutaway.webpA quarter of the praseodymium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Praseodymium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/praseodymium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the praseodymium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Praseodymium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/praseodymium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut praseodymium atom has its 59 electrons on rings around a nucleus of 59 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Praseodymium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/neodymium-element-periodic-table/2026-11-03https://periodictable.page/images/neodymium-bohr-model-animation.avifThe neodymium atom in motion: its 60 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Neodymium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/neodymium-bohr-model-quarter-cutaway.webpA quarter of the neodymium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Neodymium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/neodymium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the neodymium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Neodymium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/neodymium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut neodymium atom has its 60 electrons on rings around a nucleus of 60 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Neodymium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/promethium-element-periodic-table/2026-11-03https://periodictable.page/images/promethium-bohr-model-animation.avifThe promethium atom in motion: its 61 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Promethium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/promethium-bohr-model-quarter-cutaway.webpA quarter of the promethium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Promethium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/promethium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the promethium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Promethium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/promethium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut promethium atom has its 61 electrons on rings around a nucleus of 61 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Promethium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/samarium-element-periodic-table/2026-11-03https://periodictable.page/images/samarium-bohr-model-animation.avifThe samarium atom in motion: its 62 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Samarium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/samarium-bohr-model-quarter-cutaway.webpA quarter of the samarium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Samarium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/samarium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the samarium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Samarium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/samarium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut samarium atom has its 62 electrons on rings around a nucleus of 62 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Samarium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/europium-element-periodic-table/2026-11-03https://periodictable.page/images/europium-bohr-model-animation.avifThe europium atom in motion: its 63 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Europium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/europium-bohr-model-quarter-cutaway.webpA quarter of the europium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Europium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/europium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the europium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Europium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/europium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut europium atom has its 63 electrons on rings around a nucleus of 63 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Europium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/gadolinium-element-periodic-table/2026-11-03https://periodictable.page/images/gadolinium-bohr-model-animation.avifThe gadolinium atom in motion: its 64 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Gadolinium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/gadolinium-bohr-model-quarter-cutaway.webpA quarter of the gadolinium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Gadolinium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/gadolinium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the gadolinium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Gadolinium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/gadolinium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut gadolinium atom has its 64 electrons on rings around a nucleus of 64 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Gadolinium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/terbium-element-periodic-table/2026-11-03https://periodictable.page/images/terbium-bohr-model-animation.avifThe terbium atom in motion: its 65 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Terbium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/terbium-bohr-model-quarter-cutaway.webpA quarter of the terbium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Terbium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/terbium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the terbium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Terbium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/terbium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut terbium atom has its 65 electrons on rings around a nucleus of 65 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Terbium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/dysprosium-element-periodic-table/2026-11-03https://periodictable.page/images/dysprosium-bohr-model-animation.avifThe dysprosium atom in motion: its 66 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Dysprosium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/dysprosium-bohr-model-quarter-cutaway.webpA quarter of the dysprosium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Dysprosium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/dysprosium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the dysprosium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Dysprosium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/dysprosium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut dysprosium atom has its 66 electrons on rings around a nucleus of 66 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Dysprosium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/holmium-element-periodic-table/2026-11-03https://periodictable.page/images/holmium-bohr-model-animation.avifThe holmium atom in motion: its 67 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Holmium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/holmium-bohr-model-quarter-cutaway.webpA quarter of the holmium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Holmium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/holmium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the holmium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Holmium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/holmium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut holmium atom has its 67 electrons on rings around a nucleus of 67 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Holmium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/erbium-element-periodic-table/2026-11-03https://periodictable.page/images/erbium-bohr-model-animation.avifThe erbium atom in motion: its 68 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Erbium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/erbium-bohr-model-quarter-cutaway.webpA quarter of the erbium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Erbium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/erbium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the erbium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Erbium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/erbium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut erbium atom has its 68 electrons on rings around a nucleus of 68 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Erbium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/thulium-element-periodic-table/2026-11-03https://periodictable.page/images/thulium-bohr-model-animation.avifThe thulium atom in motion: its 69 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Thulium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/thulium-bohr-model-quarter-cutaway.webpA quarter of the thulium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Thulium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/thulium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the thulium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Thulium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/thulium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut thulium atom has its 69 electrons on rings around a nucleus of 69 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Thulium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/ytterbium-element-periodic-table/2026-11-03https://periodictable.page/images/ytterbium-bohr-model-animation.avifThe ytterbium atom in motion: its 70 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Ytterbium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/ytterbium-bohr-model-quarter-cutaway.webpA quarter of the ytterbium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Ytterbium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/ytterbium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the ytterbium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Ytterbium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/ytterbium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut ytterbium atom has its 70 electrons on rings around a nucleus of 70 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Ytterbium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/lutetium-element-periodic-table/2026-11-03https://periodictable.page/images/lutetium-bohr-model-animation.avifThe lutetium atom in motion: its 71 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Lutetium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/lutetium-bohr-model-quarter-cutaway.webpA quarter of the lutetium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Lutetium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/lutetium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the lutetium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Lutetium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/lutetium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut lutetium atom has its 71 electrons on rings around a nucleus of 71 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Lutetium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/hafnium-element-periodic-table/2026-11-03https://periodictable.page/images/hafnium-bohr-model-animation.avifThe hafnium atom in motion: its 72 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Hafnium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/hafnium-bohr-model-quarter-cutaway.webpA quarter of the hafnium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Hafnium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/hafnium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the hafnium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Hafnium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/hafnium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut hafnium atom has its 72 electrons on rings around a nucleus of 72 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Hafnium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/tantalum-element-periodic-table/2026-11-03https://periodictable.page/images/tantalum-bohr-model-animation.avifThe tantalum atom in motion: its 73 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Tantalum Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/tantalum-bohr-model-quarter-cutaway.webpA quarter of the tantalum atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Tantalum Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/tantalum-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the tantalum atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Tantalum Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/tantalum-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut tantalum atom has its 73 electrons on rings around a nucleus of 73 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Tantalum Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/tungsten-element-periodic-table/2026-11-03https://periodictable.page/images/tungsten-bohr-model-animation.avifThe tungsten atom in motion: its 74 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Tungsten Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/tungsten-bohr-model-quarter-cutaway.webpA quarter of the tungsten atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Tungsten Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/tungsten-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the tungsten atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Tungsten Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/tungsten-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut tungsten atom has its 74 electrons on rings around a nucleus of 74 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Tungsten Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/rhenium-element-periodic-table/2026-11-03https://periodictable.page/images/rhenium-bohr-model-animation.avifThe rhenium atom in motion: its 75 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Rhenium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/rhenium-bohr-model-quarter-cutaway.webpA quarter of the rhenium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Rhenium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/rhenium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the rhenium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Rhenium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/rhenium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut rhenium atom has its 75 electrons on rings around a nucleus of 75 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Rhenium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/osmium-element-periodic-table/2026-11-03https://periodictable.page/images/osmium-bohr-model-animation.avifThe osmium atom in motion: its 76 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Osmium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/osmium-bohr-model-quarter-cutaway.webpA quarter of the osmium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Osmium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/osmium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the osmium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Osmium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/osmium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut osmium atom has its 76 electrons on rings around a nucleus of 76 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Osmium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/iridium-element-periodic-table/2026-11-03https://periodictable.page/images/iridium-bohr-model-animation.avifThe iridium atom in motion: its 77 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Iridium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/iridium-bohr-model-quarter-cutaway.webpA quarter of the iridium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Iridium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/iridium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the iridium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Iridium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/iridium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut iridium atom has its 77 electrons on rings around a nucleus of 77 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Iridium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/platinum-element-periodic-table/2026-11-03https://periodictable.page/images/platinum-bohr-model-animation.avifThe platinum atom in motion: its 78 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Platinum Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/platinum-bohr-model-quarter-cutaway.webpA quarter of the platinum atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Platinum Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/platinum-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the platinum atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Platinum Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/platinum-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut platinum atom has its 78 electrons on rings around a nucleus of 78 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Platinum Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/gold-element-periodic-table/2026-11-03https://periodictable.page/images/gold-bohr-model-animation.avifThe gold atom in motion: its 79 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Gold Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/gold-bohr-model-quarter-cutaway.webpA quarter of the gold atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Gold Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/gold-element-periodic-table/images/gold-density-compared-with-tungsten-lead-silver-platinum.svgGold and its closest cheap look-alike differ by only 0.05 g/cm³, which is why plated fakes need more than a scale to catch.Bar chart ranking platinum, gold, tungsten, lead and silver by weight per cubic centimetre, with gold at 19.30 nearly matching tungsten at 19.25https://periodictable.page/terms/https://periodictable.page/images/gold-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the gold atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Gold Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/gold-element-periodic-table/images/gold-karat-purity-fine-gold-vs-alloy.svgThe same 4.2 g ring holds 4.20 g of gold at 24k but only 2.45 g at 14k.Stacked bar chart splitting a 4.2 g ring into fine gold and alloy metal at 24k, 22k, 18k, 14k and 10khttps://periodictable.page/terms/https://periodictable.page/gold-element-periodic-table/images/gold-uses-jewelry-investment-industry-share.svgRoughly half of new supply is made into ornaments, two-fifths is bought as bars and coins, and a tenth goes to technology.Donut chart showing new gold supply split into 50% jewelry, 40% investment and 10% industryhttps://periodictable.page/terms/https://periodictable.page/images/gold-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut gold atom has its 79 electrons on rings around a nucleus of 79 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Gold Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/mercury-element-periodic-table/2026-11-03https://periodictable.page/images/mercury-bohr-model-animation.avifThe mercury atom in motion: its 80 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Mercury Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/mercury-element-periodic-table/images/mercury-liquid-range-melting-boiling-point-comparison.svgMercury stays liquid across about 396 °C, the narrowest range of any metal.Dumbbell chart comparing melting and boiling points of bromine, mercury, caesium and lead, with liquid mercury spanning only −38.83 °C to 356.73 °Chttps://periodictable.page/terms/https://periodictable.page/mercury-element-periodic-table/images/mercury-stable-isotopes-natural-abundance.svgHg-202, Hg-200 and Hg-199 together make up about 70% of natural mercury.Bar chart ranking the seven stable isotopes of mercury by natural abundance, from Hg-202 at 29.86% down to Hg-196 at 0.15%https://periodictable.page/terms/https://periodictable.page/images/mercury-bohr-model-quarter-cutaway.webpA quarter of the mercury atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Mercury Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/mercury-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the mercury atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Mercury Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/mercury-element-periodic-table/images/mercury-history-timeline-quicksilver-milestones.svgTwo centuries of mercury science, poisoning and regulation, from Priestley's oxygen to a global treaty.Timeline of quicksilver milestones from oxygen isolated from mercuric oxide in 1774 to the Minamata Convention entering into force in 2017https://periodictable.page/terms/https://periodictable.page/images/mercury-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut mercury atom has its 80 electrons on rings around a nucleus of 80 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Mercury Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/thallium-element-periodic-table/2026-11-03https://periodictable.page/images/thallium-bohr-model-animation.avifThe thallium atom in motion: its 81 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Thallium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/thallium-bohr-model-quarter-cutaway.webpA quarter of the thallium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Thallium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/thallium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the thallium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Thallium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/thallium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut thallium atom has its 81 electrons on rings around a nucleus of 81 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Thallium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/lead-element-periodic-table/2026-11-03https://periodictable.page/images/lead-bohr-model-animation.avifThe lead atom in motion: its 82 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Lead Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/lead-bohr-model-quarter-cutaway.webpA quarter of the lead atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Lead Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/lead-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the lead atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Lead Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/lead-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut lead atom has its 82 electrons on rings around a nucleus of 82 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Lead Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/bismuth-element-periodic-table/2026-11-03https://periodictable.page/images/bismuth-bohr-model-animation.avifThe bismuth atom in motion: its 83 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Bismuth Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/bismuth-bohr-model-quarter-cutaway.webpA quarter of the bismuth atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Bismuth Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/bismuth-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the bismuth atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Bismuth Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/bismuth-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut bismuth atom has its 83 electrons on rings around a nucleus of 83 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Bismuth Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/polonium-element-periodic-table/2026-11-03https://periodictable.page/images/polonium-bohr-model-animation.avifThe polonium atom in motion: its 84 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Polonium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/polonium-bohr-model-quarter-cutaway.webpA quarter of the polonium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Polonium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/polonium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the polonium atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Polonium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/polonium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut polonium atom has its 84 electrons on rings around a nucleus of 84 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Polonium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/astatine-element-periodic-table/2026-11-03https://periodictable.page/images/astatine-bohr-model-animation.avifThe astatine atom in motion: its 85 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Astatine Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/astatine-bohr-model-quarter-cutaway.webpA quarter of the astatine atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Astatine Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/astatine-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the astatine atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Astatine Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/astatine-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut astatine atom has its 85 electrons on rings around a nucleus of 85 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Astatine Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/radon-element-periodic-table/2026-11-03https://periodictable.page/images/radon-bohr-model-animation.avifThe radon atom in motion: its 86 electrons travel round 6 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Radon Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/radon-bohr-model-quarter-cutaway.webpA quarter of the radon atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Radon Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/radon-element-periodic-table/images/radon-222-half-life-decay-curve.svgRadon-222 loses half its activity every 3.8 days, which is why radon has to be constantly replenished by radium decay.Line chart of a radon-222 sample decaying over 42 days, falling to half at 3.8 days and to 1/2,048 after 11 half-liveshttps://periodictable.page/terms/https://periodictable.page/images/radon-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the radon atom show how its electrons are spread over 6 shells. Protons are red, neutrons yellow and electrons blue.Radon Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/radon-element-periodic-table/images/radon-element-discovery-timeline.svgRadon went through several names, from emanation and niton to radon, before IUPAC settled it in 1923.Timeline of radon's discovery from emanation in 1899 through Ramsay's noble gas proposal, the name niton in 1910 and IUPAC's choice of radon in 1923https://periodictable.page/terms/https://periodictable.page/radon-element-periodic-table/images/indoor-radon-levels-vs-guidelines.svgAn example basement reading of 6.2 pCi/L (229.4 Bq/m³) set against the main home radon guidelines.Bar chart comparing an example indoor radon concentration of 229.4 Bq/m³ with the EU new-home level, EPA action level, WHO reference level and outdoor airhttps://periodictable.page/terms/https://periodictable.page/images/radon-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut radon atom has its 86 electrons on rings around a nucleus of 86 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Radon Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/francium-element-periodic-table/2026-11-03https://periodictable.page/images/francium-bohr-model-animation.avifThe francium atom in motion: its 87 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Francium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/francium-bohr-model-quarter-cutaway.webpA quarter of the francium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Francium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/francium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the francium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Francium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/francium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut francium atom has its 87 electrons on rings around a nucleus of 87 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Francium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/radium-element-periodic-table/2026-11-03https://periodictable.page/images/radium-bohr-model-animation.avifThe radium atom in motion: its 88 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Radium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/radium-bohr-model-quarter-cutaway.webpA quarter of the radium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Radium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/radium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the radium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Radium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/radium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut radium atom has its 88 electrons on rings around a nucleus of 88 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Radium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/actinium-element-periodic-table/2026-11-03https://periodictable.page/images/actinium-bohr-model-animation.avifThe actinium atom in motion: its 89 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Actinium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/actinium-bohr-model-quarter-cutaway.webpA quarter of the actinium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Actinium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/actinium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the actinium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Actinium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/actinium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut actinium atom has its 89 electrons on rings around a nucleus of 89 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Actinium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/thorium-element-periodic-table/2026-11-03https://periodictable.page/images/thorium-bohr-model-animation.avifThe thorium atom in motion: its 90 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Thorium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/thorium-bohr-model-quarter-cutaway.webpA quarter of the thorium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Thorium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/thorium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the thorium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Thorium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/thorium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut thorium atom has its 90 electrons on rings around a nucleus of 90 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Thorium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/protactinium-element-periodic-table/2026-11-03https://periodictable.page/images/protactinium-bohr-model-animation.avifThe protactinium atom in motion: its 91 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Protactinium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/protactinium-bohr-model-quarter-cutaway.webpA quarter of the protactinium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Protactinium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/protactinium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the protactinium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Protactinium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/protactinium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut protactinium atom has its 91 electrons on rings around a nucleus of 91 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Protactinium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/uranium-element-periodic-table/2026-11-03https://periodictable.page/images/uranium-bohr-model-animation.avifThe uranium atom in motion: its 92 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Uranium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/uranium-bohr-model-quarter-cutaway.webpA quarter of the uranium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Uranium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/uranium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the uranium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Uranium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/uranium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut uranium atom has its 92 electrons on rings around a nucleus of 92 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Uranium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/neptunium-element-periodic-table/2026-11-03https://periodictable.page/images/neptunium-bohr-model-animation.avifThe neptunium atom in motion: its 93 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Neptunium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/neptunium-bohr-model-quarter-cutaway.webpA quarter of the neptunium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Neptunium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/neptunium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the neptunium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Neptunium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/neptunium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut neptunium atom has its 93 electrons on rings around a nucleus of 93 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Neptunium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/plutonium-element-periodic-table/2026-11-03https://periodictable.page/images/plutonium-bohr-model-animation.avifThe plutonium atom in motion: its 94 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Plutonium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/plutonium-bohr-model-quarter-cutaway.webpA