Element identity
Element 115 identity and decay-chain evidence are experimental/evaluated.
Atomic / electronic interpretation
The reference 7s/7p configuration is theory-led and strongly affected by relativistic physics.
Bulk material properties
No macroscopic sample exists from which ordinary density, melting point, boiling point or crystal structure can be measured.
Temperature / phase path
The track is evidence context only; it does not invent solid/liquid/gas transitions.
Geography
Only public discovery, collaboration and naming geography are mapped.
The lens describes evidence status, not confidence theatre. “Unknown” is kept unknown, and teaching schematics are not presented as direct measurements.
Moscovium (Mc)
Moscovium is element 115, a synthetic superheavy element named for the Moscow region. Only small numbers of short-lived atoms have been produced, so its nuclear identity is measured far more directly than its bulk chemistry: melting point, boiling point, density and crystal structure remain experimentally unknown.
Moscovium atomic number, mass, electron configuration and key properties
Moscovium: quick answers
How many protons, neutrons and electrons does moscovium have?
Moscovium’s atomic number is 115, so every moscovium atom has 115 protons, and a neutral atom also has 115 electrons. Moscovium has no stable isotopes, so the number of neutrons depends on which isotope you mean.
What is the symbol for moscovium?
The chemical symbol for moscovium is Mc.
Is moscovium a solid, liquid or gas at room temperature?
Moscovium has only been made a few atoms at a time, so its state at room temperature is unknown.
What family (group) is moscovium in?
Moscovium is a post-transition metal (predicted), in group 15, period 7 of the periodic table.
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.
One hundred fifteen protons define moscovium.
This is a predicted/reference atomic configuration in a strongly relativistic superheavy regime.
Group placement gives context but cannot substitute for direct chemical evidence.
Moscovium evidence is isotope-specific and atom-at-a-time.
No macroscopic melting, boiling or crystal boundaries have been measured.
Moscovium in its period and family
Moscovium is placed in Group 15, Period 7 below bismuth. Periodic position provides a starting framework, but the 7p shell is strongly affected by relativistic spin-orbit physics and there is too little chemical evidence to copy bismuth’s bulk properties downward.
Moscovium Visual Lab
Decode moscovium’s tile, inspect a ²⁸⁹Mc teaching nucleus, view qualitative 7s/7p probability models with explicit prediction caveats, leave the material structure unknown, and connect the element to Dubna-led discovery, international collaboration and the limits of periodic extrapolation.
Every mark points to one exact feature
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.
Moscovium in one minute
Atomic number 115 means every moscovium nucleus contains 115 protons.
Moscovium is synthetic and highly radioactive; only small numbers of atoms have been made.
The commonly cited ground-state configuration [Rn] 5f¹⁴ 6d¹⁰ 7s² 7p³ is a reference prediction/assignment for an atom in a strong relativistic regime.
No measured macroscopic melting point, boiling point, density or crystal structure exists.
IUPAC approved the name moscovium (Mc) in 2016, honoring the Moscow region associated with the Joint Institute for Nuclear Research.
Shell rings organize electron counts. They are not electron trajectories or orbital shapes.
2 · 8 · 18 · 32 · 32 · 18 · 5 electrons
These 7s and 7p clouds are qualitative nonrelativistic teaching references for an isolated atom. The p orientation control changes the axis of the same angular form. For element 115, strong spin-orbit splitting and many-electron relativistic effects are essential, so the viewer must not be interpreted as a measured orbital image or complete relativistic wavefunction.
No macroscopic moscovium sample exists; Element Lookup does not invent a crystal lattice. 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.What this model does—and does not—show
These 7s and 7p clouds are qualitative nonrelativistic teaching references for an isolated atom. The p orientation control changes the axis of the same angular form. For element 115, strong spin-orbit splitting and many-electron relativistic effects are essential, so the viewer must not be interpreted as a measured orbital image or complete relativistic wavefunction.
Where do I meet moscovium?
Clickable learning cards connect the element to materials, environment, technology, biology or research - depending on what the evidence actually supports.
Superheavy research
Moscovium exists as an atom-at-a-time research subject used to test nuclear models and the limits of the periodic table.
Evidence ladder: nuclear facts → atomic predictions → unknown bulk matter
Moscovium is a strong test of scientific honesty because different layers of the page have very different evidence strength.
Nuclear identity
Production and decay-chain observations establish element/isotope evidence.
