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Free Darmstadtium student datasheetPrintable revision sheet with identity, structure, evidence notes, phase behavior, uses, isotopes and review prompts.
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Darmstadtium atomic number, mass, electron configuration and key properties

Atomic number
110
Relative atomic mass
[281]
Electron configuration
[Rn] 5f¹⁴ 6d⁹ 7s¹
Common oxidation states
Predicted; bulk chemistry not experimentally established
Density
Unknown
Melting point
Unknown
Boiling point
Unknown
Ordinary crystal / bulk structure
Bulk crystal structure unknown
ClassificationTransition metal · superheavy
Reference isotope²⁸¹Ds
State contextSuperheavy radioactive element observed atom by atom
Evidence noteAtomic identity and source-reviewed reference values are separated from predictions. Search demand shapes headings and FAQs but never overrides scientific evidence; unknown bulk structure/density/phase values remain visibly unknown.
Quick answers

Darmstadtium: quick answers

How many protons, neutrons and electrons does darmstadtium have?

Darmstadtium’s atomic number is 110, so every darmstadtium atom has 110 protons, and a neutral atom also has 110 electrons. Darmstadtium has no stable isotopes, so the neutron count depends on the isotope: darmstadtium-281, featured on this page, has 171 neutrons.

What is the symbol for darmstadtium?

The chemical symbol for darmstadtium is Ds.

Is darmstadtium a solid, liquid or gas at room temperature?

Darmstadtium has only been made a few atoms at a time, so its state at room temperature is unknown.

What family (group) is darmstadtium in?

Darmstadtium is a transition metal (predicted), in group 10, period 7 of the periodic table.

What is the electron configuration of darmstadtium?

The ground-state electron configuration of darmstadtium is [Rn] 5f¹⁴ 6d⁹ 7s¹. This is a predicted configuration; it has not been measured.

Connect the facts

From atomic number to chemistry

Read these as a chain of causes, not as isolated facts. Each step links to the concept hub if you want the underlying idea explained.

Common misconceptionDarmstadtium is defined experimentally by its nuclei and decay chains. Its Group 10 position is useful for theory, but the page does not turn theoretical metallic behavior into fake bulk measurements.
Periodic-table position

Darmstadtium in its period and family

Darmstadtium is element 110 in Period 7. Its d-block/series position provides useful periodic context, but element-specific experimental evidence takes priority over simple trend extrapolation.

Interactive Visual Lab

Darmstadtium Visual Lab

Explore Ds across the teaching nucleus, isolated-atom orbitals, evidence-aware material structure and temperature/evidence views, then connect those models to uses, isotopes, search-led questions and source-backed context.

Overview · structure · orbitals · real world
How to read an element tile

Every mark points to one exact feature

1110 2[281] 3Ds 4[Rn] 5f¹⁴ 6d⁹ 7s¹ 5Darmstadtium 6Bulk crystal structure unknown 7Superheavy radioa…
1Atomic numberNumber of protons
2Relative atomic massStandard value or bracketed reference mass
3Chemical symbolDs
4Electron configurationGround-state shorthand or evidence-labelled prediction
5Element nameDarmstadtium
6Structure contextBulk crystal structure unknown
7Physical-state contextSuperheavy radioactive element observed atom by atom

The numbered markers explain the same information system used throughout Element Lookup. Unknown or predicted fields remain visibly labelled rather than being replaced with guesses.

Five things worth remembering

Darmstadtium in one minute

01

Atomic number 110 means every darmstadtium nucleus has 110 protons.

02

The ground-state/reference electron configuration is [Rn] 5f¹⁴ 6d⁹ 7s¹.

03

The representative teaching isotope is ²⁸¹Ds.

04

Darmstadtium is defined experimentally by its nuclei and decay chains. Its Group 10 position is useful for theory, but the page does not turn theoretical metallic behavior into fake bulk measurements.

05

Material structure status: Bulk crystal structure unknown.

