Proteins at solid-liquid interfaces:
Gespeichert in:
Weitere Verfasser: | |
---|---|
Format: | Buch |
Sprache: | English |
Veröffentlicht: |
Berlin [u.a.]
Springer
2006
|
Schriftenreihe: | Principles and Practice
|
Schlagworte: | |
Online-Zugang: | http://deposit.dnb.de/cgi-bin/dokserv?id=2789681&prov=M&dokv̲ar=1&doke̲xt=htm Inhaltstext Inhaltsverzeichnis |
Beschreibung: | XV, 330 S. Ill., graph. Darst. 235 mm x 155 mm |
ISBN: | 354032657X 9783540326571 |
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245 | 1 | 0 | |a Proteins at solid-liquid interfaces |c Philippe Déjardin (ed.) |
264 | 1 | |a Berlin [u.a.] |b Springer |c 2006 | |
300 | |a XV, 330 S. |b Ill., graph. Darst. |c 235 mm x 155 mm | ||
336 | |b txt |2 rdacontent | ||
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338 | |b nc |2 rdacarrier | ||
490 | 0 | |a Principles and Practice | |
650 | 4 | |a Absorption |x physiology | |
650 | 4 | |a Adsorption | |
650 | 4 | |a Protein Conformation | |
650 | 4 | |a Proteins | |
650 | 4 | |a Proteins |x pharmacokinetics | |
650 | 4 | |a Solid-liquid interfaces | |
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adam_text | CONTENTS
PART I ANALYSIS OF THE ADSORPTION KINETICS
1 PROTEIN ADSORPTION KINETICS:
INFLUENCE OF SUBSTRATE ELECTRIC POTENTIAL 1
PAUL R. VAN TASSEL
1.1 INTRODUCTION
.................................................................. 1
1.2 THEORETICAL
PREDICTION..................................................... 2
1.3 EXPERIMENTAL
MEASURE..................................................... 6
1.3.1 OWLS PRINCIPLES..................................................
6
1.3.2 OWLS EXPERIMENTS .............................................. 8
1.4 RESULTS
..........................................................................
9
1.5
DISCUSSION.....................................................................
17
1.5.1 SURFACE-BOUND COUNTERIONS................................... 19
1.5.2 LOCAL PH
EFFECTS................................................... 20
1.5.3 SOLVENT INTERFACIAL STRUCTURE ..................................
20
1.5.4 PROTEIN CHARGE HETEROGENEITY ................................ 20
1.6 CONCLUSIONS
................................................................... 21
REFERENCES
.............................................................................
21
2 FROM KINETICS TO STRUCTURE: HIGH RESOLUTION MOLECULAR MICROSCOPY 23
JEREMY J. RAMSDEN
2.1 INTRODUCTION
.................................................................. 23
2.2 OPTICAL WAVEGUIDE LIGHTMODE SPECTROSCOPY....................... 25
2.2.1 PRINCIPLES OF OPTICAL BIOSENSING ............................. 27
2.2.2 MODE EQUATIONS FOR OWLS .................................... 28
2.2.3 THE UNIFORM THIN FILM APPROXIMATION (UTFA) ....... 30
2.2.4 OPTICAL
INVARIANTS................................................. 31
2.3 THE PRACTICAL DETERMINATION OF WAVEGUIDE PARAMETERS ........ 34
2.3.1 DEVICE FABRICATION ...............................................
35
2.3.2 FLUID HANDLING ARRANGEMENTS................................ 36
2.4 STATIC
STRUCTURE...............................................................
37
2.5 KINETIC ANALYSIS AND DYNAMIC STRUCTURAL INFERENCE ............. 37
2.5.1 PARTICLE TRANSPORT
................................................ 37
VIII CONTENTS
2.5.2 THE CHEMICAL ADSORPTION COEFFICIENT...................... 40
2.5.3 THE ANALYSIS OF THE AVAILABLE AREA FUNCTION............ 41
2.6 BEHAVIOUR OF REAL PROTEINS
............................................... 43
2.6.1 EVALUATION OF LATERAL DIFFUSIVITY
AND 2D CRYSTAL UNIT CELL SIZE ................................. 44
2.6.2
DESORPTION.......................................................... 45
2.6.3
MULTILAYERS.......................................................... 46
2.7 CONCLUSIONS
................................................................... 47
REFERENCES
.............................................................................
