Carbon: the future material for advanced technology applications ; with ... 24 tables
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Format: | Buch |
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Sprache: | English |
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Berlin [u.a.]
Springer
2006
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Schriftenreihe: | Topics in applied physics
100 |
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Beschreibung: | XXI, 529 S. Ill., graph. Darst. |
ISBN: | 3540295313 9783540295310 |
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245 | 1 | 0 | |a Carbon |b the future material for advanced technology applications ; with ... 24 tables |c Giacomo Messina ... (eds.) |
264 | 1 | |a Berlin [u.a.] |b Springer |c 2006 | |
300 | |a XXI, 529 S. |b Ill., graph. Darst. | ||
336 | |b txt |2 rdacontent | ||
337 | |b n |2 rdamedia | ||
338 | |b nc |2 rdacarrier | ||
490 | 1 | |a Topics in applied physics |v 100 | |
650 | 4 | |a Kohlenstoff-Nanoröhre | |
650 | 4 | |a Kohlenstoffwerkstoff | |
650 | 4 | |a Carbon | |
650 | 4 | |a Carbon composites | |
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689 | 0 | 1 | |a Kohlenstoffwerkstoff |0 (DE-588)4031677-4 |D s |
689 | 0 | |5 DE-604 | |
700 | 1 | |a Messina, Giacomo |e Sonstige |4 oth | |
830 | 0 | |a Topics in applied physics |v 100 |w (DE-604)BV008007504 |9 100 | |
856 | 4 | |u http://deposit.dnb.de/cgi-bin/dokserv?id=2687151&prov=M&dok_var=1&dok_ext=htm |x Verlag |3 Inhaltstext | |
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999 | |a oai:aleph.bib-bvb.de:BVB01-015408183 |
Datensatz im Suchindex
_version_ | 1804136171621580800 |
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adam_text | Contents
Aid of Scaling Laws in the Achievement of a Well-
Cont
rolled
Film Deposition Process
Giacomo
Messina, Saveria Santangelo
............................. 1
A Spectroscopie
Approach to Carbon Materials for Energy
Storage
Giuseppe Zerbi, Matteo
Tommasini,
Andrea
Centrone,
Luigi Brambilla, Chiara Castiglioni
............................... 23
1
Introduction................................................
23
1.1
Carbon-Based
Materials
................................. 24
2
Prototypical Lattices in Three, Two and One Dimensions
......... 26
2.1
Diamond
.............................................. 26
2.2
Graphite
............................................... 28
2.3
Polyacetylene
.......................................... 29
2.4
Polyynes
............................................... 32
3
A Spectroscopie
Approach to Disordered Carbon Materials
....... 33
3.1
ID Systems
-
Saturated Carbon Materials
................. 33
3.2
Polyconjugated Polymers
................................ 34
3.3
2D sp2 Systems
......................................... 35
4
Edge Effects in Graphitic Domains for Structure Diagnosis
....... 36
5
Approaching the Structure of Carbonaceous Materials by
Vibrational Spectroscopy: Imagination and Reality
.............. 41
5.1
Carbon-Based Materials for Hydrogen Storage
.............. 44
6
Conclusions
................................................. 47
References
..................................................... 48
Index
.......................................................... 52
Biocompatibility, Cytotoxicity and Bioactivity of Amorphous
Carbon Films
Sandra E.
Rodil,
René
Olivares,
Higinio Arzate, Stephen Muhl
....... 55
1
Introduction
................................................ 55
2
Experimental Details
........................................ 58
2.1
Film Deposition
........................................ 58
2.2
Film Characterization
................................... 58
2.3
Cell Preparation
........................................ 59
XIV Contents
2.4 Cytotoxicity Test....................................... 59
2.5 Bioactivity............................................. 60
2.5.1
Morphological Assay...............................
60
2.5.2 Protein
Synthesis..................................
60
3
Results
.....................................................
62
3.1
Film Properties
......................................... 62
3.2
Cytotoxicity
........................................... 64
3.3
Bioactivity
............................................. 65
3.3.1
Morphological Analysis
............................ 65
3.3.2
Proteins
.......................................... 65
4
Discussion
.................................................. 71
References
..................................................... 73
Index
.......................................................... 75
Characterisation of the Growth Mechanism during PECVD
of Multiwalled Carbon Nanotubes
Martin S. Bell,
Rodrigo
G.