quarter of the plutonium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Plutonium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/plutonium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the plutonium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Plutonium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/plutonium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut plutonium atom has its 94 electrons on rings around a nucleus of 94 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Plutonium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/americium-element-periodic-table/2026-11-03https://periodictable.page/images/americium-bohr-model-animation.avifThe americium atom in motion: its 95 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Americium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/americium-bohr-model-quarter-cutaway.webpA quarter of the americium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Americium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/americium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the americium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Americium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/americium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut americium atom has its 95 electrons on rings around a nucleus of 95 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Americium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/curium-element-periodic-table/2026-11-03https://periodictable.page/images/curium-bohr-model-animation.avifThe curium atom in motion: its 96 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Curium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/curium-bohr-model-quarter-cutaway.webpA quarter of the curium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Curium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/curium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the curium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Curium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/curium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut curium atom has its 96 electrons on rings around a nucleus of 96 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Curium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/berkelium-element-periodic-table/2026-11-03https://periodictable.page/images/berkelium-bohr-model-animation.avifThe berkelium atom in motion: its 97 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Berkelium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/berkelium-bohr-model-quarter-cutaway.webpA quarter of the berkelium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Berkelium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/berkelium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the berkelium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Berkelium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/berkelium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut berkelium atom has its 97 electrons on rings around a nucleus of 97 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Berkelium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/californium-element-periodic-table/2026-11-03https://periodictable.page/images/californium-bohr-model-animation.avifThe californium atom in motion: its 98 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Californium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/californium-bohr-model-quarter-cutaway.webpA quarter of the californium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Californium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/californium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the californium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Californium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/californium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut californium atom has its 98 electrons on rings around a nucleus of 98 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Californium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/einsteinium-element-periodic-table/2026-11-03https://periodictable.page/images/einsteinium-bohr-model-animation.avifThe einsteinium atom in motion: its 99 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Einsteinium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/einsteinium-bohr-model-quarter-cutaway.webpA quarter of the einsteinium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Einsteinium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/einsteinium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the einsteinium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Einsteinium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/einsteinium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut einsteinium atom has its 99 electrons on rings around a nucleus of 99 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Einsteinium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/fermium-element-periodic-table/2026-11-03https://periodictable.page/images/fermium-bohr-model-animation.avifThe fermium atom in motion: its 100 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Fermium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/fermium-bohr-model-quarter-cutaway.webpA quarter of the fermium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Fermium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/fermium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the fermium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Fermium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/fermium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut fermium atom has its 100 electrons on rings around a nucleus of 100 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Fermium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/mendelevium-element-periodic-table/2026-11-03https://periodictable.page/images/mendelevium-bohr-model-animation.avifThe mendelevium atom in motion: its 101 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Mendelevium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/mendelevium-bohr-model-quarter-cutaway.webpA quarter of the mendelevium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Mendelevium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/mendelevium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the mendelevium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Mendelevium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/mendelevium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut mendelevium atom has its 101 electrons on rings around a nucleus of 101 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Mendelevium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/nobelium-element-periodic-table/2026-11-03https://periodictable.page/images/nobelium-bohr-model-animation.avifThe nobelium atom in motion: its 102 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Nobelium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/nobelium-bohr-model-quarter-cutaway.webpA quarter of the nobelium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Nobelium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/nobelium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the nobelium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Nobelium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/nobelium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut nobelium atom has its 102 electrons on rings around a nucleus of 102 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Nobelium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/lawrencium-element-periodic-table/2026-11-03https://periodictable.page/images/lawrencium-bohr-model-animation.avifThe lawrencium atom in motion: its 103 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Lawrencium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/lawrencium-bohr-model-quarter-cutaway.webpA quarter of the lawrencium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Lawrencium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/lawrencium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the lawrencium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Lawrencium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/lawrencium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut lawrencium atom has its 103 electrons on rings around a nucleus of 103 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Lawrencium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/rutherfordium-element-periodic-table/2026-11-03https://periodictable.page/images/rutherfordium-bohr-model-animation.avifThe rutherfordium atom in motion: its 104 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Rutherfordium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/rutherfordium-bohr-model-quarter-cutaway.webpA quarter of the rutherfordium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Rutherfordium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/rutherfordium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the rutherfordium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Rutherfordium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/rutherfordium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut rutherfordium atom has its 104 electrons on rings around a nucleus of 104 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Rutherfordium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/dubnium-element-periodic-table/2026-11-03https://periodictable.page/images/dubnium-bohr-model-animation.avifThe dubnium atom in motion: its 105 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Dubnium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/dubnium-bohr-model-quarter-cutaway.webpA quarter of the dubnium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Dubnium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/dubnium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the dubnium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Dubnium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/dubnium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut dubnium atom has its 105 electrons on rings around a nucleus of 105 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Dubnium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/seaborgium-element-periodic-table/2026-11-03https://periodictable.page/images/seaborgium-bohr-model-animation.avifThe seaborgium atom in motion: its 106 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Seaborgium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/seaborgium-bohr-model-quarter-cutaway.webpA quarter of the seaborgium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Seaborgium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/seaborgium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the seaborgium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Seaborgium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/seaborgium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut seaborgium atom has its 106 electrons on rings around a nucleus of 106 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Seaborgium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/bohrium-element-periodic-table/2026-11-03https://periodictable.page/images/bohrium-bohr-model-animation.avifThe bohrium atom in motion: its 107 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Bohrium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/bohrium-bohr-model-quarter-cutaway.webpA quarter of the bohrium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Bohrium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/bohrium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the bohrium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Bohrium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/bohrium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut bohrium atom has its 107 electrons on rings around a nucleus of 107 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Bohrium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/hassium-element-periodic-table/2026-11-03https://periodictable.page/images/hassium-bohr-model-animation.avifThe hassium atom in motion: its 108 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Hassium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/hassium-bohr-model-quarter-cutaway.webpA quarter of the hassium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Hassium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/hassium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the hassium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Hassium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/hassium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut hassium atom has its 108 electrons on rings around a nucleus of 108 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Hassium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/meitnerium-element-periodic-table/2026-11-03https://periodictable.page/images/meitnerium-bohr-model-animation.avifThe meitnerium atom in motion: its 109 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Meitnerium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/meitnerium-bohr-model-quarter-cutaway.webpA quarter of the meitnerium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Meitnerium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/meitnerium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the meitnerium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Meitnerium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/meitnerium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut meitnerium atom has its 109 electrons on rings around a nucleus of 109 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Meitnerium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/darmstadtium-element-periodic-table/2026-11-03https://periodictable.page/images/darmstadtium-bohr-model-animation.avifThe darmstadtium atom in motion: its 110 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Darmstadtium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/darmstadtium-bohr-model-quarter-cutaway.webpA quarter of the darmstadtium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Darmstadtium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/darmstadtium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the darmstadtium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Darmstadtium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/darmstadtium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut darmstadtium atom has its 110 electrons on rings around a nucleus of 110 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Darmstadtium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/roentgenium-element-periodic-table/2026-11-03https://periodictable.page/images/roentgenium-bohr-model-animation.avifThe roentgenium atom in motion: its 111 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Roentgenium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/roentgenium-bohr-model-quarter-cutaway.webpA quarter of the roentgenium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Roentgenium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/roentgenium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the roentgenium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Roentgenium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/roentgenium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut roentgenium atom has its 111 electrons on rings around a nucleus of 111 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Roentgenium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/copernicium-element-periodic-table/2026-11-03https://periodictable.page/images/copernicium-bohr-model-animation.avifThe copernicium atom in motion: its 112 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Copernicium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/copernicium-bohr-model-quarter-cutaway.webpA quarter of the copernicium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Copernicium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/copernicium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the copernicium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Copernicium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/copernicium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut copernicium atom has its 112 electrons on rings around a nucleus of 112 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Copernicium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/nihonium-element-periodic-table/2026-11-03https://periodictable.page/images/nihonium-bohr-model-animation.avifThe nihonium atom in motion: its 113 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Nihonium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/nihonium-bohr-model-quarter-cutaway.webpA