48
3 INITIAL ADSORPTION KINETICS IN A RECTANGULAR THIN CHANNEL,
AND COVERAGE-DEPENDENT STRUCTURAL TRANSITION OBSERVED
BY STREAMING POTENTIAL 51
PHILIPPE DEJARDIN, ELENA N. VASINA
3.1 INTRODUCTION
.................................................................. 51
3.2 THE INITIAL ADSORPTION CONSTANT AND ITS LIMIT EXPRESSIONS.... 56
3.2.1 THE LOCAL INITIAL ADSORPTION CONSTANT
K
(
X
),
ITS LIMIT EXPRESSIONS AND APPROXIMATION................. 56
3.2.2 THE MEAN ADSORPTION CONSTANT,
ITS LIMIT EXPRESSIONS AND APPROXIMATION................. 59
3.2.3 EXPERIMENTAL RESULTS AND DISCUSSION...................... 61
3.3 THE STRUCTURAL TRANSITION WITH INCREASING
INTERFACIAL
CONCENTRATION................................................. 63
3.3.1 OBSERVATION BY STREAMING POTENTIAL........................ 64
3.3.2 DIFFERENT MODELS
.................................................. 66
3.4 CONCLUSION
.................................................................... 67
APPENDIX...............................................................................
68
REFERENCES
.............................................................................
69
PART II ANALYSIS OF THE STRUCTURE AT THE INTERFACE
4 DUAL POLARISATION INTERFEROMETRY: AN OPTICAL TECHNIQUE
TO MEASURE THE ORIENTATION AND STRUCTURE OF PROTEINS
AT THE SOLID*LIQUID INTERFACE IN REAL TIME 75
NEVILLE FREEMAN
4.1 INTRODUCTION
.................................................................. 75
4.2 EXPERIMENTAL APPROACHES ADOPTED ...................................
79
4.2.1 TYPICAL APPROACH ADOPTED .................................... 79
4.2.2 EXPERIMENTAL PROTOCOLS .........................................
79
4.2.3
ADVANTAGES.......................................................... 79
4.2.4 VERIFYING DPI AS AN EXPERIMENTAL APPROACH ............ 80
CONTENTS IX
4.3 DPI:
APPLICATIONS............................................................
80
4.3.1
INTRODUCTION........................................................ 80
4.3.2 PROTEIN ORIENTATION ..............................................
81
4.3.3 BOVINE SERUM ALBUMIN STRUCTURES
AT PH 3 AND PH 7 .................................................. 82
4.3.4 PROTEIN ORIENTATION AND SUBSEQUENT ACTIVITY............ 83
4.3.5 PROTEIN STRUCTURE AND SMALL MOLECULE INTERACTIONS.... 87
4.3.6 PROTEIN STRUCTURE AND METAL ION INTERACTIONS............ 90
4.4 FUTURE DEVELOPMENTS
...................................................... 91
4.5 CONCLUSIONS
................................................................... 93
APPENDIX 1 DPI: BACKGROUND
................................................... 93
A.1.1 NEUTRON REFLECTION ...............................................
93
A.1.2 SURFACE PLASMON RESONANCE ................................... 94
APPENDIX 2 DPI: THEORY
.......................................................... 95
APPENDIX 3 DPI:
IMPLEMENTATION.............................................. 99
A.3.1 HARDWARE........................
.................................... 99
A.3.2 DATA
ANALYSIS....................................................... 101
REFERENCES
.............................................................................
102
5 TOTAL INTERNAL REFLECTION ELLIPSOMETRY:
MONITORING OF PROTEINS ON THIN METAL FILMS 105
MICHAL POKSINSKI, HANS ARWIN
5.1 INTRODUCTION
.................................................................. 105
5.2 TOTAL INTERNAL REFLECTION
ELLIPSOMETRY................................ 106
5.3 EXPERIMENTAL
SETUP......................................................... 110
5.4 APPLICATION
EXAMPLES...................................................... 113
5.5 FURTHER POSSIBILITIES
........................................................ 117
REFERENCES
.............................................................................