Lacerda,
Kenneth
В.К. Тео,
William I. Milne
................................................ 77
1
Introduction
................................................ 77
2
Production of Carbon Nanotubes
.............................. 82
3
Plasma Composition during PECVD
........................... 84
4
Characterisation of the Growth Mechanism
..................... 85
5
Conclusion
................................................. 89
References
..................................................... 90
Index
.......................................................... 92
Correlation Between Local Structure and Film Properties
in Amorphous Carbon Materials
Giovanni Fanchini, Alberto
Tagliaferro
............................ 95
1
Introduction
................................................ 95
2
Electronic States in Carbon
................................... 95
3
Hybridisation and Local Structure
............................. 96
4
The Various Forms of Amorphous Carbon
...................... 97
5
Phase Matching and Its Effects on Materials
.................... 99
6
Optoelectronic and Mechanical Properties
......................102
7
Conclusion
.................................................103
References
.....................................................104
Index
..........................................................104
Defects in CVD Diamond Films from Their Response
as Nuclear Detectors
Marco
Mannelli,
Enrico
Milani, Aldo Tucciarone, Gianluca
Verona
Rinati
.........................................................107
1
Introduction
................................................107
2
CVD Diamond Nuclear Detectors: Realization and Physics
.......108
Contents
XV
3
Analysis of the Charge Collection Spectrum
....................
Ill
3.1
Qualitative Analysis
....................................
Ill
3.2
Quantitative Analysis: The General Model
.................115
3.3
The Use of Detector Thickness
...........................117
3.4
The Use of Penetration Depth
............................119
4
Time-Domain Analysis
.......................................123
4.1
The Background
........................................123
4.2
Qualitative Analysis
....................................125
4.3
Quantitative Analysis: Computer Simulation
...............126
5
Temperature Effects: Depumping
..............................129
6
Conclusion
.................................................133
References
.....................................................133
Index
..........................................................135
Effects of Nanoscale Clustering in Amorphous Carbon
J. David Carey, S. Ravi P.
Silva..................................137
1
Introduction and Bonding in Carbon
...........................137
2
Disorder in Amorphous Carbon
...............................139
3
Intracluster Effects in Amorphous Carbon
......................142
4
Intercluster
Interactions in Amorphous Carbon
..................147
5
Field Emission from Amorphous Carbon
.......................148
6
Conclusions
.................................................150
References
.....................................................150
Index
..........................................................151
Elastic and Structural Properties of Carbon Materials
Investigated by Brillouin Light Scattering
Marco G. Beghi, Carlo S.
Casari,
Andrea
Li Bassi,
Carlo E. Bottani
.. 153
1
Introduction
................................................153
2
Experimental Technique
......................................156
3
Derivation of the Elastic Constants
............................158
4
Brillouin Scattering from Carbonaceous Materials
...............161
5
Ultra-Thin Carbon Films
.....................................162
6
Nanotubes
..................................................166
7
Conclusions
.................................................170
References
.....................................................170
Index
..........................................................173
Electrical Resistivity and Real Structure of Magnetron-
Sputtered Carbon Films
Alexei A. Onoprienko
...........................................175
1
Introduction
................................................175
2
Experimental
...............................................176
3
Results and Discussion
.......................................177
3.1
Substrate Temperature Effects
............................177
XVI Contents
3.2 Substrate
Bias Effects
................................... 181
4
Conclusion
.................................................
1°4
References
.....................................................
!85
Index
..........................................................
186
Formation, Atomic Structures and Properties of Carbon
Nanocage Materials
Takeo Oku, Ichihito Narita, Atsushi Nishiwaki, Naruhiro
Koi,
Katsuaki Sugamima, Rikizo Hatakeyama, Takamichi Hirata, Hisato
Tokoro,
Shigeo Fujii
............................................