quarter of the nihonium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Nihonium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/nihonium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the nihonium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Nihonium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/nihonium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut nihonium atom has its 113 electrons on rings around a nucleus of 113 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Nihonium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/flerovium-element-periodic-table/2026-11-03https://periodictable.page/images/flerovium-bohr-model-animation.avifThe flerovium atom in motion: its 114 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Flerovium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/flerovium-bohr-model-quarter-cutaway.webpA quarter of the flerovium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Flerovium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/flerovium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the flerovium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Flerovium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/flerovium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut flerovium atom has its 114 electrons on rings around a nucleus of 114 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Flerovium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/moscovium-element-periodic-table/2026-11-03https://periodictable.page/images/moscovium-bohr-model-animation.avifThe moscovium atom in motion: its 115 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Moscovium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/moscovium-bohr-model-quarter-cutaway.webpA quarter of the moscovium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Moscovium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/moscovium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the moscovium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Moscovium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/moscovium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut moscovium atom has its 115 electrons on rings around a nucleus of 115 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Moscovium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/livermorium-element-periodic-table/2026-11-03https://periodictable.page/images/livermorium-bohr-model-animation.avifThe livermorium atom in motion: its 116 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Livermorium Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/livermorium-bohr-model-quarter-cutaway.webpA quarter of the livermorium atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Livermorium Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/livermorium-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the livermorium atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Livermorium Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/livermorium-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut livermorium atom has its 116 electrons on rings around a nucleus of 116 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Livermorium Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/tennessine-element-periodic-table/2026-11-03https://periodictable.page/images/tennessine-bohr-model-animation.avifThe tennessine atom in motion: its 117 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Tennessine Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/tennessine-bohr-model-quarter-cutaway.webpA quarter of the tennessine atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Tennessine Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/tennessine-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the tennessine atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Tennessine Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/tennessine-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut tennessine atom has its 117 electrons on rings around a nucleus of 117 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Tennessine Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/oganesson-element-periodic-table/2026-11-03https://periodictable.page/images/oganesson-bohr-model-animation.avifThe oganesson atom in motion: its 118 electrons travel round 7 shells while the camera circles the nucleus, in a six-second loop. Protons are red, neutrons yellow and electrons blue.Oganesson Bohr model, animated electron shellshttps://periodictable.page/terms/https://periodictable.page/images/oganesson-bohr-model-quarter-cutaway.webpA quarter of the oganesson atom's outer shell is cut away so the nucleus and the rings of electrons show inside. Protons are red, neutrons yellow and electrons blue.Oganesson Bohr model, quarter cutawayhttps://periodictable.page/terms/https://periodictable.page/images/oganesson-bohr-model-electron-shells-top-view.webpSeen from directly above, the rings of the oganesson atom show how its electrons are spread over 7 shells. Protons are red, neutrons yellow and electrons blue.Oganesson Bohr model, electron shells seen from abovehttps://periodictable.page/terms/https://periodictable.page/images/oganesson-bohr-model-electron-shells-angled-cutaway.webpTilted to show depth, the half-cut oganesson atom has its 118 electrons on rings around a nucleus of 118 protons and neutrons. Protons are red, neutrons yellow and electrons blue.Oganesson Bohr model, angled cutawayhttps://periodictable.page/terms/ https://periodictable.page/about/2026-11-03 https://periodictable.page/contact/2026-11-03 https://periodictable.page/privacy-policy/2026-11-03 https://periodictable.page/terms/2026-11-03 https://periodictable.page/unnikrishnan-p/2026-11-03 https://periodictable.page/periodic-table-pdf/2026-11-03 https://periodictable.page/bohr-model/2026-11-03 https://periodictable.page/hydrogen-bohr-model/2026-11-03https://periodictable.page/images/hydrogen-bohr-model-diagram.svgThe hydrogen Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (1 in shell K).Hydrogen Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/hydrogen-bohr-model-shell-build.avifThe hydrogen Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 1 in shell K. Protons are red, neutrons yellow and electrons blue.Hydrogen Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/helium-bohr-model/2026-11-03https://periodictable.page/images/helium-bohr-model-diagram.svgThe helium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K).Helium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/helium-bohr-model-shell-build.avifThe helium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K. Protons are red, neutrons yellow and electrons blue.Helium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/lithium-bohr-model/2026-11-03https://periodictable.page/images/lithium-bohr-model-diagram.svgThe lithium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 1 in shell L).Lithium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/lithium-bohr-model-shell-build.avifThe lithium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 1 in shell L. Protons are red, neutrons yellow and electrons blue.Lithium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/beryllium-bohr-model/2026-11-03https://periodictable.page/images/beryllium-bohr-model-diagram.svgThe beryllium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 2 in shell L).Beryllium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/beryllium-bohr-model-shell-build.avifThe beryllium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 2 in shell L. Protons are red, neutrons yellow and electrons blue.Beryllium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/boron-bohr-model/2026-11-03https://periodictable.page/images/boron-bohr-model-diagram.svgThe boron Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 3 in shell L).Boron Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/boron-bohr-model-shell-build.avifThe boron Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 3 in shell L. Protons are red, neutrons yellow and electrons blue.Boron Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/carbon-bohr-model/2026-11-03https://periodictable.page/images/carbon-bohr-model-diagram.svgThe carbon Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 4 in shell L).Carbon Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/carbon-bohr-model-shell-build.avifThe carbon Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 4 in shell L. Protons are red, neutrons yellow and electrons blue.Carbon Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/nitrogen-bohr-model/2026-11-03https://periodictable.page/images/nitrogen-bohr-model-diagram.svgThe nitrogen Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 5 in shell L).Nitrogen Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/nitrogen-bohr-model-shell-build.avifThe nitrogen Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 5 in shell L. Protons are red, neutrons yellow and electrons blue.Nitrogen Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/oxygen-bohr-model/2026-11-03https://periodictable.page/images/oxygen-bohr-model-diagram.svgThe oxygen Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 6 in shell L).Oxygen Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/oxygen-bohr-model-shell-build.avifThe oxygen Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 6 in shell L. Protons are red, neutrons yellow and electrons blue.Oxygen Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/fluorine-bohr-model/2026-11-03https://periodictable.page/images/fluorine-bohr-model-diagram.svgThe fluorine Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 7 in shell L).Fluorine Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/fluorine-bohr-model-shell-build.avifThe fluorine Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 7 in shell L. Protons are red, neutrons yellow and electrons blue.Fluorine Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/neon-bohr-model/2026-11-03https://periodictable.page/images/neon-bohr-model-diagram.svgThe neon Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K and 8 in shell L).Neon Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/neon-bohr-model-shell-build.avifThe neon Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K and 8 in shell L. Protons are red, neutrons yellow and electrons blue.Neon Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/sodium-bohr-model/2026-11-03https://periodictable.page/images/sodium-bohr-model-diagram.svgThe sodium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 1 in shell M).Sodium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/sodium-bohr-model-shell-build.avifThe sodium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 1 in shell M. Protons are red, neutrons yellow and electrons blue.Sodium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/magnesium-bohr-model/2026-11-03https://periodictable.page/images/magnesium-bohr-model-diagram.svgThe magnesium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 2 in shell M).Magnesium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/magnesium-bohr-model-shell-build.avifThe magnesium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 2 in shell M. Protons are red, neutrons yellow and electrons blue.Magnesium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/aluminium-bohr-model/2026-11-03https://periodictable.page/images/aluminium-bohr-model-diagram.svgThe aluminium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 3 in shell M).Aluminium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/aluminium-bohr-model-shell-build.avifThe aluminium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 3 in shell M. Protons are red, neutrons yellow and electrons blue.Aluminium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/silicon-bohr-model/2026-11-03https://periodictable.page/images/silicon-bohr-model-diagram.svgThe silicon Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 4 in shell M).Silicon Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/silicon-bohr-model-shell-build.avifThe silicon Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 4 in shell M. Protons are red, neutrons yellow and electrons blue.Silicon Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/phosphorus-bohr-model/2026-11-03https://periodictable.page/images/phosphorus-bohr-model-diagram.svgThe phosphorus Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 5 in shell M).Phosphorus Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/phosphorus-bohr-model-shell-build.avifThe phosphorus Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 5 in shell M. Protons are red, neutrons yellow and electrons blue.Phosphorus Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/sulfur-bohr-model/2026-11-03https://periodictable.page/images/sulfur-bohr-model-diagram.svgThe sulfur Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 6 in shell M).Sulfur Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/sulfur-bohr-model-shell-build.avifThe sulfur Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 6 in shell M. Protons are red, neutrons yellow and electrons blue.Sulfur Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/chlorine-bohr-model/2026-11-03https://periodictable.page/images/chlorine-bohr-model-diagram.svgThe chlorine Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 7 in shell M).Chlorine Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/chlorine-bohr-model-shell-build.avifThe chlorine Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 7 in shell M. Protons are red, neutrons yellow and electrons blue.Chlorine Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/argon-bohr-model/2026-11-03https://periodictable.page/images/argon-bohr-model-diagram.svgThe argon Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L and 8 in shell M).Argon Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/argon-bohr-model-shell-build.avifThe argon Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L and 8 in shell M. Protons are red, neutrons yellow and electrons blue.Argon Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/potassium-bohr-model/2026-11-03https://periodictable.page/images/potassium-bohr-model-diagram.svgThe potassium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 8 in shell M and 1 in shell N).Potassium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/potassium-bohr-model-shell-build.avifThe potassium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 8 in shell M and 1 in shell N. Protons are red, neutrons yellow and electrons blue.Potassium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/calcium-bohr-model/2026-11-03https://periodictable.page/images/calcium-bohr-model-diagram.svgThe calcium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 8 in shell M and 2 in shell N).Calcium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/calcium-bohr-model-shell-build.avifThe calcium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 8 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Calcium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/scandium-bohr-model/2026-11-03https://periodictable.page/images/scandium-bohr-model-diagram.svgThe scandium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 9 in shell M and 2 in shell N).Scandium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/scandium-bohr-model-shell-build.avifThe scandium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 9 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Scandium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/titanium-bohr-model/2026-11-03https://periodictable.page/images/titanium-bohr-model-diagram.svgThe titanium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 10 in shell M and 2 in shell N).Titanium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/titanium-bohr-model-shell-build.avifThe titanium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 10 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Titanium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/vanadium-bohr-model/2026-11-03https://periodictable.page/images/vanadium-bohr-model-diagram.svgThe vanadium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 11 in shell M and 2 in shell N).Vanadium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/vanadium-bohr-model-shell-build.avifThe vanadium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 11 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Vanadium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/chromium-bohr-model/2026-11-03https://periodictable.page/images/chromium-bohr-model-diagram.svgThe chromium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 13 in shell M and 1 in shell N).Chromium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/chromium-bohr-model-shell-build.avifThe chromium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 