118
6 CONFORMATIONS OF PROTEINS ADSORBED AT LIQUID*SOLID INTERFACES 119
SYLVIE NOINVILLE, MADELEINE REVAULT
6.1 INTRODUCTION
.................................................................. 119
6.2 EXPERIMENTAL
TECHNIQUES................................................. 125
6.2.1 HIGH-RESOLUTION STRUCTURE OF PROTEINS..................... 125
6.2.2 SECONDARY STRUCTURE OF PROTEINS ............................. 126
6.2.3 ORIENTATION, LOCALISED STRUCTURAL INFORMATION .......... 127
6.2.4 SPATIAL DISTRIBUTION OF PROTEINS
IN THE ADSORBED LAYER........................................... 128
6.2.5 SOLVATION INFORMATION...........................................
129
6.3 SURFACE EFFECTS ON BOTH PROTEIN STRUCTURE
AND SOLVATION BY THE ATR-FTIR TECHNIQUE.......................... 130
6.3.1 FTIR SPECTRAL ANALYSIS..........................................
130
XC
O
N
T
E
N
T
S
6.3.2 PROTEINS IN SOLUTION..............................................
132
6.3.3 SURFACE-INDUCED CONFORMATIONAL CHANGES
OF A SOFT PROTEIN: BSA............................................ 134
6.3.4 SURFACE-INDUCED CONFORMATIONAL CHANGES
OF A HARD PROTEIN: LYSOZYME .................................. 138
6.3.5 FOLDING OR UNFOLDING OF PROTEINS
ON HYDROPHOBIC SUPPORTS....................................... 141
6.4 CONCLUSION
.................................................................... 142
REFERENCES
.............................................................................
142
7 EVALUATION OF PROTEINS ON BIO-DEVICES 151
SATOKA AOYAGI, MASAHIRO KUDO
7.1 INTRODUCTION
.................................................................. 151
7.2 TIME-OF-FLIGHT SECONDARY ION MASS SPECTROMETRY
(TOF-SIMS)
................................................................... 153
7.2.1 PRINCIPLES OF TOF-SIMS.........................................
153
7.2.2 TOF-SIMS SPECTRA AND SECONDARY-ION IMAGES.......... 156
7.2.3 DATA
ANALYSIS....................................................... 157
7.3 ANALYSIS OF PROTEINS ON BIO-DEVICES
................................... 161
7.3.1 CHARACTERIZATION OF PROTEINS ON SUBSTRATES ............... 161
7.3.2 INVESTIGATION OF CONFORMATION AND ORIENTATION
OF PROTEINS ON SUBSTRATES....................................... 164
7.3.3 IMAGING OF PROTEIN DISTRIBUTION ............................. 165
7.3.4 OTHER POINTS AND FUTURE DIRECTIONS......................... 168
7.4
SUMMARY.......................................................................
169
REFERENCES
.............................................................................
169
PART III SOME APPLICATIONS
8 FIBRONECTIN AT POLYMER SURFACES WITH GRADUATED CHARACTERISTICS 175
TILO POMPE, LARS RENNER, CARSTEN WERNER
8.1 INTRODUCTION
.................................................................. 175
8.2 GRADATED SUBSTRATE PHYSICOCHEMISTRY ................................
177
8.3 FIBRONECTIN EXCHANGE AT A CONSTANT SURFACE CONCENTRATION... 181
8.4 FIBRONECTIN EXCHANGE AT VARIABLE SURFACE CONCENTRATIONS..... 188
8.5 RELEVANCE OF THE INTERFACIAL CONSTRAINTS
OF FIBRONECTIN FOR CELL-MATRIX ADHESION............................. 195
REFERENCES
.............................................................................
197
CONTENTS XI
9 DEVELOPMENT OF CHEMICAL MICROREACTORS
BY ENZYME IMMOBILIZATION ONTO TEXTILES 199
CHRISTOPHE INNOCENT, PATRICK SETA
9.1 INTRODUCTION
.................................................................. 199
9.2 NONCONDUCTING CELLULOSIC
TEXTILES..................................... 201
9.2.1 PEPSIN AND TRYPSIN IMMOBILIZATION ON COTTON.......... 201
9.2.2 IMMOBILIZATION OF URICASE AND XANTHINE OXIDASE
ON ION-EXCHANGING TEXTILES.................................... 211
9.2.3 UREASE ELECTRODIALYSIS COUPLING ............................. 223
9.3 ELECTRON-CONDUCTING
TEXTILE............................................. 227
9.3.1 ENZYME IMMOBILIZATION ON CARBON FELT .................. 227
9.3.2 ELECTROCATALYSIS COUPLING WITH ENZYME-CONDUCTING
TEXTILE CATALYTIC REACTIVITY .................................... 238
REFERENCES
.............................................................................