Atomic structure teaching model

²⁸¹Ds nucleus · neutral Ds

110 p⁺ · 171 n⁰
Nucleus modelNucleon-count teaching view
110 p⁺ + 171 n⁰²⁸¹Ds · schematic nucleus, not a literal nuclear geometry
Electron-count schematicPrincipal-shell populations

Shell rings organize electron counts. They are not electron trajectories or orbital shapes.

Nucleus, shell count and material structure are deliberately separated so one picture is not mistaken for another.
Connect picture → chemistry

2 · 8 · 18 · 32 · 32 · 17 · 1 electrons

n=12
n=28
n=318
n=432
n=532
n=617
n=71
Why this electron pattern matters

Displayed orbitals are isolated-atom, nonrelativistic teaching probability models. They are not bulk-band structures, bonding orbitals or direct measured electron-density maps; relativistic effects become especially important for very heavy elements.

Teaching boundary: the nucleus uses colored spheres to make proton/neutron counts visible; the shell diagram only summarizes principal-shell populations. Neither is a literal picture of electron motion.
Material / molecular structure viewer

Bulk crystal structure unknown

No defensible macroscopic crystal lattice is displayed for Darmstadtium. Nuclear/atomic evidence and theory are kept separate from unmeasured bulk material properties.
Bulk crystal structure unknownNo defensible macroscopic crystal lattice is displayed for Darmstadtium. Nuclear/atomic evidence and theory are kept separate from unmeasured bulk material properties.
What are you seeing?

No defensible macroscopic crystal lattice is displayed for Darmstadtium. Nuclear/atomic evidence and theory are kept separate from unmeasured bulk material properties.. The viewer is evidence-aware: measured structures are identified as such; unknown bulk structures stay unknown.

Teaching visualization; not a literal finite sample or thermal trajectory.
Probability-cloud teaching model

6d z² orbital

One-electron teaching approximation; dots represent sampled probability density, not individual electrons.
Interpretation

What this model does—and does not—show

Displayed orbitals are isolated-atom, nonrelativistic teaching probability models. They are not bulk-band structures, bonding orbitals or direct measured electron-density maps; relativistic effects become especially important for very heavy elements.

Important: The cloud includes the expected nodal pattern for the named nonrelativistic orbital where applicable. Phase colors are not electric charge. For heavy and superheavy elements, relativistic/many-electron effects make these only teaching approximations.
Real-world archive

Where do I meet darmstadtium?

Clickable learning cards connect the element to materials, environment, technology, biology or research - depending on what the evidence actually supports.

One
Scientific research only

Scientific research only

This context uses Darmstadtium or a darmstadtium-containing material; the element and its compounds/isotopes are kept distinct.

1994Sigurd Hofmann, Peter Armbruster, Gottfried Münzenberg and colleagues produced element 110 at GSI in Darmstadt.
Naming / contextThe element name and discovery story are part of the historical record; search-led questions are answered without turning history into scientific evidence for bulk properties.
TodayCurrent use is described at the level supported by the element’s availability and evidence, with research-only elements kept research-only.
Evidence principleAtomic identity and source-reviewed reference values are separated from predictions. Search demand shapes headings and FAQs but never overrides scientific evidence; unknown bulk structure/density/phase values remain visibly unknown.
Signature science

Evidence ladder: nucleus → atom-scale chemistry → unknown bulk material

For scarce synthetic heavy elements, different claims have very different evidence strength.

Evaluated

Nuclear identity

Production/decay evidence establishes the element and specific isotopes.

Reference properties

Darmstadtium properties: atomic, physical, thermal and chemical

Categories follow the science of this element rather than a fixed decorative template. Each row carries condition/provenance context and an evidence label; unknown values stay unknown.

