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Phosphorus chemistry : the role of phosphorus in prebiotic chemistry / Yufen Zhao [and 3 others].
Chemistry Library - Books QD181.P1 Z43 2019
Available
- Format:
- Book
- Author/Creator:
- Zhao, Yufen, 1948- author.
- Language:
- English
- Subjects (All):
- Phosphorus.
- Phosphorus--Metabolism.
- Physical Description:
- xv, 166 pages : illustrations (some color) ; 25 cm
- Place of Publication:
- Berlin/Boston : De Gruyter : Xiamen University Press, [2019]
- Contents:
- 1 The international background of the origin of life p. 1
- 1.1 Original source of phosphorus p. 1
- 1.1.1 Nuclear reactions p. 1
- 1.1.2 Phosphorus surrounds celestial interval and interstellar space p. 2
- 1.1.3 Phosphorus in meteorites p. 2
- 1.1.4 Phosphorus in comets p. 3
- 1.1.5 Alkyl phosphoric acid homologues p. 3
- 1.1.6 Phosphorus in the crust p. 3
- 1.1.7 Phosphorylation under prebiological conditions p. 4
- 1.2 Phosphorus and small biomolecules p. 5
- 1.2.1 Formation of amino acids with phosphorus p. 5
- 1.2.2 Formation of bases p. 5
- 1.2.3 Formation of nucleosides with phosphorus p. 6
- 1.2.4 Formation of nucleotides p. 7
- 1.3 Phosphorus and biomacromolecules p. 9
- 1.3.1 Formation of peptides with phosphorus p. 9
- 1.3.2 Nucleic acid pre-biosynthesis p. 10
- 1.4 Irreplaceability of phosphorus in life p. 14
- 1.5 Subject of the origin of life p. 14
- 2 Why nature chose α-ammo acids? p. 19
- 2.1 Amino acids and the origins of life p. 19
- 2.2 General structures of amino acids and the biological functions p. 20
- 2.3 Prebiotic formation of amino acids p. 21
- 2.4 Prebiotic formation of peptides p. 23
- 2.5 Phosphorus chemistry for prebiotic peptide formation p. 24
- 2.5.1 Reaction of amino acids with trimetaphosphate p. 25
- 2.5.2 Peptide formation of N-phosphoryl amino acids p. 28
- 2.5.3 Peptide formation mediated by organic phosphorus reagents p. 31
- 2.6 Phosphorus chemistry and the molecular evolution of high-energy P-N bond p. 33
- 3 N-Phosphoryl amino acids - models for P-N bonds in prebiotic chemical evolution p. 35
- 3.2 The P-N bond in modern biology p. 36
- 3.2.1 Phosphohistidsne p. 37
- 3.2.2 Phosphoarginine and phosphoryl-lysine p. 37
- 3.3 Potential prebiotic origins of N-α-phosphoryl amino acids p. 38
- 3.3.1 The phosphorus problem p. 38
- 3.3.2 Possible pathways for origin of N-phosphoryl amino acids p. 39
- 3.4 Reactivity of Nα-phosphoryl amino acids related to prebiotic chemistry p. 40
- 3.4.1 N-dialkyloxyphosphoryl amino acids p. 40
- 3.4.2 NMAPAAs p. 43
- 3.4.3 N-phosphono-amino acids p. 45
- 4 Nucleoside-proteln coevolutaon and the origin of genetic code p. 53
- 4.1 Major phase in the origin of life p. 53
- 4.2 Origin of genetic code p. 55
- 4.3 The evolution of genetic code p. 57
- 4.4 Phosphorus plays an important role in the origin of life p. 59
- 4.5 N-phosphoryl amino acids: model for the study of nucleotide-protein coevolution p. 61
- 4.6 The relationship of dipeptide yields with nucleoside in the phosphorus-assisted condensation of amino acids p. 62
- 5 The phosphoryl transfer reactions of pentacoordinated phosphoryl amino acids p. 67
- 5.1 The research progress of phosphoryl transfer reaction p. 67
- 5.2 Study on the transfer reaction of Intermolecular O,O-Phenylenephosphoryl group p. 69
- 5.2.1 Synthesis and analysis of Ser-His dipeptide p. 69
- 5.2.2 The investigation of the intermolecular transfer mechanism of O,O-phenylenephosphoryl group between amino acids p. 71
- 5.3 The transfer reaction of N-(O,O-diisopropyl) phosphoryl between different ammo acids p. 74
- 5.4 The studies on the phosphoryl transfer reaction between different types of amino acids p. 76
- 6 The research progress of chiral pentacoordinate spirophosphoranes with bis-α-amino acid bonds p. 81
- 6.1 The importance of pentacoordinate phosphorus compounds in biological processes p. 81
- 6.2 The synthesis method of chiral pentacoordinate spirophosphoranes p. 82
- 6.3 Spectroscopic characterization of bisamino acyl pentacoordinate spirophosphoranes p. 85
- 6.3.1 ⁴JH-C-N-P-H p. 85
- 6.3.2 ¹JP-X p. 88
- 6.3.3 X-ray p. 90
- 6.3.4 Solid-state CD spectra p. 93
- 7 A new theoretical model for the origin of amino acid homochirality p. 99
- 7.1 The origin of homochirality p. 99
