Difference between revisions of "Hydrogen"
(Re-try to add table; article may need cleanup) |
(details) |
||
| Line 43: | Line 43: | ||
**Undergoes immediate Neutron Decay to become Tritium(H3) | **Undergoes immediate Neutron Decay to become Tritium(H3) | ||
--------------------- | --------------------- | ||
| − | '''Hydrogen''' is the simplest, lightest, and first element formed after the big bang. It is the most common element, making up approx 90% of the universe by weight. Hydrogen is one of the highly useful and necessary elements believed to be in critically short supply on Luna. Its most common nuclear permutation (isotope) is a single proton, although it can also exist with one (deuterium) or two (tritium) neutrons. On Earth, hydrogen is most commonly found combined with [[oxygen]] in the form of [[water]] (H<sub>2</sub>O). | + | '''Hydrogen''' is the simplest, lightest, and first element formed after the big bang. It is the most common element, making up approx 90% of the universe by weight. Hydrogen is one of the highly useful and necessary elements believed to be in critically short supply on Luna. Its most common nuclear permutation (isotope) is a single proton, although it can also exist with one (deuterium) or two (tritium) neutrons. On Earth, hydrogen is most commonly found combined with [[oxygen]] in the form of [[water]] (H<sub>2</sub>O). The Moon is much smaller than Earth, hence its gravity is not strong enough to retain liquid oceans nor gaseous amtosphere; most of the volatiles of the Moon, including hydrogen, have long since evaporated and escaped into space. |
Common uses of hydrogen which may be applied on the Moon include: rocket fuel, hydrogen fuel cells, [[ilmenite reduction]], [[reduction]] of metal ores and nitrogen fixation. | Common uses of hydrogen which may be applied on the Moon include: rocket fuel, hydrogen fuel cells, [[ilmenite reduction]], [[reduction]] of metal ores and nitrogen fixation. | ||
Revision as of 09:23, 20 January 2007
| Hydrogen | |
|---|---|
| H | |
| In situ availability: | trace |
| Necessity: | critical |
| Atomic number: | 1 |
| Atomic mass: | 1.00794 |
| group: | 1 |
| period: | 1 |
| normal phase: | gas |
| series: | |
| density: | |
| melting point: | |
| boiling point: | |
| {{{aprior}}} ← N/A → {{{anext}}} | |
| 0 ← H → He | |
| {{{bprior}}} ← Li → {{{bnext}}} | |
| Atomic radius (pm): | {{{radius}}} |
| Bohr radius (pm): | {{{bohr}}} |
| Covalent radius (pm): | {{{covalent}}} |
| Van der Waals radius (pm): | {{{vdwr}}} |
| ionic radius (pm): | {{{irad}}} |
| 1st ion potential (eV): | {{{ipot}}} |
| Electron Configuration | |
| {{{econfig}}} | |
| Electrons Per Shell | |
| {{{eshell}}} | |
| Electronegativity: | {{{enega}}} |
| Electron Affinity: | {{{eaffin}}} |
| Oxidation states: | {{{oxstat}}} |
| Magnetism: | {{{magn}}} |
| Crystal structure: | {{{cryst}}} |
| This article is a stub. You can help Lunarpedia by expanding it or sorting it into the correct stub subcategory. |
Natural Isotopes
- H1
- H2 Deuterium
Synthetic Isotopes
- H3 Tritium
- H4
- Undergoes immediate Neutron Decay to become Tritium(H3)
Hydrogen is the simplest, lightest, and first element formed after the big bang. It is the most common element, making up approx 90% of the universe by weight. Hydrogen is one of the highly useful and necessary elements believed to be in critically short supply on Luna. Its most common nuclear permutation (isotope) is a single proton, although it can also exist with one (deuterium) or two (tritium) neutrons. On Earth, hydrogen is most commonly found combined with oxygen in the form of water (H2O). The Moon is much smaller than Earth, hence its gravity is not strong enough to retain liquid oceans nor gaseous amtosphere; most of the volatiles of the Moon, including hydrogen, have long since evaporated and escaped into space.
Common uses of hydrogen which may be applied on the Moon include: rocket fuel, hydrogen fuel cells, ilmenite reduction, reduction of metal ores and nitrogen fixation. Deuterium/tritium can be as fuel used in nuclear fusion.
Hydrogen has possibly been detected at the Lunar poles, but the amount available has been a topic of controversy.
