- Broschiertes Buch
- Merkliste
- Auf die Merkliste
- Bewerten Bewerten
- Teilen
- Produkt teilen
- Produkterinnerung
- Produkterinnerung
This book provides a modern account of research on liquid-liquid interfaces, with particular emphasis on charge transfer effects. It discusses their applications in biotechnology such as drug delivery, mineral extraction processes, and the manufacture of biosensors.
Andere Kunden interessierten sich auch für
- Theoretical Models and Experimental Approaches in Physical Chemistry110,99 €
- John R HelliwellPerspectives in Crystallography92,99 €
- Physical Chemistry for the Chemical and Biochemical Sciences110,99 €
- Chemical and Biochemical Physics110,99 €
- Protein Engineering For Industrial Biotechnology92,99 €
- High-Risk Atherosclerotic Plaques83,99 €
- Raymond C ValentineOmega-3 Fatty Acids and the Dha Principle86,99 €
-
-
-
This book provides a modern account of research on liquid-liquid interfaces, with particular emphasis on charge transfer effects. It discusses their applications in biotechnology such as drug delivery, mineral extraction processes, and the manufacture of biosensors.
Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Produktdetails
- Produktdetails
- Verlag: CRC Press
- Seitenzahl: 448
- Erscheinungstermin: 2. Dezember 2019
- Englisch
- Abmessung: 234mm x 156mm x 23mm
- Gewicht: 612g
- ISBN-13: 9780367448691
- ISBN-10: 0367448696
- Artikelnr.: 58442892
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
- Verlag: CRC Press
- Seitenzahl: 448
- Erscheinungstermin: 2. Dezember 2019
- Englisch
- Abmessung: 234mm x 156mm x 23mm
- Gewicht: 612g
- ISBN-13: 9780367448691
- ISBN-10: 0367448696
- Artikelnr.: 58442892
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
Alexander G. Volkov, David W. Deamer
1. Equilibrium electric potential between two immiscible electrolyte solutions /T. Kakiuchi
I. Distribution potential
A. Phase
boundary potential
B. Distribution potential at ITIES
1. Nernst equation
2. Standard ion transfer potential
3. Calculation of distribution potential
4. Distribution potential in the presence of ion pair formation and complex formation reactions
5. Distribution of potential
6. Distribution potential in small systems
II. Polarizability of the liquid
liquid interface
III. Nonpolarized ITIES and reference potentials in organic phases
IV. Free energy of coupling of ion transfer and electron transfer
1. Mixed potential determined by electron transfer and ion transfer at ITIES
2. Partition of indifferent electrolyte ions
3. Relative strength of ion transfer and electron transfer
V. Conclusions
VI. References
2. Volta and surface potentials at liquid /liquid interfaces /Z. Koczorowski
I. Introduction
II. Electrified liquid /liquid interfaces and their electrical potentials
III. Volta potential and voltaic cells
IV. Voltaic cells with water /nonpolar liquid interfaces
V. Voltaic cells with immiscible electrolyte solution interface
VI. Experimental methods of investigation of voltaic cells
VII. Final remarks
VIII. References
3. Ion solvation /Y. Marcus
I. Introduction
II. The relevant properties of ions
III. The relevant properties of solvents
IV. Quantities describing ionic hydration
A. Thermodynamics of ion hydration
B. Methods of investigation
C. Other properties relevant to ion hydration
D. The data
E. Interpretation
V. Transfer of ions into non
aqueous solvents
A. Methods of investigation
B. The data
C. Interpretation
VI. Preferential ion solvation in mixed solvents
VII. References
4. Adsorption isotherms and the structure of oil /water interface /V. S. Markin and A. G. Volkov
I. Introduction
II. Surface solution
I. Distribution potential
A. Phase
boundary potential
B. Distribution potential at ITIES
1. Nernst equation
2. Standard ion transfer potential
3. Calculation of distribution potential
4. Distribution potential in the presence of ion pair formation and complex formation reactions
5. Distribution of potential
6. Distribution potential in small systems
II. Polarizability of the liquid
liquid interface
III. Nonpolarized ITIES and reference potentials in organic phases
IV. Free energy of coupling of ion transfer and electron transfer
1. Mixed potential determined by electron transfer and ion transfer at ITIES
2. Partition of indifferent electrolyte ions
3. Relative strength of ion transfer and electron transfer
V. Conclusions
VI. References
2. Volta and surface potentials at liquid /liquid interfaces /Z. Koczorowski
I. Introduction
II. Electrified liquid /liquid interfaces and their electrical potentials