PropertyValueContext / provenanceEvidence
Atomic number110Source-reviewed; see Sources belowEvaluated
Relative atomic mass[281]Source-reviewed; see Sources belowEvaluated
²⁸¹DsReference teaching isotopeMass number belongs to a specific isotope and is not the same thing as relative atomic mass.Evaluated
Isotope evidenceElement-specific nuclear contextHalf-life and decay properties are isotope-specific; the page does not generalize one isotope to all atoms.Evaluated
Teaching nucleus²⁸¹Ds · 110 protons + 171 neutronsReference isotope used in the nucleus modelReviewed
PropertyValueContext / provenanceEvidence
Ground-state electron configuration[Rn] 5f¹⁴ 6d⁹ 7s¹Source-reviewed; see Sources belowPredicted
Group / period / blockGroup 10 · Period 7 · d-blockPeriodic-table placementEvaluated
ElectronegativityUnknownSource-reviewed; see Sources belowUnknown
Common oxidation statesPredicted; bulk chemistry not experimentally establishedSource-reviewed; see Sources belowUnknown
PropertyValueContext / provenanceEvidence
²⁸¹DsReference teaching isotopeMass number belongs to a specific isotope and is not the same thing as relative atomic mass.Evaluated
Isotope evidenceElement-specific nuclear contextHalf-life and decay properties are isotope-specific; the page does not generalize one isotope to all atoms.Evaluated
Teaching nucleus²⁸¹Ds · 110 protons + 171 neutronsReference isotope used in the nucleus modelReviewed
PropertyValueContext / provenanceEvidence
Current useScientific research onlyNo commercial bulk use is implied.Reviewed
GeographyDiscovery, naming and research context onlyNo natural-resource map is appropriate.Reviewed
Safety boundaryNon-operational educational contextNo synthesis settings or material-access guidance.Reviewed
PropertyValueContext / provenanceEvidence
DensityUnknownSource-reviewed; see Sources belowUnknown
Material / molecular structureBulk crystal structure unknownNo defensible macroscopic crystal lattice is displayed for Darmstadtium. Nuclear/atomic evidence and theory are kept separate from unmeasured bulk material properties.Unknown
Melting / transition referenceUnknownSource-reviewed; see Sources belowUnknown
Boiling / gas referenceUnknownSource-reviewed; see Sources belowUnknown
Common oxidation statesPredicted; bulk chemistry not experimentally establishedSource-reviewed; see Sources belowUnknown
PropertyValueContext / provenanceEvidence
Page evidence noteAtomic identity and source-reviewed reference values are separated from predictions. Search demand shapes headings and FAQs but never overrides scientific evidence; unknown bulk structure/density/phase values remain visibly unknown.Evidence summary for this guideReviewed
Structure evidenceNo defensible macroscopic crystal lattice is displayed for Darmstadtium. Nuclear/atomic evidence and theory are kept separate from unmeasured bulk material properties.Measured structure, labelled schematic, prediction or explicit unknown as applicable.Reviewed
Map evidence ruleReal pins are reviewed examples; conceptual layers are used when pins would mislead.Geography Explorer 2.0Reviewed
Source set3 primary/reference links listed belowOpen the Sources section for the actual references.Reviewed
Temperature explorer

Is Darmstadtium a solid, liquid or gas? State at temperature

No measured ordinary melting or boiling point is asserted. The phase track remains visible as an evidence-limited teaching view rather than inventing macroscopic transitions.

Temperature293 K
Move the slider
The shared site-wide phase model controls the track, markers and readout.
Geography and evidence

Where on Earth is Darmstadtium found or produced?

World map
Darmstadt, GermanyRSC historical context · historical
Discovery and history

Who discovered Darmstadtium, and when?

1994

Sigurd Hofmann, Peter Armbruster, Gottfried Münzenberg and colleagues produced element 110 at GSI in Darmstadt.

Naming / context

The element name and discovery story are part of the historical record; search-led questions are answered without turning history into scientific evidence for bulk properties.

Today

Current use is described at the level supported by the element’s availability and evidence, with research-only elements kept research-only.

Process / synthesis context

Research production context: high-level, non-operational

1

The element is produced or isolated only in specialized research/nuclear settings; this page intentionally omits operational synthesis, target, beam, separation, handling and access instructions.

2

Experimental identity is established from nuclear decay, spectroscopy and/or atom-scale chemistry appropriate to the element.