13 in shell M and 1 in shell N. Protons are red, neutrons yellow and electrons blue.Chromium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/manganese-bohr-model/2026-11-03https://periodictable.page/images/manganese-bohr-model-diagram.svgThe manganese Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 13 in shell M and 2 in shell N).Manganese Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/manganese-bohr-model-shell-build.avifThe manganese Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 13 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Manganese Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/iron-bohr-model/2026-11-03https://periodictable.page/images/iron-bohr-model-diagram.svgThe iron Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 14 in shell M and 2 in shell N).Iron Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/iron-bohr-model-shell-build.avifThe iron Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 14 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Iron Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/cobalt-bohr-model/2026-11-03https://periodictable.page/images/cobalt-bohr-model-diagram.svgThe cobalt Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 15 in shell M and 2 in shell N).Cobalt Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/cobalt-bohr-model-shell-build.avifThe cobalt Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 15 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Cobalt Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/nickel-bohr-model/2026-11-03https://periodictable.page/images/nickel-bohr-model-diagram.svgThe nickel Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 16 in shell M and 2 in shell N).Nickel Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/nickel-bohr-model-shell-build.avifThe nickel Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 16 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Nickel Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/copper-bohr-model/2026-11-03https://periodictable.page/images/copper-bohr-model-diagram.svgThe copper Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 1 in shell N).Copper Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/copper-bohr-model-shell-build.avifThe copper Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 1 in shell N. Protons are red, neutrons yellow and electrons blue.Copper Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/zinc-bohr-model/2026-11-03https://periodictable.page/images/zinc-bohr-model-diagram.svgThe zinc Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 2 in shell N).Zinc Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/zinc-bohr-model-shell-build.avifThe zinc Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 2 in shell N. Protons are red, neutrons yellow and electrons blue.Zinc Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/gallium-bohr-model/2026-11-03https://periodictable.page/images/gallium-bohr-model-diagram.svgThe gallium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 3 in shell N).Gallium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/gallium-bohr-model-shell-build.avifThe gallium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 3 in shell N. Protons are red, neutrons yellow and electrons blue.Gallium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/germanium-bohr-model/2026-11-03https://periodictable.page/images/germanium-bohr-model-diagram.svgThe germanium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 4 in shell N).Germanium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/germanium-bohr-model-shell-build.avifThe germanium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 4 in shell N. Protons are red, neutrons yellow and electrons blue.Germanium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/arsenic-bohr-model/2026-11-03https://periodictable.page/images/arsenic-bohr-model-diagram.svgThe arsenic Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 5 in shell N).Arsenic Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/arsenic-bohr-model-shell-build.avifThe arsenic Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 5 in shell N. Protons are red, neutrons yellow and electrons blue.Arsenic Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/selenium-bohr-model/2026-11-03https://periodictable.page/images/selenium-bohr-model-diagram.svgThe selenium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 6 in shell N).Selenium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/selenium-bohr-model-shell-build.avifThe selenium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 6 in shell N. Protons are red, neutrons yellow and electrons blue.Selenium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/bromine-bohr-model/2026-11-03https://periodictable.page/images/bromine-bohr-model-diagram.svgThe bromine Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 7 in shell N).Bromine Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/bromine-bohr-model-shell-build.avifThe bromine Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 7 in shell N. Protons are red, neutrons yellow and electrons blue.Bromine Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/krypton-bohr-model/2026-11-03https://periodictable.page/images/krypton-bohr-model-diagram.svgThe krypton Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 8 in shell N).Krypton Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/krypton-bohr-model-shell-build.avifThe krypton Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 8 in shell N. Protons are red, neutrons yellow and electrons blue.Krypton Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/rubidium-bohr-model/2026-11-03https://periodictable.page/images/rubidium-bohr-model-diagram.svgThe rubidium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 8 in shell N and 1 in shell O).Rubidium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/rubidium-bohr-model-shell-build.avifThe rubidium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 8 in shell N and 1 in shell O. Protons are red, neutrons yellow and electrons blue.Rubidium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/strontium-bohr-model/2026-11-03https://periodictable.page/images/strontium-bohr-model-diagram.svgThe strontium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 8 in shell N and 2 in shell O).Strontium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/strontium-bohr-model-shell-build.avifThe strontium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 8 in shell N and 2 in shell O. Protons are red, neutrons yellow and electrons blue.Strontium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/yttrium-bohr-model/2026-11-03https://periodictable.page/images/yttrium-bohr-model-diagram.svgThe yttrium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 9 in shell N and 2 in shell O).Yttrium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/yttrium-bohr-model-shell-build.avifThe yttrium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 9 in shell N and 2 in shell O. Protons are red, neutrons yellow and electrons blue.Yttrium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/zirconium-bohr-model/2026-11-03https://periodictable.page/images/zirconium-bohr-model-diagram.svgThe zirconium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 10 in shell N and 2 in shell O).Zirconium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/zirconium-bohr-model-shell-build.avifThe zirconium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 10 in shell N and 2 in shell O. Protons are red, neutrons yellow and electrons blue.Zirconium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/niobium-bohr-model/2026-11-03https://periodictable.page/images/niobium-bohr-model-diagram.svgThe niobium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 12 in shell N and 1 in shell O).Niobium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/niobium-bohr-model-shell-build.avifThe niobium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 12 in shell N and 1 in shell O. Protons are red, neutrons yellow and electrons blue.Niobium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/molybdenum-bohr-model/2026-11-03https://periodictable.page/images/molybdenum-bohr-model-diagram.svgThe molybdenum Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 13 in shell N and 1 in shell O).Molybdenum Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/molybdenum-bohr-model-shell-build.avifThe molybdenum Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 13 in shell N and 1 in shell O. Protons are red, neutrons yellow and electrons blue.Molybdenum Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/technetium-bohr-model/2026-11-03https://periodictable.page/images/technetium-bohr-model-diagram.svgThe technetium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 13 in shell N and 2 in shell O).Technetium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/technetium-bohr-model-shell-build.avifThe technetium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 13 in shell N and 2 in shell O. Protons are red, neutrons yellow and electrons blue.Technetium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/ruthenium-bohr-model/2026-11-03https://periodictable.page/images/ruthenium-bohr-model-diagram.svgThe ruthenium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 15 in shell N and 1 in shell O).Ruthenium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/ruthenium-bohr-model-shell-build.avifThe ruthenium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 15 in shell N and 1 in shell O. Protons are red, neutrons yellow and electrons blue.Ruthenium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/rhodium-bohr-model/2026-11-03https://periodictable.page/images/rhodium-bohr-model-diagram.svgThe rhodium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 16 in shell N and 1 in shell O).Rhodium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/rhodium-bohr-model-shell-build.avifThe rhodium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 16 in shell N and 1 in shell O. Protons are red, neutrons yellow and electrons blue.Rhodium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/palladium-bohr-model/2026-11-03https://periodictable.page/images/palladium-bohr-model-diagram.svgThe palladium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M and 18 in shell N).Palladium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/palladium-bohr-model-shell-build.avifThe palladium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M and 18 in shell N. Protons are red, neutrons yellow and electrons blue.Palladium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/silver-bohr-model/2026-11-03https://periodictable.page/images/silver-bohr-model-diagram.svgThe silver Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 1 in shell O).Silver Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/silver-bohr-model-shell-build.avifThe silver Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 1 in shell O. Protons are red, neutrons yellow and electrons blue.Silver Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/cadmium-bohr-model/2026-11-03https://periodictable.page/images/cadmium-bohr-model-diagram.svgThe cadmium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 2 in shell O).Cadmium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/cadmium-bohr-model-shell-build.avifThe cadmium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 2 in shell O. Protons are red, neutrons yellow and electrons blue.Cadmium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/indium-bohr-model/2026-11-03https://periodictable.page/images/indium-bohr-model-diagram.svgThe indium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 3 in shell O).Indium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/indium-bohr-model-shell-build.avifThe indium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 3 in shell O. Protons are red, neutrons yellow and electrons blue.Indium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/tin-bohr-model/2026-11-03https://periodictable.page/images/tin-bohr-model-diagram.svgThe tin Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 4 in shell O).Tin Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/tin-bohr-model-shell-build.avifThe tin Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 4 in shell O. Protons are red, neutrons yellow and electrons blue.Tin Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/antimony-bohr-model/2026-11-03https://periodictable.page/images/antimony-bohr-model-diagram.svgThe antimony Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 5 in shell O).Antimony Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/antimony-bohr-model-shell-build.avifThe antimony Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 5 in shell O. Protons are red, neutrons yellow and electrons blue.Antimony Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/tellurium-bohr-model/2026-11-03https://periodictable.page/images/tellurium-bohr-model-diagram.svgThe tellurium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 6 in shell O).Tellurium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/tellurium-bohr-model-shell-build.avifThe tellurium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 6 in shell O. Protons are red, neutrons yellow and electrons blue.Tellurium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/iodine-bohr-model/2026-11-03https://periodictable.page/images/iodine-bohr-model-diagram.svgThe iodine Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 7 in shell O).Iodine Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/iodine-bohr-model-shell-build.avifThe iodine Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 7 in shell O. Protons are red, neutrons yellow and electrons blue.Iodine Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/xenon-bohr-model/2026-11-03https://periodictable.page/images/xenon-bohr-model-diagram.svgThe xenon Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 8 in shell O).Xenon Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/xenon-bohr-model-shell-build.avifThe xenon Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N and 8 in shell O. Protons are red, neutrons yellow and electrons blue.Xenon Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/cesium-bohr-model/2026-11-03https://periodictable.page/images/cesium-bohr-model-diagram.svgThe cesium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N, 8 in shell O and 1 in shell P).Cesium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/cesium-bohr-model-shell-build.avifThe cesium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N, 8 in shell O and 1 in shell P. Protons are red, neutrons yellow and electrons blue.Cesium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/barium-bohr-model/2026-11-03https://periodictable.page/images/barium-bohr-model-diagram.svgThe barium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N, 8 in shell O and 2 in shell P).Barium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/barium-bohr-model-shell-build.avifThe barium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Barium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/lanthanum-bohr-model/2026-11-03https://periodictable.page/images/lanthanum-bohr-model-diagram.svgThe lanthanum Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N, 9 in shell O and 2 in shell P).Lanthanum Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/lanthanum-bohr-model-shell-build.avifThe lanthanum Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 18 in shell N, 9 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Lanthanum Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/cerium-bohr-model/2026-11-03https://periodictable.page/images/cerium-bohr-model-diagram.svgThe cerium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 19 in shell N, 9 in shell O and 2 in shell P).Cerium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/cerium-bohr-model-shell-build.avifThe cerium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 19 in shell N, 9 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Cerium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/praseodymium-bohr-model/2026-11-03https://periodictable.page/images/praseodymium-bohr-model-diagram.svgThe praseodymium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 21 in shell N, 8 in shell O and 2 in shell P).Praseodymium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/praseodymium-bohr-model-shell-build.avifThe praseodymium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 21 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Praseodymium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/neodymium-bohr-model/2026-11-03https://periodictable.page/images/neodymium-bohr-model-diagram.svgThe neodymium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 22 in shell N, 8 in shell O and 2 in shell