24 results on '"MAST, CHRISTOF B."'
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2. Formation mechanism of thermally controlled pH gradients
3. Sequence dependent UV damage of complete pools of oligonucleotides
4. Water cycles in a Hadean CO2 atmosphere drive the evolution of long DNA
5. Non-equilibrium conditions inside rock pores drive fission, maintenance and selection of coacervate protocells
6. High-Fidelity RNA Copying via 2′,3′-Cyclic Phosphate Ligation.
7. Heated gas bubbles enrich, crystallize, dry, phosphorylate and encapsulate prebiotic molecules
8. Sequence self-selection by cyclic phase separation.
9. Escalation of polymerization in a thermal gradient
10. A heated rock crack captures and polymerizes primordial DNA and RNA.
11. RNA Oligomerisation without Added Catalyst from 2′,3′‐Cyclic Nucleotides by Drying at Air‐Water Interfaces.
12. Periodic Melting of Oligonucleotides by Oscillating Salt Concentrations Triggered by Microscale Water Cycles Inside Heated Rock Pores.
13. Proton gradients and pH oscillations emerge from heat flow at the microscale.
14. Emergence of Life from Trapped Nucleotides? Non-Equilibrium Behavior of Oligonucleotides in Thermal Gradients.
15. Heat-Flow-Driven Oligonucleotide Gelation Separates Single-Base Differences.
16. Dry Polymerization of 3′,5′-Cyclic GMP to Long Strands of RNA.
17. THERMAL SOLUTIONS FOR MOLECULAR EVOLUTION.
18. Back Cover: Heat-Flow-Driven Oligonucleotide Gelation Separates Single-Base Differences (Angew. Chem. Int. Ed. 23/2016).
19. Rücktitelbild: Heat-Flow-Driven Oligonucleotide Gelation Separates Single-Base Differences (Angew. Chem. 23/2016).
20. Thermal Habitat for RNA Amplification and Accumulation.
21. Proton gradients and pH oscillations emerge from heat flow at the microscale.
22. Heat-Flow-Driven Oligonucleotide Gelation Separates Single-Base Differences.
23. Optical fluid and biomolecule transport with thermal fields.
24. Thermal trap for DNA replication.
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