242
10 APPROACHES TO PROTEIN RESISTANCE ON THE POLYACRYLONITRILE-BASED
MEMBRANE SURFACE: AN OVERVIEW 245
LING-SHU WAN, ZHI-KANG XU, XIAO-JUN HUANG
10.1 INTRODUCTION
.................................................................. 245
10.2 COPOLYMERIZATION
PROCEDURES........................................... 246
10.3 POLY(ETHYLENE GLYCOL) TETHERING
......................................... 252
10.4 PHYSICAL
ADSORPTION........................................................ 257
10.5 BIOMACROMOLECULE IMMOBILIZATION....................................
259
10.6 BIOMIMETIC MODIFICATION
................................................. 263
10.7 CONCLUSION
.................................................................... 266
REFERENCES
.............................................................................
268
11 MODULATION OF THE ADSORPTION AND ACTIVITY OF PROTEIN/ENZYME
ON THE POLYPROPYLENE MICROPOROUS MEMBRANE SURFACE
BY SURFACE MODIFICATION 271
QIAN YANG, ZHI-KANG XU, ZHENG-WEI DAI
11.1 SURFACE MODIFICATIONS FOR REDUCING NONSPECIFIC
PROTEIN ADSORPTION
......................................................... 271
11.1.1 PLASMA TREATMENT.................................................
273
11.1.2 ULTRAVIOLET (UV) MODIFICATION................................ 276
11.1.3
*
-RAY-INDUCED MODIFICATION .................................. 282
11.1.4 OZONE METHOD.....................................................
285
11.2 SURFACE-MODIFIED PPMMS FOR ENZYME IMMOBILIZATION ......... 286
11.2.1 PHYSICAL ADSORPTION/ENTRAPMENT............................ 287
11.2.2 COVALENT
BINDING.................................................. 289
11.2.3 SITE-SPECIFIC IMMOBILIZATION ..................................
294
11.3 CONCLUSIONS
................................................................... 295
REFERENCES
.............................................................................
295
XII CONTENTS
12 NONBIOFOULING SURFACES GENERATED
FROM PHOSPHORYLCHOLINE-BEARING POLYMERS 299
YASUHIKO IWASAKI, NOBUO NAKABAYASHI, KAZUHIKO ISHIHARA
12.1 INTRODUCTION
.................................................................. 299
12.2 FORCES INVOLVED IN PROTEIN
ADSORPTION............................... 300
12.3 DESIGN OF PHOSPHORYLCHOLINE-BEARING SURFACES ...................
302
12.4 MECHANISM OF RESISTANCE TO PROTEIN ADSORPTION
ON THE MPC POLYMER SURFACE............................................
303
12.5 FUNDAMENTAL INTERACTIONS BETWEEN MPC POLYMERS
AND
PROTEINS...................................................................
310
12.6 RECENT DESIGNS OF NONFOULING PHOSPHORYLCHOLINE
SURFACES WITH WELL-DEFINED STRUCTURES ...............................
312
12.7 CONTROL OF CELL*MATERIAL INTERACTIONS
ON A PHOSPHORYLCHOLINE POLYMER NONFOULING SURFACE........... 314
12.7.1 CELL MANIPULATION ON A WELL-DEFINED
PHOSPHORYLCHOLINE POLYMER BRUSH.......................... 315
12.7.2 SELECTIVE CELL ATTACHMENT
TO A BIOMIMETIC POLYMER SURFACE
THROUGH THE RECOGNITION OF CELL-SURFACE TAGS .......... 318
12.8 CONCLUSION
.................................................................... 321
REFERENCES
.............................................................................
321
SUBJECT INDEX 327
|
adam_txt |
CONTENTS
PART I ANALYSIS OF THE ADSORPTION KINETICS
1 PROTEIN ADSORPTION KINETICS:
INFLUENCE OF SUBSTRATE ELECTRIC POTENTIAL 1
PAUL R. VAN TASSEL
1.1 INTRODUCTION
. 1
1.2 THEORETICAL
PREDICTION. 2
1.3 EXPERIMENTAL
MEASURE. 6
1.3.1 OWLS PRINCIPLES.
6
1.3.2 OWLS EXPERIMENTS . 8
1.4 RESULTS
.
9
1.5
DISCUSSION.