P).Neodymium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/neodymium-bohr-model-shell-build.avifThe neodymium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 22 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Neodymium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/promethium-bohr-model/2026-11-03https://periodictable.page/images/promethium-bohr-model-diagram.svgThe promethium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 23 in shell N, 8 in shell O and 2 in shell P).Promethium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/promethium-bohr-model-shell-build.avifThe promethium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 23 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Promethium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/samarium-bohr-model/2026-11-03https://periodictable.page/images/samarium-bohr-model-diagram.svgThe samarium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 24 in shell N, 8 in shell O and 2 in shell P).Samarium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/samarium-bohr-model-shell-build.avifThe samarium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 24 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Samarium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/europium-bohr-model/2026-11-03https://periodictable.page/images/europium-bohr-model-diagram.svgThe europium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 25 in shell N, 8 in shell O and 2 in shell P).Europium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/europium-bohr-model-shell-build.avifThe europium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 25 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Europium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/gadolinium-bohr-model/2026-11-03https://periodictable.page/images/gadolinium-bohr-model-diagram.svgThe gadolinium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 25 in shell N, 9 in shell O and 2 in shell P).Gadolinium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/gadolinium-bohr-model-shell-build.avifThe gadolinium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 25 in shell N, 9 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Gadolinium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/terbium-bohr-model/2026-11-03https://periodictable.page/images/terbium-bohr-model-diagram.svgThe terbium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 27 in shell N, 8 in shell O and 2 in shell P).Terbium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/terbium-bohr-model-shell-build.avifThe terbium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 27 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Terbium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/dysprosium-bohr-model/2026-11-03https://periodictable.page/images/dysprosium-bohr-model-diagram.svgThe dysprosium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 28 in shell N, 8 in shell O and 2 in shell P).Dysprosium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/dysprosium-bohr-model-shell-build.avifThe dysprosium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 28 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Dysprosium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/holmium-bohr-model/2026-11-03https://periodictable.page/images/holmium-bohr-model-diagram.svgThe holmium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 29 in shell N, 8 in shell O and 2 in shell P).Holmium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/holmium-bohr-model-shell-build.avifThe holmium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 29 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Holmium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/erbium-bohr-model/2026-11-03https://periodictable.page/images/erbium-bohr-model-diagram.svgThe erbium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 30 in shell N, 8 in shell O and 2 in shell P).Erbium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/erbium-bohr-model-shell-build.avifThe erbium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 30 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Erbium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/thulium-bohr-model/2026-11-03https://periodictable.page/images/thulium-bohr-model-diagram.svgThe thulium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 31 in shell N, 8 in shell O and 2 in shell P).Thulium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/thulium-bohr-model-shell-build.avifThe thulium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 31 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Thulium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/ytterbium-bohr-model/2026-11-03https://periodictable.page/images/ytterbium-bohr-model-diagram.svgThe ytterbium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 8 in shell O and 2 in shell P).Ytterbium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/ytterbium-bohr-model-shell-build.avifThe ytterbium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 8 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Ytterbium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/lutetium-bohr-model/2026-11-03https://periodictable.page/images/lutetium-bohr-model-diagram.svgThe lutetium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 9 in shell O and 2 in shell P).Lutetium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/lutetium-bohr-model-shell-build.avifThe lutetium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 9 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Lutetium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/hafnium-bohr-model/2026-11-03https://periodictable.page/images/hafnium-bohr-model-diagram.svgThe hafnium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 10 in shell O and 2 in shell P).Hafnium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/hafnium-bohr-model-shell-build.avifThe hafnium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 10 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Hafnium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/tantalum-bohr-model/2026-11-03https://periodictable.page/images/tantalum-bohr-model-diagram.svgThe tantalum Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 11 in shell O and 2 in shell P).Tantalum Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/tantalum-bohr-model-shell-build.avifThe tantalum Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 11 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Tantalum Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/tungsten-bohr-model/2026-11-03https://periodictable.page/images/tungsten-bohr-model-diagram.svgThe tungsten Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 12 in shell O and 2 in shell P).Tungsten Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/tungsten-bohr-model-shell-build.avifThe tungsten Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 12 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Tungsten Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/rhenium-bohr-model/2026-11-03https://periodictable.page/images/rhenium-bohr-model-diagram.svgThe rhenium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 13 in shell O and 2 in shell P).Rhenium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/rhenium-bohr-model-shell-build.avifThe rhenium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 13 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Rhenium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/osmium-bohr-model/2026-11-03https://periodictable.page/images/osmium-bohr-model-diagram.svgThe osmium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 14 in shell O and 2 in shell P).Osmium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/osmium-bohr-model-shell-build.avifThe osmium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 14 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Osmium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/iridium-bohr-model/2026-11-03https://periodictable.page/images/iridium-bohr-model-diagram.svgThe iridium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 15 in shell O and 2 in shell P).Iridium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/iridium-bohr-model-shell-build.avifThe iridium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 15 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Iridium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/platinum-bohr-model/2026-11-03https://periodictable.page/images/platinum-bohr-model-diagram.svgThe platinum Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 17 in shell O and 1 in shell P).Platinum Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/platinum-bohr-model-shell-build.avifThe platinum Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 17 in shell O and 1 in shell P. Protons are red, neutrons yellow and electrons blue.Platinum Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/gold-bohr-model/2026-11-03https://periodictable.page/images/gold-bohr-model-diagram.svgThe gold Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 1 in shell P).Gold Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/gold-bohr-model-shell-build.avifThe gold Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 1 in shell P. Protons are red, neutrons yellow and electrons blue.Gold Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/mercury-bohr-model/2026-11-03https://periodictable.page/images/mercury-bohr-model-diagram.svgThe mercury Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 2 in shell P).Mercury Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/mercury-bohr-model-shell-build.avifThe mercury Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 2 in shell P. Protons are red, neutrons yellow and electrons blue.Mercury Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/thallium-bohr-model/2026-11-03https://periodictable.page/images/thallium-bohr-model-diagram.svgThe thallium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 3 in shell P).Thallium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/thallium-bohr-model-shell-build.avifThe thallium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 3 in shell P. Protons are red, neutrons yellow and electrons blue.Thallium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/lead-bohr-model/2026-11-03https://periodictable.page/images/lead-bohr-model-diagram.svgThe lead Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 4 in shell P).Lead Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/lead-bohr-model-shell-build.avifThe lead Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 4 in shell P. Protons are red, neutrons yellow and electrons blue.Lead Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/bismuth-bohr-model/2026-11-03https://periodictable.page/images/bismuth-bohr-model-diagram.svgThe bismuth Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 5 in shell P).Bismuth Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/bismuth-bohr-model-shell-build.avifThe bismuth Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 5 in shell P. Protons are red, neutrons yellow and electrons blue.Bismuth Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/polonium-bohr-model/2026-11-03https://periodictable.page/images/polonium-bohr-model-diagram.svgThe polonium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 6 in shell P).Polonium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/polonium-bohr-model-shell-build.avifThe polonium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 6 in shell P. Protons are red, neutrons yellow and electrons blue.Polonium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/astatine-bohr-model/2026-11-03https://periodictable.page/images/astatine-bohr-model-diagram.svgThe astatine Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 7 in shell P).Astatine Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/astatine-bohr-model-shell-build.avifThe astatine Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 7 in shell P. Protons are red, neutrons yellow and electrons blue.Astatine Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/radon-bohr-model/2026-11-03https://periodictable.page/images/radon-bohr-model-diagram.svgThe radon Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 8 in shell P).Radon Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/radon-bohr-model-shell-build.avifThe radon Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O and 8 in shell P. Protons are red, neutrons yellow and electrons blue.Radon Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/francium-bohr-model/2026-11-03https://periodictable.page/images/francium-bohr-model-diagram.svgThe francium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 8 in shell P and 1 in shell Q).Francium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/francium-bohr-model-shell-build.avifThe francium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 8 in shell P and 1 in shell Q. Protons are red, neutrons yellow and electrons blue.Francium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/radium-bohr-model/2026-11-03https://periodictable.page/images/radium-bohr-model-diagram.svgThe radium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 8 in shell P and 2 in shell Q).Radium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/radium-bohr-model-shell-build.avifThe radium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Radium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/actinium-bohr-model/2026-11-03https://periodictable.page/images/actinium-bohr-model-diagram.svgThe actinium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 9 in shell P and 2 in shell Q).Actinium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/actinium-bohr-model-shell-build.avifThe actinium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 9 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Actinium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/thorium-bohr-model/2026-11-03https://periodictable.page/images/thorium-bohr-model-diagram.svgThe thorium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 10 in shell P and 2 in shell Q).Thorium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/thorium-bohr-model-shell-build.avifThe thorium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 18 in shell O, 10 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Thorium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/protactinium-bohr-model/2026-11-03https://periodictable.page/images/protactinium-bohr-model-diagram.svgThe protactinium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 20 in shell O, 9 in shell P and 2 in shell Q).Protactinium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/protactinium-bohr-model-shell-build.avifThe protactinium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 20 in shell O, 9 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Protactinium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/uranium-bohr-model/2026-11-03https://periodictable.page/images/uranium-bohr-model-diagram.svgThe uranium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 21 in shell O, 9 in shell P and 2 in shell Q).Uranium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/uranium-bohr-model-shell-build.avifThe uranium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 21 in shell O, 9 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Uranium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/neptunium-bohr-model/2026-11-03https://periodictable.page/images/neptunium-bohr-model-diagram.svgThe neptunium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 22 in shell O, 9 in shell P and 2 in shell Q).Neptunium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/neptunium-bohr-model-shell-build.avifThe neptunium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 22 in shell O, 9 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Neptunium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/plutonium-bohr-model/2026-11-03https://periodictable.page/images/plutonium-bohr-model-diagram.svgThe plutonium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 24 in shell O, 8 in shell P and 2 in shell Q).Plutonium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/plutonium-bohr-model-shell-build.avifThe plutonium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 24 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Plutonium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/americium-bohr-model/2026-11-03https://periodictable.page/images/americium-bohr-model-diagram.svgThe americium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 25 in shell O, 8 in shell P and 2 in shell Q).Americium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/americium-bohr-model-shell-build.avifThe americium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 25 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Americium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/curium-bohr-model/2026-11-03https://periodictable.page/images/curium-bohr-model-diagram.svgThe