The Origins of Life: What One Needs to Know
Many solar systems in the universe may be expected to contain rocky planets that have accreted organic compounds. These compounds are likely to be universally found. In addition, the chemistry of sulfur, phosphorus, and iron is likely to dominate energy transductions and monomer activation, leading...
| Published in: | Zygon |
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| Main Author: | |
| Format: | Electronic Article |
| Language: | English |
| Check availability: | HBZ Gateway |
| Journals Online & Print: | Drawer...
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| Fernleihe: | Fernleihe für die Fachinformationsdienste |
| Published: |
Wiley-Blackwell
1997
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| In: |
Zygon
Year: 1997, Volume: 32, Issue: 3, Pages: 393-406 |
| Further subjects: | B
uroboros
B d orbitals B polynucleotides B silicon B proteins B phosphates B periodic table of the elements B Evolution B polymers B thioesters B stellar nucleosynthesis B energy metabolism B phosphorus B Fitness |
| Online Access: |
Volltext (lizenzpflichtig) Volltext (lizenzpflichtig) |
| Parallel Edition: | Non-electronic
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| Summary: | Many solar systems in the universe may be expected to contain rocky planets that have accreted organic compounds. These compounds are likely to be universally found. In addition, the chemistry of sulfur, phosphorus, and iron is likely to dominate energy transductions and monomer activation, leading to the eventual emergence of polymers. Proteins and polynucleotides provide living matter with function, structure, and information. The conceptual puzzle regarding their emergence is discussed. The fitness of various elements to serve various roles is analyzed from the viewpoint of electron orbitals. Elements with d orbitals are of central importance. |
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| ISSN: | 1467-9744 |
| Contains: | Enthalten in: Zygon
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| Persistent identifiers: | DOI: 10.1111/0591-2385.00098 |