17
1.5.1 SURFACE-BOUND COUNTERIONS. 19
1.5.2 LOCAL PH
EFFECTS. 20
1.5.3 SOLVENT INTERFACIAL STRUCTURE .
20
1.5.4 PROTEIN CHARGE HETEROGENEITY . 20
1.6 CONCLUSIONS
. 21
REFERENCES
.
21
2 FROM KINETICS TO STRUCTURE: HIGH RESOLUTION MOLECULAR MICROSCOPY 23
JEREMY J. RAMSDEN
2.1 INTRODUCTION
. 23
2.2 OPTICAL WAVEGUIDE LIGHTMODE SPECTROSCOPY. 25
2.2.1 PRINCIPLES OF OPTICAL BIOSENSING . 27
2.2.2 MODE EQUATIONS FOR OWLS . 28
2.2.3 THE UNIFORM THIN FILM APPROXIMATION (UTFA) . 30
2.2.4 OPTICAL
INVARIANTS. 31
2.3 THE PRACTICAL DETERMINATION OF WAVEGUIDE PARAMETERS . 34
2.3.1 DEVICE FABRICATION .
35
2.3.2 FLUID HANDLING ARRANGEMENTS. 36
2.4 STATIC
STRUCTURE.
37
2.5 KINETIC ANALYSIS AND DYNAMIC STRUCTURAL INFERENCE . 37
2.5.1 PARTICLE TRANSPORT
. 37
VIII CONTENTS
2.5.2 THE CHEMICAL ADSORPTION COEFFICIENT. 40
2.5.3 THE ANALYSIS OF THE AVAILABLE AREA FUNCTION. 41
2.6 BEHAVIOUR OF REAL PROTEINS
. 43
2.6.1 EVALUATION OF LATERAL DIFFUSIVITY
AND 2D CRYSTAL UNIT CELL SIZE . 44
2.6.2
DESORPTION. 45
2.6.3
MULTILAYERS. 46
2.7 CONCLUSIONS
. 47
REFERENCES
.
48
3 INITIAL ADSORPTION KINETICS IN A RECTANGULAR THIN CHANNEL,
AND COVERAGE-DEPENDENT STRUCTURAL TRANSITION OBSERVED
BY STREAMING POTENTIAL 51
PHILIPPE DEJARDIN, ELENA N. VASINA
3.1 INTRODUCTION
. 51
3.2 THE INITIAL ADSORPTION CONSTANT AND ITS LIMIT EXPRESSIONS. 56
3.2.1 THE LOCAL INITIAL ADSORPTION CONSTANT
K
(
X
),
ITS LIMIT EXPRESSIONS AND APPROXIMATION. 56
3.2.2 THE MEAN ADSORPTION CONSTANT,
ITS LIMIT EXPRESSIONS AND APPROXIMATION. 59
3.2.3 EXPERIMENTAL RESULTS AND DISCUSSION. 61
3.3 THE STRUCTURAL TRANSITION WITH INCREASING
INTERFACIAL
CONCENTRATION. 63
3.3.1 OBSERVATION BY STREAMING POTENTIAL. 64
3.3.2 DIFFERENT MODELS
. 66
3.4 CONCLUSION
. 67
APPENDIX.
68
REFERENCES
.
69
PART II ANALYSIS OF THE STRUCTURE AT THE INTERFACE
4 DUAL POLARISATION INTERFEROMETRY: AN OPTICAL TECHNIQUE
TO MEASURE THE ORIENTATION AND STRUCTURE OF PROTEINS
AT THE SOLID*LIQUID INTERFACE IN REAL TIME 75
NEVILLE FREEMAN
4.1 INTRODUCTION
. 75
4.2 EXPERIMENTAL APPROACHES ADOPTED .
79
4.2.1 TYPICAL APPROACH ADOPTED . 79
4.2.2 EXPERIMENTAL PROTOCOLS .
79
4.2.3
ADVANTAGES. 79
4.2.4 VERIFYING DPI AS AN EXPERIMENTAL APPROACH . 80
CONTENTS IX
4.3 DPI:
APPLICATIONS.
80
4.3.1
INTRODUCTION. 80
4.3.2 PROTEIN ORIENTATION .
81
4.3.3 BOVINE SERUM ALBUMIN STRUCTURES
AT PH 3 AND PH 7 . 82
4.3.4 PROTEIN ORIENTATION AND SUBSEQUENT ACTIVITY. 83
4.3.5 PROTEIN STRUCTURE AND SMALL MOLECULE INTERACTIONS. 87
4.3.6 PROTEIN STRUCTURE AND METAL ION INTERACTIONS. 90
4.4 FUTURE DEVELOPMENTS
. 91
4.5 CONCLUSIONS
. 93
APPENDIX 1 DPI: BACKGROUND
. 93
A.1.1 NEUTRON REFLECTION .