Antimony, bismuth and moscovium: extrapolation becomes prediction
Group 15 placement supplies a real periodic framework, but direct chemical evidence becomes extremely sparse for atom-at-a-time moscovium.
| Valence | 5s² 5p³ |
|---|---|
| Evidence | measured bulk element |
| Valence | 6s² 6p³ |
|---|---|
| Evidence | measured bulk metal |
| Reference | 7s² 7p³ · predicted |
|---|---|
| Evidence | atom-at-a-time nuclear data |
| Bulk properties | unknown |
Moscovium 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.
| Property | Value | Context / provenance | Evidence |
|---|---|---|---|
| Atomic number | 115 | Source-reviewed; see Sources below | Evaluated |
| Relative atomic mass | [289] | Source-reviewed; see Sources below | Evaluated |
| ²⁸⁹Mc | Synthetic · short-lived | A key isotope associated with moscovium reference data; no natural abundance exists. | Evaluated |
| ²⁸⁸Mc | Synthetic · very short-lived | RSC lists an approximate sub-second half-life for this isotope; evaluated values can be updated as nuclear data improve. | Evaluated |
| Moscovium isotope family | No stable isotopes | All known moscovium isotopes are synthetic and radioactive, so isotope-specific nuclear evidence is central. | Evaluated |
| Property | Value | Context / provenance | Evidence |
|---|---|---|---|
| Ground-state electron configuration | [Rn] 5f¹⁴ 6d¹⁰ 7s² 7p³ · reference prediction | Source-reviewed; see Sources below | Predicted |
| Group / period / block | Group 15 · Period 7 · p-block | Periodic-table placement | Evaluated |
| Electronegativity | Unknown | Source-reviewed; see Sources below | Unknown |
| Common oxidation states | Bulk/common states not experimentally established | Source-reviewed; see Sources below | Unknown |
| Property | Value | Context / provenance | Evidence |
|---|---|---|---|
| ²⁸⁹Mc | Synthetic · short-lived | A key isotope associated with moscovium reference data; no natural abundance exists. | Evaluated |
| ²⁸⁸Mc | Synthetic · very short-lived | RSC lists an approximate sub-second half-life for this isotope; evaluated values can be updated as nuclear data improve. | Evaluated |
| Moscovium isotope family | No stable isotopes | All known moscovium isotopes are synthetic and radioactive, so isotope-specific nuclear evidence is central. | Evaluated |
| Teaching nucleus | ²⁸⁹Mc · 115 protons + 174 neutrons | Reference isotope used in the nucleus model | Reviewed |
| Property | Value | Context / provenance | Evidence |
|---|---|---|---|
| Current use | Scientific research only | No commercial bulk use is implied. | Reviewed |
| Geography | Discovery, naming and research context only | No natural-resource map is appropriate. | Reviewed |
| Safety boundary | Non-operational educational context | No synthesis settings or material-access guidance. | Reviewed |
| Property | Value | Context / provenance | Evidence |
|---|---|---|---|
| Density | Unknown | Source-reviewed; see Sources below | Unknown |
| Material / molecular structure | Bulk crystal structure unknown | No macroscopic moscovium sample exists; Element Lookup does not invent a crystal lattice | Unknown |
| Melting / transition reference | Unknown | Source-reviewed; see Sources below | Unknown |
| Boiling / gas reference | Unknown | Source-reviewed; see Sources below | Unknown |
| Common oxidation states | Bulk/common states not experimentally established | Source-reviewed; see Sources below | Unknown |
| Property | Value | Context / provenance | Evidence |
|---|---|---|---|
| Page evidence note | Moscovium’s atomic number, synthesis/discovery record and isotope/decay evidence are experimental. The displayed electron configuration is a reference prediction/assignment in a strongly relativistic regime. Macroscopic density, melting point, boiling point and crystal structure remain unknown and are intentionally not invented. | Evidence summary for this guide | Reviewed |
| Structure evidence | No macroscopic moscovium sample exists; Element Lookup does not invent a crystal lattice | Measured structure, labelled schematic, prediction or explicit unknown as applicable. | Reviewed |
| Map evidence rule | Real pins are reviewed examples; conceptual layers are used when pins would mislead. | Geography Explorer 2.0 | Reviewed |
| Source set | 3 primary/reference links listed below | Open the Sources section for the actual references. | Reviewed |
Is Moscovium a solid, liquid or gas? State at temperature
No macroscopic moscovium sample exists, so accepted experimental melting, boiling and bulk phase boundaries are unavailable. The temperature control is therefore an evidence-context track only; it shows a 293 K reference without fabricating solid-liquid-gas transitions.
Where on Earth is Moscovium found or produced?
Who discovered Moscovium, and when?
Experiments at the Joint Institute for Nuclear Research and collaborating US laboratories produced nuclei assigned to element 115.
IUPAC recognized the discovery claim for element 115.
IUPAC formally approved the name moscovium and symbol Mc.
Research focuses on nuclear properties, decay chains and theoretical predictions of superheavy-element chemistry.
How moscovium is studied: safe, high-level research context
Superheavy-element experiments create very small numbers of nuclei in specialized accelerator facilities.
Detectors record decay signatures that help researchers connect parent and daughter nuclei and evaluate element identification.
Because the atoms are few and short-lived, ordinary bulk-property measurements such as density or melting point are not available.