curium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 25 in shell O, 9 in shell P and 2 in shell Q).Curium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/curium-bohr-model-shell-build.avifThe curium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 25 in shell O, 9 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Curium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/berkelium-bohr-model/2026-11-03https://periodictable.page/images/berkelium-bohr-model-diagram.svgThe berkelium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 27 in shell O, 8 in shell P and 2 in shell Q).Berkelium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/berkelium-bohr-model-shell-build.avifThe berkelium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 27 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Berkelium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/californium-bohr-model/2026-11-03https://periodictable.page/images/californium-bohr-model-diagram.svgThe californium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 28 in shell O, 8 in shell P and 2 in shell Q).Californium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/californium-bohr-model-shell-build.avifThe californium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 28 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Californium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/einsteinium-bohr-model/2026-11-03https://periodictable.page/images/einsteinium-bohr-model-diagram.svgThe einsteinium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 29 in shell O, 8 in shell P and 2 in shell Q).Einsteinium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/einsteinium-bohr-model-shell-build.avifThe einsteinium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 29 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Einsteinium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/fermium-bohr-model/2026-11-03https://periodictable.page/images/fermium-bohr-model-diagram.svgThe fermium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 30 in shell O, 8 in shell P and 2 in shell Q).Fermium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/fermium-bohr-model-shell-build.avifThe fermium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 30 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Fermium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/mendelevium-bohr-model/2026-11-03https://periodictable.page/images/mendelevium-bohr-model-diagram.svgThe mendelevium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 31 in shell O, 8 in shell P and 2 in shell Q).Mendelevium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/mendelevium-bohr-model-shell-build.avifThe mendelevium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 31 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Mendelevium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/nobelium-bohr-model/2026-11-03https://periodictable.page/images/nobelium-bohr-model-diagram.svgThe nobelium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 8 in shell P and 2 in shell Q).Nobelium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/nobelium-bohr-model-shell-build.avifThe nobelium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 8 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Nobelium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/lawrencium-bohr-model/2026-11-03https://periodictable.page/images/lawrencium-bohr-model-diagram.svgThe lawrencium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 8 in shell P and 3 in shell Q).Lawrencium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/lawrencium-bohr-model-shell-build.avifThe lawrencium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 8 in shell P and 3 in shell Q. Protons are red, neutrons yellow and electrons blue.Lawrencium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/rutherfordium-bohr-model/2026-11-03https://periodictable.page/images/rutherfordium-bohr-model-diagram.svgThe rutherfordium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 10 in shell P and 2 in shell Q).Rutherfordium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/rutherfordium-bohr-model-shell-build.avifThe rutherfordium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 10 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Rutherfordium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/dubnium-bohr-model/2026-11-03https://periodictable.page/images/dubnium-bohr-model-diagram.svgThe dubnium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 11 in shell P and 2 in shell Q).Dubnium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/dubnium-bohr-model-shell-build.avifThe dubnium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 11 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Dubnium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/seaborgium-bohr-model/2026-11-03https://periodictable.page/images/seaborgium-bohr-model-diagram.svgThe seaborgium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 12 in shell P and 2 in shell Q).Seaborgium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/seaborgium-bohr-model-shell-build.avifThe seaborgium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 12 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Seaborgium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/bohrium-bohr-model/2026-11-03https://periodictable.page/images/bohrium-bohr-model-diagram.svgThe bohrium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 13 in shell P and 2 in shell Q).Bohrium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/bohrium-bohr-model-shell-build.avifThe bohrium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 13 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Bohrium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/hassium-bohr-model/2026-11-03https://periodictable.page/images/hassium-bohr-model-diagram.svgThe hassium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 14 in shell P and 2 in shell Q).Hassium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/hassium-bohr-model-shell-build.avifThe hassium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 14 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Hassium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/meitnerium-bohr-model/2026-11-03https://periodictable.page/images/meitnerium-bohr-model-diagram.svgThe meitnerium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 15 in shell P and 2 in shell Q).Meitnerium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/meitnerium-bohr-model-shell-build.avifThe meitnerium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 15 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Meitnerium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/darmstadtium-bohr-model/2026-11-03https://periodictable.page/images/darmstadtium-bohr-model-diagram.svgThe darmstadtium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 16 in shell P and 2 in shell Q).Darmstadtium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/darmstadtium-bohr-model-shell-build.avifThe darmstadtium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 16 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Darmstadtium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/roentgenium-bohr-model/2026-11-03https://periodictable.page/images/roentgenium-bohr-model-diagram.svgThe roentgenium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 17 in shell P and 2 in shell Q).Roentgenium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/roentgenium-bohr-model-shell-build.avifThe roentgenium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 17 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Roentgenium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/copernicium-bohr-model/2026-11-03https://periodictable.page/images/copernicium-bohr-model-diagram.svgThe copernicium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 2 in shell Q).Copernicium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/copernicium-bohr-model-shell-build.avifThe copernicium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 2 in shell Q. Protons are red, neutrons yellow and electrons blue.Copernicium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/nihonium-bohr-model/2026-11-03https://periodictable.page/images/nihonium-bohr-model-diagram.svgThe nihonium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 3 in shell Q).Nihonium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/nihonium-bohr-model-shell-build.avifThe nihonium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 3 in shell Q. Protons are red, neutrons yellow and electrons blue.Nihonium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/flerovium-bohr-model/2026-11-03https://periodictable.page/images/flerovium-bohr-model-diagram.svgThe flerovium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 4 in shell Q).Flerovium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/flerovium-bohr-model-shell-build.avifThe flerovium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 4 in shell Q. Protons are red, neutrons yellow and electrons blue.Flerovium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/moscovium-bohr-model/2026-11-03https://periodictable.page/images/moscovium-bohr-model-diagram.svgThe moscovium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 5 in shell Q).Moscovium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/moscovium-bohr-model-shell-build.avifThe moscovium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 5 in shell Q. Protons are red, neutrons yellow and electrons blue.Moscovium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/livermorium-bohr-model/2026-11-03https://periodictable.page/images/livermorium-bohr-model-diagram.svgThe livermorium Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 6 in shell Q).Livermorium Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/livermorium-bohr-model-shell-build.avifThe livermorium Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 6 in shell Q. Protons are red, neutrons yellow and electrons blue.Livermorium Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/tennessine-bohr-model/2026-11-03https://periodictable.page/images/tennessine-bohr-model-diagram.svgThe tennessine Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 7 in shell Q).Tennessine Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/tennessine-bohr-model-shell-build.avifThe tennessine Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 7 in shell Q. Protons are red, neutrons yellow and electrons blue.Tennessine Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/oganesson-bohr-model/2026-11-03https://periodictable.page/images/oganesson-bohr-model-diagram.svgThe oganesson Bohr model drawn flat: each ring is a shell, labelled with its letter, and every dot is an electron (2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 8 in shell Q).Oganesson Bohr model diagramhttps://periodictable.page/terms/https://periodictable.page/images/oganesson-bohr-model-shell-build.avifThe oganesson Bohr model built up in six seconds: the nucleus first, then each shell with its electrons, ending with 2 in shell K, 8 in shell L, 18 in shell M, 32 in shell N, 32 in shell O, 18 in shell P and 8 in shell Q. Protons are red, neutrons yellow and electrons blue.Oganesson Bohr model, built shell by shellhttps://periodictable.page/terms/ https://periodictable.page/periodic-table-faq/2026-11-03 https://periodictable.page/periodic-table-faq/how-many-elements-are-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-are-elements/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-the-purpose-of-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-are-the-5-elements/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-the-first-element-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-a-period-in-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-a-group-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-many-groups-are-in-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-many-periods-are-in-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-is-the-periodic-table-organized/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-a-family-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-to-read-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-do-the-numbers-mean-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-the-atomic-number-of-an-element/2026-11-03 https://periodictable.page/periodic-table-faq/how-to-find-valence-electrons-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-to-find-neutrons-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/where-is-atomic-mass-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-an-atomic-symbol/2026-11-03 https://periodictable.page/periodic-table-faq/where-are-metals-located-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/where-are-metalloids-located-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/where-are-nonmetals-located-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-many-metals-are-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-the-most-unreactive-group-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-the-most-dangerous-element-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/who-invented-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/why-is-it-called-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-the-chemistry-chart-called/2026-11-03 https://periodictable.page/periodic-table-faq/what-is-67-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/how-to-memorize-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-faq/is-water-on-the-periodic-table/2026-11-03 https://periodictable.page/periodic-table-pdf/periodic-table-basic-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-basic-color.webpEach tile shows the atomic number and the element symbol. Tiles are shaded by element family, with a color key.Periodic Table PDF with atomic number and symbol (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-basic-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-basic-black-and-white.webpEach tile shows the atomic number and the element symbol. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with atomic number and symbol (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-names-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-names-color.webpEach tile shows the atomic number, symbol and full name of the element. Tiles are shaded by element family, with a color key.Periodic Table PDF with element names (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-names-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-names-black-and-white.webpEach tile shows the atomic number, symbol and full name of the element. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with element names (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-atomic-mass-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-atomic-mass-color.webpEach tile shows the atomic number, symbol, name and atomic mass in u. Tiles are shaded by element family, with a color key.Periodic Table PDF with atomic mass (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-atomic-mass-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-atomic-mass-black-and-white.webpEach tile shows the atomic number, symbol, name and atomic mass in u. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with atomic mass (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electron-configuration-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electron-configuration-color.webpEach tile shows the atomic number, symbol and the electron configuration in noble-gas shorthand. Tiles are shaded by element family, with a color key.Periodic Table PDF with electron configuration (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electron-configuration-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electron-configuration-black-and-white.webpEach tile shows the atomic number, symbol and the electron configuration in noble-gas shorthand. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with electron configuration (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electronegativity-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electronegativity-color.webpEach tile shows the atomic number, symbol, name and Pauling electronegativity. Tiles are shaded by element family, with a color key.Periodic Table PDF with electronegativity (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electronegativity-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electronegativity-black-and-white.webpEach tile shows the atomic number, symbol, name and Pauling electronegativity. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with electronegativity (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-charges-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-charges-color.webpEach tile shows the atomic number, symbol, name and the common oxidation states, which give the ion charges. Tiles are shaded by element family, with a color key.Periodic Table PDF with oxidation states and charges (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-charges-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-charges-black-and-white.webpEach tile shows the atomic number, symbol, name and the common oxidation states, which give the ion charges. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with oxidation states and charges (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-complete-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-complete-color.webpEach tile shows the atomic number, symbol, name, atomic mass and electron configuration. Tiles are shaded by element family, with a color key.Periodic Table PDF with names, atomic mass and electron configuration (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-complete-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-complete-black-and-white.webpEach tile shows the atomic number, symbol, name, atomic mass and electron configuration. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with names, atomic mass and electron configuration (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-groups-and-periods.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-groups-and-periods.webpGroups 1 to 18 along the top and periods 1 to 7 down the side, with family colors. A good first chart for learning how to read the table.Periodic Table PDF with Groups and Periods Numberedhttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-blank.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-blank.webpAn empty periodic table with the group and period numbers only, for filling in symbols, names and numbers from memory.Blank Periodic Table PDF (empty tiles)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-blank-with-atomic-numbers.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-blank-with-atomic-numbers.webpEvery tile shows its atomic number and nothing else. Write in the symbol and name; the printable answer key is the table with symbols.Blank Periodic Table PDF with Atomic Numbershttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-blank-with-symbols.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-blank-with-symbols.webpEvery tile shows its symbol and nothing else. Write in the atomic number, name and atomic mass.Blank Periodic Table PDF with Symbolshttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/long-form-periodic-table-basic-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/long-form-periodic-table-basic-color.webpThe 32-column long form with the lanthanides and actinides in line with the rest of periods 6 and 7, so no element sits in a detached row.Long Form Periodic Table PDF with symbols (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/long-form-periodic-table-basic-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/long-form-periodic-table-basic-black-and-white.webpThe 32-column long form with the lanthanides and actinides in line with the rest of periods 6 and 7, so no element sits in a detached row.Long Form Periodic Table PDF with symbols (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/long-form-periodic-table-atomic-mass-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/long-form-periodic-table-atomic-mass-color.webpThe 32-column long form with the lanthanides and actinides in line with the rest of periods 6 and 7, so no element sits in a detached row.Long Form Periodic Table PDF with symbols and atomic mass (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/long-form-periodic-table-atomic-mass-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/long-form-periodic-table-atomic-mass-black-and-white.webpThe 32-column long form with the lanthanides and actinides in line with the rest of periods 6 and 7, so no element sits in a detached row.Long Form Periodic Table PDF with symbols and atomic mass (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-whole-number-mass-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-whole-number-mass-color.webpAtomic masses rounded to whole numbers, as in exam data sheets, with chlorine 35.5 and copper 63.5 kept as halves. Tiles are shaded by element family, with a color key.Periodic Table PDF with Whole-Number Atomic Mass (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-whole-number-mass-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-whole-number-mass-black-and-white.webpAtomic masses rounded to whole numbers, as in exam data sheets, with chlorine 35.5 and copper 63.5 kept as halves. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with Whole-Number Atomic Mass (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/exam-style-periodic-table-whole-number-mass.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/exam-style-periodic-table-whole-number-mass.webpA data-sheet layout for GCSE, O-level and A-level revision: a key to the tile, 57–71 and 89–103 placeholders, and the lanthanoids and actinoids set apart below. Atomic masses rounded to whole numbers, as in exam data sheets, with chlorine 35.5 and copper 63.5 kept as halves.Exam-Style Periodic Table PDF with Whole-Number Atomic Mass (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-one-decimal-mass-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-one-decimal-mass-color.webpAtomic masses rounded to one decimal place, as in A-level data sheets. Radioactive elements show the mass number of the longest-lived isotope in brackets. Tiles are shaded by element family, with a color key.Periodic Table PDF with Atomic Mass to 1 Decimal Place (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-one-decimal-mass-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-one-decimal-mass-black-and-white.webpAtomic masses rounded to one decimal place, as in A-level data sheets. Radioactive elements show the mass number of the longest-lived isotope in brackets. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with Atomic Mass to 1 Decimal Place (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/exam-style-periodic-table-one-decimal-mass.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/exam-style-periodic-table-one-decimal-mass.webpA data-sheet layout for GCSE, O-level and A-level revision: a key to the tile, 57–71 and 89–103 placeholders, and the lanthanoids and actinoids set apart below. Atomic masses rounded to one decimal place, as in A-level data sheets. Radioactive elements show the mass number of the longest-lived isotope in brackets.Exam-Style Periodic Table PDF with Atomic Mass to 1 Decimal Place (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-with-key-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-with-key-color.webpA beginner chart with a key that labels the atomic number, symbol, name and atomic mass on a sample tile. Tiles are shaded by element family, with a color key.Periodic Table PDF with Key to Reading a Tile (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-group-labels-ia-viiia-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-group-labels-ia-viiia-color.webpGroups numbered 1 to 18 with the older American labels IA to VIIIA beside them, as used in many US textbooks. Tiles are shaded by element family, with a color key.Periodic Table PDF with Group Labels IA to VIIIA (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electrons-per-shell-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electrons-per-shell-color.webpEach tile shows the atomic number, symbol, name and how many electrons sit in each shell, for example 2-8-1 for sodium. Tiles are shaded by element family, with a color key.Periodic Table PDF with Electrons per Shell (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-with-key-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-with-key-black-and-white.webpA beginner chart with a key that labels the atomic number, symbol, name and atomic mass on a sample tile. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with Key to Reading a Tile (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-group-labels-ia-viiia-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-group-labels-ia-viiia-black-and-white.webpGroups numbered 1 to 18 with the older American labels IA to VIIIA beside them, as used in many US textbooks. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with Group Labels IA to VIIIA (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electrons-per-shell-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electrons-per-shell-black-and-white.webpEach tile shows the atomic number, symbol, name and how many electrons sit in each shell, for example 2-8-1 for sodium. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with Electrons per Shell (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-state-of-matter-symbols.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-state-of-matter-symbols.webpTiles shaded by element family, with the symbol colored by state at room temperature: solid, liquid, gas or unknown.Periodic Table PDF with State of Matter Symbolshttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/portrait-periodic-table-basic-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/portrait-periodic-table-basic-color.webpThe 18-column table on an upright A4 page, for binders, notebooks and double-sided handouts. Tiles are shaded by element family, with a color key.Portrait Periodic Table PDF with symbols (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/portrait-periodic-table-basic-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/portrait-periodic-table-basic-black-and-white.webpThe 18-column table on an upright A4 page, for binders, notebooks and double-sided handouts. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Portrait Periodic Table PDF with symbols (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/portrait-periodic-table-atomic-mass-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/portrait-periodic-table-atomic-mass-color.webpThe 18-column table on an upright A4 page, for binders, notebooks and double-sided handouts. Tiles are shaded by element family, with a color key.Portrait Periodic Table PDF with symbols and atomic mass (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/portrait-periodic-table-atomic-mass-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/portrait-periodic-table-atomic-mass-black-and-white.webpThe 18-column table on an upright A4 page, for binders, notebooks and double-sided handouts. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Portrait Periodic Table PDF with symbols and atomic mass (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-poster-a3-names-and-atomic-mass.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-poster-a3-names-and-atomic-mass.webpA3 landscape poster for classroom walls. The file is vector, so it also scales cleanly to A2 and larger at a print shop. Tiles are shaded by element family, with a color key.Periodic Table Poster PDF with names and atomic mass (A3, color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-poster-a3-complete.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-poster-a3-complete.webpA3 landscape poster for classroom walls. The file is vector, so it also scales cleanly to A2 and larger at a print shop. Tiles are shaded by element family, with a color key.Periodic Table Poster PDF with names, atomic mass and electron configuration (A3, color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-solids-liquids-gases.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-solids-liquids-gases.webpEvery element shaded by its state at room temperature: solid, liquid (bromine and mercury) or gas.Periodic Table PDF: Solids, Liquids and Gaseshttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-metals-nonmetals-metalloids.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-metals-nonmetals-metalloids.webpMetals, metalloids and nonmetals in three colors, with the staircase line that separates them easy to see.Periodic Table PDF: Metals, Nonmetals and Metalloidshttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-s-p-d-f-blocks.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-s-p-d-f-blocks.webpThe four blocks shaded in four colors, to show how electron subshells shape the layout of the table.Periodic Table PDF: s, p, d and f Blockshttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-discovery-timeline.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-discovery-timeline.webpElements shaded by when they were discovered, from the ancient metals to the newest superheavy elements.Periodic Table PDF by Year of Discoveryhttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-density-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-density-heat-map.webpDensity in g/cm³ on a logarithmic color scale, so light gases and heavy metals are both readable.Periodic Table PDF: Density Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-melting-point-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-melting-point-heat-map.webpMelting point in kelvin, darker for higher values.Periodic Table PDF: Melting Point Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-boiling-point-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-boiling-point-heat-map.webpBoiling point in kelvin, darker for higher values.Periodic Table PDF: Boiling Point Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electronegativity-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electronegativity-heat-map.webpPauling electronegativity, darker for elements that attract bonding electrons more strongly.Periodic Table PDF: Electronegativity Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-atomic-radius-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-atomic-radius-heat-map.webpCalculated atomic radius in picometres, darker for larger atoms.Periodic Table PDF: Atomic Radius Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-ionization-energy-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-ionization-energy-heat-map.webpEnergy needed to remove the first electron, in kJ/mol, darker for higher values.Periodic Table PDF: First Ionization Energy Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-electron-affinity-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-electron-affinity-heat-map.webpElectron affinity in kJ/mol, darker for elements that gain an electron more readily.Periodic Table PDF: Electron Affinity Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-thermal-conductivity-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-thermal-conductivity-heat-map.webpThermal conductivity in W/m·K on a logarithmic scale.Periodic Table PDF: Thermal Conductivity Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-abundance-in-crust-heat-map.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-abundance-in-crust-heat-map.webpAbundance in the Earth's crust in mg/kg on a logarithmic scale.Periodic Table PDF: Abundance in the Earth's Crust Heat Maphttps://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-atomic-properties-color.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-atomic-properties-color.webpEach tile shows the atomic number, symbol, atomic weight, mass number, first ionization energy in eV and melting point in °C, in the order given in the key. Tiles are shaded by element family, with a color key.Periodic Table PDF with Atomic Properties and Thermal Data (color)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/periodic-table-atomic-properties-black-and-white.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/periodic-table-atomic-properties-black-and-white.webpEach tile shows the atomic number, symbol, atomic weight, mass number, first ionization energy in eV and melting point in °C, in the order given in the key. Plain white tiles with black outlines, so it prints sharply on any printer and photocopies cleanly.Periodic Table PDF with Atomic Properties and Thermal Data (black and white)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/mendeleev-periodic-table-1869.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/mendeleev-periodic-table-1869.webpMendeleev's first periodic table of 1869 redrawn as printed, with his original atomic weights, symbols and question-marked gaps.Mendeleev Periodic Table PDF (1869 Original)https://periodictable.page/terms/ https://periodictable.page/periodic-table-pdf/mendeleev-predicted-elements.pdf2026-11-03https://periodictable.page/periodic-table-pdf/thumbs/mendeleev-predicted-elements.webpThe eight elements Mendeleev's table predicted and their modern names, with his predicted properties of eka-aluminium and eka-silicon beside the observed values for gallium and germanium.Mendeleev's Predicted Elements PDF (Eka-Aluminium, Eka-Boron, Eka-Silicon)https://periodictable.page/terms/