93
A.1.2 SURFACE PLASMON RESONANCE . 94
APPENDIX 2 DPI: THEORY
. 95
APPENDIX 3 DPI:
IMPLEMENTATION. 99
A.3.1 HARDWARE.
. 99
A.3.2 DATA
ANALYSIS. 101
REFERENCES
.
102
5 TOTAL INTERNAL REFLECTION ELLIPSOMETRY:
MONITORING OF PROTEINS ON THIN METAL FILMS 105
MICHAL POKSINSKI, HANS ARWIN
5.1 INTRODUCTION
. 105
5.2 TOTAL INTERNAL REFLECTION
ELLIPSOMETRY. 106
5.3 EXPERIMENTAL
SETUP. 110
5.4 APPLICATION
EXAMPLES. 113
5.5 FURTHER POSSIBILITIES
. 117
REFERENCES
.
118
6 CONFORMATIONS OF PROTEINS ADSORBED AT LIQUID*SOLID INTERFACES 119
SYLVIE NOINVILLE, MADELEINE REVAULT
6.1 INTRODUCTION
. 119
6.2 EXPERIMENTAL
TECHNIQUES. 125
6.2.1 HIGH-RESOLUTION STRUCTURE OF PROTEINS. 125
6.2.2 SECONDARY STRUCTURE OF PROTEINS . 126
6.2.3 ORIENTATION, LOCALISED STRUCTURAL INFORMATION . 127
6.2.4 SPATIAL DISTRIBUTION OF PROTEINS
IN THE ADSORBED LAYER. 128
6.2.5 SOLVATION INFORMATION.
129
6.3 SURFACE EFFECTS ON BOTH PROTEIN STRUCTURE
AND SOLVATION BY THE ATR-FTIR TECHNIQUE. 130
6.3.1 FTIR SPECTRAL ANALYSIS.
130
XC
O
N
T
E
N
T
S
6.3.2 PROTEINS IN SOLUTION.
132
6.3.3 SURFACE-INDUCED CONFORMATIONAL CHANGES
OF A SOFT PROTEIN: BSA. 134
6.3.4 SURFACE-INDUCED CONFORMATIONAL CHANGES
OF A HARD PROTEIN: LYSOZYME . 138
6.3.5 FOLDING OR UNFOLDING OF PROTEINS
ON HYDROPHOBIC SUPPORTS. 141
6.4 CONCLUSION
. 142
REFERENCES
.
142
7 EVALUATION OF PROTEINS ON BIO-DEVICES 151
SATOKA AOYAGI, MASAHIRO KUDO
7.1 INTRODUCTION
. 151
7.2 TIME-OF-FLIGHT SECONDARY ION MASS SPECTROMETRY
(TOF-SIMS)
. 153
7.2.1 PRINCIPLES OF TOF-SIMS.
153
7.2.2 TOF-SIMS SPECTRA AND SECONDARY-ION IMAGES. 156
7.2.3 DATA
ANALYSIS. 157
7.3 ANALYSIS OF PROTEINS ON BIO-DEVICES
. 161
7.3.1 CHARACTERIZATION OF PROTEINS ON SUBSTRATES . 161
7.3.2 INVESTIGATION OF CONFORMATION AND ORIENTATION
OF PROTEINS ON SUBSTRATES. 164
7.3.3 IMAGING OF PROTEIN DISTRIBUTION . 165
7.3.4 OTHER POINTS AND FUTURE DIRECTIONS. 168
7.4
SUMMARY.
169
REFERENCES
.
169
PART III SOME APPLICATIONS
8 FIBRONECTIN AT POLYMER SURFACES WITH GRADUATED CHARACTERISTICS 175
TILO POMPE, LARS RENNER, CARSTEN WERNER
8.1 INTRODUCTION
. 175
8.2 GRADATED SUBSTRATE PHYSICOCHEMISTRY .
177
8.3 FIBRONECTIN EXCHANGE AT A CONSTANT SURFACE CONCENTRATION. 181
8.4 FIBRONECTIN EXCHANGE AT VARIABLE SURFACE CONCENTRATIONS. 188
8.5 RELEVANCE OF THE INTERFACIAL CONSTRAINTS
OF FIBRONECTIN FOR CELL-MATRIX ADHESION. 195
REFERENCES
.