III. Volta potential and voltaic cells
IV. Voltaic cells with water /nonpolar liquid interfaces
V. Voltaic cells with immiscible electrolyte solution interface
VI. Experimental methods of investigation of voltaic cells
VII. Final remarks
VIII. References
3. Ion solvation /Y. Marcus
I. Introduction
II. The relevant properties of ions
III. The relevant properties of solvents
IV. Quantities describing ionic hydration
A. Thermodynamics of ion hydration
B. Methods of investigation
C. Other properties relevant to ion hydration
D. The data
E. Interpretation
V. Transfer of ions into non
aqueous solvents
A. Methods of investigation
B. The data
C. Interpretation
VI. Preferential ion solvation in mixed solvents
VII. References
4. Adsorption isotherms and the structure of oil /water interface /V. S. Markin and A. G. Volkov
I. Introduction
II. Surface solution
1. Equilibrium electric potential between two immiscible electrolyte solutions /T. Kakiuchi
I. Distribution potential
A. Phase
boundary potential
B. Distribution potential at ITIES
1. Nernst equation
2. Standard ion transfer potential
3. Calculation of distribution potential
4. Distribution potential in the presence of ion pair formation and complex formation reactions
5. Distribution of potential
6. Distribution potential in small systems
II. Polarizability of the liquid
liquid interface
III. Nonpolarized ITIES and reference potentials in organic phases
IV. Free energy of coupling of ion transfer and electron transfer
1. Mixed potential determined by electron transfer and ion transfer at ITIES
2. Partition of indifferent electrolyte ions
3. Relative strength of ion transfer and electron transfer
V. Conclusions
VI. References
2. Volta and surface potentials at liquid /liquid interfaces /Z. Koczorowski
I. Introduction
II. Electrified liquid /liquid interfaces and their electrical potentials
III. Volta potential and voltaic cells
IV. Voltaic cells with water /nonpolar liquid interfaces
V. Voltaic cells with immiscible electrolyte solution interface
VI. Experimental methods of investigation of voltaic cells
VII. Final remarks
VIII. References
3. Ion solvation /Y. Marcus
I. Introduction
II. The relevant properties of ions
III. The relevant properties of solvents
IV. Quantities describing ionic hydration
A. Thermodynamics of ion hydration
B. Methods of investigation
C. Other properties relevant to ion hydration
D. The data
E. Interpretation
V. Transfer of ions into non
aqueous solvents
A. Methods of investigation
B. The data
C. Interpretation
VI. Preferential ion solvation in mixed solvents
VII. References
4. Adsorption isotherms and the structure of oil /water interface /V. S. Markin and A. G. Volkov
I. Introduction
II. Surface solution
I. Distribution potential
A. Phase
boundary potential
B. Distribution potential at ITIES
1. Nernst equation
2. Standard ion transfer potential
3. Calculation of distribution potential
4. Distribution potential in the presence of ion pair formation and complex formation reactions
5. Distribution of potential
6. Distribution potential in small systems
II. Polarizability of the liquid
liquid interface
III. Nonpolarized ITIES and reference potentials in organic phases
IV. Free energy of coupling of ion transfer and electron transfer
1. Mixed potential determined by electron transfer and ion transfer at ITIES
2. Partition of indifferent electrolyte ions
3. Relative strength of ion transfer and electron transfer
V. Conclusions
VI. References
2. Volta and surface potentials at liquid /liquid interfaces /Z. Koczorowski
I. Introduction
II. Electrified liquid /liquid interfaces and their electrical potentials
III. Volta potential and voltaic cells
IV. Voltaic cells with water /nonpolar liquid interfaces
V. Voltaic cells with immiscible electrolyte solution interface
VI. Experimental methods of investigation of voltaic cells
VII. Final remarks
VIII. References
3. Ion solvation /Y. Marcus
I. Introduction
II. The relevant properties of ions
III. The relevant properties of solvents
IV. Quantities describing ionic hydration
A. Thermodynamics of ion hydration
B. Methods of investigation
C. Other properties relevant to ion hydration
D. The data
E. Interpretation
V. Transfer of ions into non
aqueous solvents
A. Methods of investigation
B. The data
C. Interpretation
VI. Preferential ion solvation in mixed solvents
VII. References
4. Adsorption isotherms and the structure of oil /water interface /V. S. Markin and A. G. Volkov
I. Introduction
II. Surface solution