- 7.2 Model for the origin of amino acid homochirality p. 100
- 7.3 Interaction of nucleosides and amino acids p. 101
- 7.4 Thermodynamic parameters of interaction between nucleosides and amino acids p. 104
- 8 N-Phosphoryl amino acids and the origin of cell membranes p. 109
- 8.1 The origin and evolution of cells p. 109
- 8.1.1 The formation of primitive cells - The beginning of the music of life p. 109
- 8.1.2 The formation of prokaryotic and eukaryotic cell p. 110
- 8.2 Membrane structures constructed by amphiphilic N-phospboryl amino acids p. 110
- 8.2.1 Synthesis of amphiphilic N-phosphoryl amino acids p. 112
- 8.2.2 Self-assembled monolayers of amphiphilic N-phosphoryl amino acids at water-air interface and their condensation reactions p. 112
- 8.2.2.1 Formation of monomolecular membranes from amphiphilic N-phosphoryl amino acids at the water-air interface p. 112
- 8.2.2.2 Condensation of amphiphilic N-phosphoryl amino acids at the water-air interface p. 114
- 8.2.3 Formation and reaction of bimolecular membranes-vesicles in water by amphiphilic N-phosphoryl amino acids p. 116
- 8.2.3.1 Formation and characterization of vesicles p. 116
- 8.2.3.2 Condensation in vesicle systems p. 118
- 8.3 Evolution of the protocell membrane p. 120
- 8.4 N-Phosphoryl amino acids and the origin of life p. 121
- 8.4.1 Synergistic effect of membrane, nucleic acid and protein p. 121
- 8.4.2 The coevolution theory of nucleic acid, protein and cell membrane p. 121
- 9 The potential evolution prototype of modern enzyme: Discovery of seryl-histidine dipeptide and its function p. 125
- 9.1 Mini-activating enzyme: Ser-His p. 125
- 9.2 The cleavage activities of Ser-His on DNA p. 126
- 9.2.1 Discovery of the hydrolysis activity of Ser-His on DHA p. 126
- 9.2.2 The cleavage mechanism of Ser-His on DNA and the pivotal role of functional groups in Ser-His p. 127
- 9.2.3 Molecular modeling for investigating DNA cleavage activity of Ser-His p. 129
- 9.3 The cleavage activities of Ser-His on proteins p. 130
- 9.3.1 The discovery of the cleavage activities of Ser-His on proteins p. 130
- 9.3.2 The effect of different buffers on the cleavage activities p. 131
- 9.3.3 The role of functional groups of Ser-His in the cleavage activities p. 131
- 9.3.4 The study of the interaction of Ser-His with the substrate proteins p. 132
- 9.3.5 The cleavage activities of Ser-His on carboxylic ester p. 134
- 9.3.6 The functional reversibility of Ser-His on the substrate p. 134
- 9.4 Ser-His: the evolution prototype of modern enzyme p. 135
- 10 The interaction between ATP and amino acids p. 141
- 10.1 The study of the origin and evolution of protein based on small molecule p. 141
- 10.1.1 ATP - a living fossil at the molecular level p. 141
- 10.1.2 ATP-bindingprotein -the oldest protein p. 142
- 10.2 The structure and the interaction with AAs of ATP p. 145
- 10.2.1 The structure of ATP p. 145
- 10.2.2 Study on the weak interaction between AA and ATP by MS p. 146
- 10.23 Study on the weak interaction between AA and ATP by fluorescence spectrometry p. 149
- 10.2.4 Study of the weak interaction between AA and ATP by NMR p. 150
- 10.2.5 Study of the weak interaction between AA and ATP by theoretical calculation p. 151
- 10.2.6 The interaction between AA and ATP p. 154
- 11 Marine and the origin of life p. 157
- 11.1 The Origin of Life p. 157
- 11.2 The origin of marine life p. 158
- 11.2.1 The theory of the origin of marine life p. 158
- 11.2.2 Simulation of chemical evolution of marine life p. 159
- 11.3 Phosphate oxygen isotope as a biomarker p. 160
- 11.3.1 The oxygen isotope fractionation between water and phosphate p. 161
- 11.3.1.1 Oxygen isotope fractionation between water and biotic apatite p. 161
- 11.3.1.2 Oxygen isotope fractionation between water and authigenic apatite p. 162
- 11.3.1.3 Oxygen isotope fractionation between water and dissolved phosphate p. 163
- 11.3.2 The application of oxygen isotope composition of phosphate p. 164
- 11.3.2.1 The primary value of the oxygen isotope composition of phosphate p. 164
- 11.3.2.2 The review of the phosphate oxygen isotope biomarker p. 164.
- Notes:
- Includes bibliographical references.
- ISBN:
- 3110562375
- 9783110562378
- OCLC:
- 1028883511
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