197
CONTENTS XI
9 DEVELOPMENT OF CHEMICAL MICROREACTORS
BY ENZYME IMMOBILIZATION ONTO TEXTILES 199
CHRISTOPHE INNOCENT, PATRICK SETA
9.1 INTRODUCTION
. 199
9.2 NONCONDUCTING CELLULOSIC
TEXTILES. 201
9.2.1 PEPSIN AND TRYPSIN IMMOBILIZATION ON COTTON. 201
9.2.2 IMMOBILIZATION OF URICASE AND XANTHINE OXIDASE
ON ION-EXCHANGING TEXTILES. 211
9.2.3 UREASE ELECTRODIALYSIS COUPLING . 223
9.3 ELECTRON-CONDUCTING
TEXTILE. 227
9.3.1 ENZYME IMMOBILIZATION ON CARBON FELT . 227
9.3.2 ELECTROCATALYSIS COUPLING WITH ENZYME-CONDUCTING
TEXTILE CATALYTIC REACTIVITY . 238
REFERENCES
.
242
10 APPROACHES TO PROTEIN RESISTANCE ON THE POLYACRYLONITRILE-BASED
MEMBRANE SURFACE: AN OVERVIEW 245
LING-SHU WAN, ZHI-KANG XU, XIAO-JUN HUANG
10.1 INTRODUCTION
. 245
10.2 COPOLYMERIZATION
PROCEDURES. 246
10.3 POLY(ETHYLENE GLYCOL) TETHERING
. 252
10.4 PHYSICAL
ADSORPTION. 257
10.5 BIOMACROMOLECULE IMMOBILIZATION.
259
10.6 BIOMIMETIC MODIFICATION
. 263
10.7 CONCLUSION
. 266
REFERENCES
.
268
11 MODULATION OF THE ADSORPTION AND ACTIVITY OF PROTEIN/ENZYME
ON THE POLYPROPYLENE MICROPOROUS MEMBRANE SURFACE
BY SURFACE MODIFICATION 271
QIAN YANG, ZHI-KANG XU, ZHENG-WEI DAI
11.1 SURFACE MODIFICATIONS FOR REDUCING NONSPECIFIC
PROTEIN ADSORPTION
. 271
11.1.1 PLASMA TREATMENT.
273
11.1.2 ULTRAVIOLET (UV) MODIFICATION. 276
11.1.3
*
-RAY-INDUCED MODIFICATION . 282
11.1.4 OZONE METHOD.
285
11.2 SURFACE-MODIFIED PPMMS FOR ENZYME IMMOBILIZATION . 286
11.2.1 PHYSICAL ADSORPTION/ENTRAPMENT. 287
11.2.2 COVALENT
BINDING. 289
11.2.3 SITE-SPECIFIC IMMOBILIZATION .
294
11.3 CONCLUSIONS
. 295
REFERENCES
.
295
XII CONTENTS
12 NONBIOFOULING SURFACES GENERATED
FROM PHOSPHORYLCHOLINE-BEARING POLYMERS 299
YASUHIKO IWASAKI, NOBUO NAKABAYASHI, KAZUHIKO ISHIHARA
12.1 INTRODUCTION
. 299
12.2 FORCES INVOLVED IN PROTEIN
ADSORPTION. 300
12.3 DESIGN OF PHOSPHORYLCHOLINE-BEARING SURFACES .
302
12.4 MECHANISM OF RESISTANCE TO PROTEIN ADSORPTION
ON THE MPC POLYMER SURFACE.
303
12.5 FUNDAMENTAL INTERACTIONS BETWEEN MPC POLYMERS
AND
PROTEINS.
310
12.6 RECENT DESIGNS OF NONFOULING PHOSPHORYLCHOLINE
SURFACES WITH WELL-DEFINED STRUCTURES .
312
12.7 CONTROL OF CELL*MATERIAL INTERACTIONS
ON A PHOSPHORYLCHOLINE POLYMER NONFOULING SURFACE. 314
12.7.1 CELL MANIPULATION ON A WELL-DEFINED
PHOSPHORYLCHOLINE POLYMER BRUSH. 315
12.7.2 SELECTIVE CELL ATTACHMENT
TO A BIOMIMETIC POLYMER SURFACE
THROUGH THE RECOGNITION OF CELL-SURFACE TAGS . 318
12.8 CONCLUSION
. 321
REFERENCES
.