3

Any chemical or material inference is labelled by evidence strength; unmeasured bulk properties are not converted into visual facts.

4

Research use is described conceptually, with isotope-specific claims kept distinct from the element as a whole.

Safety boundary: This page is educational and non-operational. It provides no radioactive-material production, separation, source-preparation, handling or access instructions.
Real-world applications

What is darmstadtium used for?

Scientific research only

Research-only context; no operational production or handling guidance.

Nuclear-structure and superheavy-element studies

Research-only context; no operational production or handling guidance.

Isotopes

Darmstadtium isotopes and natural abundance

²⁸¹Ds

Reference teaching isotope

Mass number belongs to a specific isotope and is not the same thing as relative atomic mass.

Isotope evidence

Element-specific nuclear context

Half-life and decay properties are isotope-specific; the page does not generalize one isotope to all atoms.

Learn it, don’t just read it

Five-question Darmstadtium check

What is Darmstadtium’s atomic number?

Which statement best describes the material evidence for Darmstadtium?

What is the safest rule for Darmstadtium uses?

Questions answered

Darmstadtium questions students commonly ask

Each answer starts with the direct fact, then explains the chemistry, evidence or material context so the result is understandable rather than merely memorized.

What is the atomic number of darmstadtium?

Short answer: The atomic number is 110, meaning every darmstadtium nucleus has 110 protons.

Atomic number is defined by proton count, so 110 protons are what make an atom darmstadtium. A neutral darmstadtium atom also has 110 electrons, while isotopes can have different neutron counts without changing the element.

Key point: Atomic number = proton count.

What is the symbol for darmstadtium?

Short answer: The chemical symbol is Ds.

The symbol Ds is the standardized chemical abbreviation for element 110. In a chemical formula, Ds identifies darmstadtium atoms; a compound containing Ds is not automatically the same material as elemental darmstadtium.

Key point: Ds always identifies element 110.

What is darmstadtium?

Short answer: Darmstadtium is element 110, symbol Ds, a synthetic superheavy Group 10 element.

Atomic number 110 means every darmstadtium nucleus contains 110 protons. In the periodic table, Darmstadtium is classified here as a transition metal · superheavy in Period 7 and Group 10. Darmstadtium is element 110 in Period 7. Its d-block/series position provides useful periodic context, but element-specific experimental evidence takes priority over simple trend extrapolation.

Key point: Ds is element 110; its periodic position and electron structure explain the rest of the page.

What is darmstadtium used for?

Short answer: Darmstadtium has no use outside scientific research.

Scientific research only: Research-only context; no operational production or handling guidance. Nuclear-structure and superheavy-element studies: Research-only context; no operational production or handling guidance. Darmstadtium is defined experimentally by its nuclei and decay chains. Its Group 10 position is useful for theory, but the page does not turn theoretical metallic behavior into fake bulk measurements.

Key point: Always distinguish the pure element from the compound, alloy, isotope or device material that actually performs the application.

How many neutrons does darmstadtium have?

Short answer: Neutron count depends on isotope. The teaching isotope ²⁸¹Ds has 281 − 110 = 171 neutrons.

The page’s teaching nucleus is ²⁸¹Ds, which contains 110 protons and 171 neutrons. Other isotopes of Darmstadtium keep the same 110 protons but have different neutron counts.

Key point: Neutron count is isotope-specific.

What does darmstadtium look like?

Short answer: No macroscopic sample has been observed; measured bulk appearance and crystal structure are unknown.

The ordinary elemental-material description used here is: Superheavy radioactive element observed atom by atom. No defensible macroscopic crystal lattice is displayed for Darmstadtium. Nuclear/atomic evidence and theory are kept separate from unmeasured bulk material properties.

Key point: Elemental appearance can differ from the colors of its ions, compounds, oxide films or host materials.

Scientific sources and provenance

Scientific sources for Darmstadtium

Evidence rule: Atomic identity and source-reviewed reference values are separated from predictions. Search demand shapes headings and FAQs but never overrides scientific evidence; unknown bulk structure/density/phase values remain visibly unknown.
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