Element Lookup intentionally omits target preparation, beam settings, cross-section optimization and other operational synthesis instructions; the focus is evidence interpretation.
What is moscovium used for?
Fundamental nuclear science
Moscovium helps test models of superheavy nuclei and radioactive decay.
Periodic-table research
The element extends Group 15 and provides a demanding test of relativistic electronic-structure predictions.
Discovery-method science
Its evidence illustrates how decay chains and international review establish the identity of superheavy elements.
No commercial uses
Only research uses exist because so few short-lived atoms have been produced.
Moscovium isotopes and natural abundance
²⁸⁹Mc
Synthetic · short-livedA key isotope associated with moscovium reference data; no natural abundance exists.
²⁸⁸Mc
Synthetic · very short-livedRSC lists an approximate sub-second half-life for this isotope; evaluated values can be updated as nuclear data improve.
Moscovium isotope family
No stable isotopesAll known moscovium isotopes are synthetic and radioactive, so isotope-specific nuclear evidence is central.
Five-question Moscovium check
What is moscovium’s atomic number?
Which statement about its bulk crystal structure is correct?
What is moscovium currently used for?
What does Group 15 placement tell us?
Why is the temperature track marked unknown?
Moscovium 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 moscovium?
Short answer: Moscovium is synthetic chemical element 115, symbol Mc, in Group 15.
Atomic number 115 means every moscovium nucleus contains 115 protons. In the periodic table, Moscovium is classified here as a synthetic superheavy element · group 15 in Period 7 and Group 15. Moscovium is placed in Group 15, Period 7 below bismuth. Periodic position provides a starting framework, but the 7p shell is strongly affected by relativistic spin-orbit physics and there is too little chemical evidence to copy bismuth’s bulk properties downward.
Key point: Mc is element 115; its periodic position and electron structure explain the rest of the page.
What is moscovium used for?
Short answer: Only scientific research. It has no commercial or everyday use.
Fundamental nuclear science: Moscovium helps test models of superheavy nuclei and radioactive decay. Periodic-table research: The element extends Group 15 and provides a demanding test of relativistic electronic-structure predictions. Group 15 placement is real, but moscovium is not simply ‘very heavy bismuth.’ Strong relativistic effects and atom-at-a-time evidence mean predicted electron structure must be separated clearly from measured nuclear facts and unknown bulk properties.
Key point: Always distinguish the pure element from the compound, alloy, isotope or device material that actually performs the application.
What does moscovium look like?
Short answer: No macroscopic sample has been produced, so a measured bulk appearance is not available. Metallic-looking illustrations are predictions or artistic conventions, not photographs of bulk moscovium.
The ordinary elemental-material description used here is: Only atom-at-a-time evidence · bulk state unmeasured. No macroscopic moscovium sample exists; Element Lookup does not invent a crystal lattice.
Key point: Elemental appearance can differ from the colors of its ions, compounds, oxide films or host materials.
Is moscovium a metal?
Short answer: It is generally predicted/classified as a superheavy metallic element, but bulk metallic properties have not been measured. Element Lookup labels that distinction explicitly.
This guide classifies Moscovium as a synthetic superheavy element · group 15. Its periodic position is Period 7, p-block, Group 15. Moscovium is placed in Group 15, Period 7 below bismuth. Periodic position provides a starting framework, but the 7p shell is strongly affected by relativistic spin-orbit physics and there is too little chemical evidence to copy bismuth’s bulk properties downward.
Key point: Periodic-table classification describes recurring atomic/chemical behavior; it does not make every element in a column physically identical.
Who discovered moscovium?
Short answer: The discovery claim involved the Joint Institute for Nuclear Research in Dubna with US collaborators including Lawrence Livermore and Oak Ridge; IUPAC recognized the claim and approved the name in 2016.
In the 2000s, Experiments at the Joint Institute for Nuclear Research and collaborating US laboratories produced nuclei assigned to element 115. In 2015, IUPAC recognized the discovery claim for element 115.
Key point: Discovery credit follows the historical evidence and accepted attribution, not just the earliest claim.
What is moscovium’s electron configuration?
Short answer: A commonly used reference prediction is [Rn] 5f¹⁴ 6d¹⁰ 7s² 7p³, but relativistic effects are strong and this is not a directly imaged electron cloud.
The neutral-atom ground-state reference used on this page is [Rn] 5f¹⁴ 6d¹⁰ 7s² 7p³ · reference prediction. This is an isolated-atom reference: bonding and ion formation can change which outer electrons are present or chemically active. The listed common oxidation-state context is Bulk/common states not experimentally established, which helps connect the atomic configuration to ordinary chemistry without treating electron counting as a single universal rule.
Key point: Electron configuration is a ground-state atomic reference, not a literal picture of every compound.
Scientific sources for Moscovium
- Royal Society of Chemistry - Moscovium
- IUPAC - Names of elements 113, 115, 117 and 118
- IUPAC - Naming announcement and discovery context
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