321
SUBJECT INDEX 327 |
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any_adam_object_boolean | 1 |
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author2_role | edt |
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author_facet | Déjardin, Philippe |
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id | DE-604.BV021728833 |
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index_date | 2024-07-02T15:25:42Z |
indexdate | 2024-07-09T20:42:40Z |
institution | BVB |
isbn | 354032657X 9783540326571 |
language | English |
oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-014942374 |
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physical | XV, 330 S. Ill., graph. Darst. 235 mm x 155 mm |
publishDate | 2006 |
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publisher | Springer |
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series2 | Principles and Practice |
spelling | Proteins at solid-liquid interfaces Philippe Déjardin (ed.) Berlin [u.a.] Springer 2006 XV, 330 S. Ill., graph. Darst. 235 mm x 155 mm txt rdacontent n rdamedia nc rdacarrier Principles and Practice Absorption physiology Adsorption Protein Conformation Proteins Proteins pharmacokinetics Solid-liquid interfaces Proteine (DE-588)4076388-2 gnd rswk-swf Flüssigkeit (DE-588)4017621-6 gnd rswk-swf Adsorption (DE-588)4000536-7 gnd rswk-swf Festkörper (DE-588)4016918-2 gnd rswk-swf Grenzfläche (DE-588)4021991-4 gnd rswk-swf (DE-588)4143413-4 Aufsatzsammlung gnd-content Grenzfläche (DE-588)4021991-4 s Festkörper (DE-588)4016918-2 s Flüssigkeit (DE-588)4017621-6 s Proteine (DE-588)4076388-2 s Adsorption (DE-588)4000536-7 s DE-604 Déjardin, Philippe edt http://deposit.dnb.de/cgi-bin/dokserv?id=2789681&prov=M&dokv̲ar=1&doke̲xt=htm text/html http://deposit.dnb.de/cgi-bin/dokserv?id=2789681&prov=M&dok_var=1&dok_ext=htm Inhaltstext DNB Datenaustausch application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=014942374&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
spellingShingle | Proteins at solid-liquid interfaces Absorption physiology Adsorption Protein Conformation Proteins Proteins pharmacokinetics Solid-liquid interfaces Proteine (DE-588)4076388-2 gnd Flüssigkeit (DE-588)4017621-6 gnd Adsorption (DE-588)4000536-7 gnd Festkörper (DE-588)4016918-2 gnd Grenzfläche (DE-588)4021991-4 gnd |
subject_GND | (DE-588)4076388-2 (DE-588)4017621-6 (DE-588)4000536-7 (DE-588)4016918-2 (DE-588)4021991-4 (DE-588)4143413-4 |
title | Proteins at solid-liquid interfaces |
title_auth | Proteins at solid-liquid interfaces |
title_exact_search | Proteins at solid-liquid interfaces |
title_exact_search_txtP | Proteins at solid-liquid interfaces |
title_full | Proteins at solid-liquid interfaces Philippe Déjardin (ed.) |
title_fullStr | Proteins at solid-liquid interfaces Philippe Déjardin (ed.) |
title_full_unstemmed | Proteins at solid-liquid interfaces Philippe Déjardin (ed.) |
title_short | Proteins at solid-liquid interfaces |
title_sort | proteins at solid liquid interfaces |
topic | Absorption physiology Adsorption Protein Conformation Proteins Proteins pharmacokinetics Solid-liquid interfaces Proteine (DE-588)4076388-2 gnd Flüssigkeit (DE-588)4017621-6 gnd Adsorption (DE-588)4000536-7 gnd Festkörper (DE-588)4016918-2 gnd Grenzfläche (DE-588)4021991-4 gnd |
topic_facet | Absorption physiology Adsorption Protein Conformation Proteins Proteins pharmacokinetics Solid-liquid interfaces Proteine Flüssigkeit Festkörper Grenzfläche Aufsatzsammlung |
url | http://deposit.dnb.de/cgi-bin/dokserv?id=2789681&prov=M&dokv̲ar=1&doke̲xt=htm http://deposit.dnb.de/cgi-bin/dokserv?id=2789681&prov=M&dok_var=1&dok_ext=htm http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=014942374&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
work_keys_str_mv | AT dejardinphilippe proteinsatsolidliquidinterfaces |