187
1
Introduction
................................................187
2
Synthesis Methods
...........................................189
3
Fullerene
Clusters and Metallofullerenes
........................190
4
Onions and Nanotubes
.......................................196
5
Carbon Nanocapsules
........................................200
6
Properties of Carbon Nanomaterials
...........................204
6.1
Photoluminescence of Carbon Nanocapsules
................204
6.2
Magnetic Properties of Carbon Nanocapsules
...............205
6.3
Possibility of H2 Gas Storage in Carbon Nanocages
.........207
6.4
One-Dimensional Self-Organization of Nanocapsules
.........209
7
Conclusion
.................................................212
References
.....................................................212
Index
..........................................................215
Hard Amorphous Hydrogenated Carbon Films and Alloys
Fernando L.
Ereire
Jr............................................
217
1
Introduction
................................................217
2
Film Growth and Chemical Composition
.......................220
3
Film Microstmcture
.........................................224
4
Mechanical and Nanotribological Properties
....................229
5
Conclusion
.................................................234
References
.....................................................235
Index
..........................................................237
Ion Microscopy on Diamond
Claudio Manfredotti ............................................239
1
Introduction
................................................240
2
IBIC
.......................................................241
3
Lateral IBIC
................................................246
4
IBIL
.......................................................251
5
XBIC
......................................................257
6
Conclusions
.................................................263
References
.....................................................264
Index
..........................................................265
Contents XVII
Measurements of Defect Density Inside CVD Diamond Films
Through Nuclear Particle Penetration
Renato
Potenza,
Cristina
Tuve
...................................267
1
Diamond
as Radiation
Detector
...............................267
1.1
Properties of
Diamond
..................................267
1.2
Lattice Defects in Synthetic Diamond Crystals
.............269
1.3
Application of Diamond to Beam and Beam Profile Monitoring
271
2
Mechanism of Conduction in Circuits Including Diamond
.........273
2.1
Modified Hecht s Model for Charge Transport Inside Diamond
275
2.1.1
Absorption of Carriers During Their Transport Along
the Electric Field Lines
............................275
2.1.2
Edge Effects
......................................276
2.2
Effect of
Nonuniform Bragg s
Deposit of Charge into Diamond
278
2.3
Nonuniform
Distributions of Charge and Defects
............279
3
Charge Collection Efficiencies of Diamond Detectors
Under Ion Bombardment
.....................................280
3.1
Experimental Procedure to Measure the Charge Collection
Efficiencies
.............................................282
3.2
Corrections to the Efficiencies
η±
Needed to Into Take
Account the Pulse Height Defect of Diamond for Detectors
Heavy Ionizing Particles
.................................283
4
Conclusions
.................................................285
References
.....................................................285
Index
..........................................................286
Laser Ablation-Deposited CN^ Thin Films
Enza Fazio, Enrico
Barletta,
Francesco Barreca,
Guglielmo Mondio,
Fortunato Neri, Sebastiano Trusso
................................287
1
Introduction
................................................287
2
Experiments
................................................288
3
Results and Discussion
.......................................289
4
Conclusion
.................................................300
References
.....................................................301
Index
..........................................................302
Modeling of the Transport Properties of Diamond Radiation
Sensors
Stefano Lagomarsino,
Silvio Sciortino
.............................303
1
Models of the Polycrystalline Diamond Band Gap
...............303
1.1
Band A
...............................................304
1.2
Trapping Centers
.......................................304
1.3
Carrier Lifetimes and Charge Collection Distance
...........305
1.4
Location of the Trapping and Recombination Centers in the
Diamond Band Gap
.....................................306
1.5
Unipolar Conduction
....................................308
XVIII
Contents
2
A General Model for Transport Properties of pCVD Diamond:
Underlying Assumptions
.....................................309
3
Conductivity Under Exposure to Ionizing Radiation
.............311
4
Thermal Relaxation of Uniform Trap Level Distributions
.........316
4.1
Radiation Induced Conductivity Transient at Different
Fading Times
..........................................317
4.2
Persistent Radiation-Induced Conductivity
.................319
5
Conclusions
.................................................323
References
.....................................................325
Index
..........................................................326
Nucleation Process of CVD Diamond on Molybdenum
Substrates
Giuliana Faggio,
Maria
G.
Donato, Stefano Lagomarsino, Giacomo
Messina, Saveria Santangelo, Silvio Sciortino
.......................329
1
Introduction
................................................329
2
Experimental...............................................
330
3
Results and Discussion
.......................................331
3.1
Raman and
Photoluminescence
Analysis
...................331
3.1.1
Discontinuous Samples
.............................332
3.1.2
Continuous Samples
...............................334
3.2
Statistical Study of the Nucleation Process
.................336
4
Conclusions
.................................................340
References
.....................................................341
Index
..........................................................343
Optical Characterisation of High-Quality Homoepitaxial
Diamond
Maria G.
Donato, Giuliana Faggio, Giacomo Messina, Saveria
Santangelo, G. Verona Rinati
....................................345
1
Introduction
................................................345
2
Experimental...............................................
348
3
Results
.....................................................348
3.1
Optical and
SEM
Characterisation
........................348
3.2
Raman Characterisation
.................................350
3.2.1
First-Order Raman Scattering
......................350
3.2.2
Second-Order Raman Scattering
.....................351
3.3
Photoluminescence Characterisation
.......................352
4
Discussion and Conclusions
...................................355
References
.....................................................357
Index
..........................................................358
Contents XIX
Pulsed Laser Deposition of Carbon Films: Tailoring Structure
and Properties
Paolo M.
Ossi,
Antonio Miotello
..................................359
1
Introduction
................................................359
2
Experimental Details
........................................361
3
Results
.....................................................362
3.1
Low-Pressure Deposited Films
............................362
3.2
High-Pressure Deposited Films
...........................367
4
Discussion
..................................................373
4.1
Low-Pressure Deposited Films
............................373
4.2
High-Pressure Deposited Films
...........................376
5
Conclusions
.................................................377
References
.....................................................378
Index
..........................................................379
Raman Spectra and Structure of sp2 Carbon-Based
Materials: Electron—Phonon Coupling, Vibrational Dynamics
and Raman Activity
Chiara Castiglioni, Fabrizia Negri, Matteo
Tommasini,
Eugenio Di
Donato, Giuseppe Zerbi
.........................................381
1
Introduction
................................................381
2
Raman Spectra of Poly conjugated Materials
....................383
3
Electron-Phonon Coupling and Raman Features
................385
3.1
Electron—Phonon Coupling in Polyacetylene
................385
3.2
Electron-Phonon Coupling in Graphenes
..................390
3.3
Electron-Phonon Coupling in Carbon Nanotubes
...........395
4
Conclusions
.................................................399
References
.....................................................400
Index
..........................................................402
Raman Spectroscopy and Optical Properties of Amorphous
Diamond-Like Carbon Films
Leonid Khriachtchev
............................................403
1
Introduction
................................................403
2
Experimental Details
........................................404
3
Raman Diagnostics
..........................................405
4
Effects Induced by Interference of Light
........................409
5
Optical Characterization
.....................................413
6
Some Applications
...........................................416
7
Conclusions
.................................................418
References
.....................................................419
Index
..........................................................420
XX
Contents
Raman Spectroscopy of CVD Carbon Thin Films Excited by
Near-Infrared Light
Margit
Koos, Miklós
Veres,
Sára Tóth, Miklós Füle
.................423
1
Introduction
................................................423
1.1
The Raman Effect......................................
423
1.2
Raman Spectra of Carbon Materials
......................426
2
Infrared Excited Raman Spectroscopy of Amorphous Carbon Thin
Films
......................................................429
2.1
a-C:H Thin Films Prepared from Benzene
.................429
2.2
a-C:H Thin Layers Prepared From Methane
................438
References
.....................................................443
Index
..........................................................444
The Role of Hydrogen in the Electronic Structure of
Amorphous Carbon: An Electron Spectroscopy Study
Lucia Calliari, Massimiliano
Filippi,
Nadhira Laidani, Gloria
Gottardi, Ruben Bartali, Victor
Micheli,
Mariano Anderle
...........447
1
Introduction
................................................447
2
Experimental
...............................................449
2.1
Hydrogen Incorporation in the Structure of
α
-С
............
449
2.2
Temperature-Induced Hydrogen Evolution from a-C:H
.......450
3
Hydrogen Incorporation in the Structure of
α
-С
.................
450
4
Temperature-Induced Hydrogen Evolution from a-C:H
...........455
5
Concluding Remarks
.........................................459
References
.....................................................461
Index
..........................................................462
UV-Induced Photoconduction in Diamond
Emanuele
Pace, Antonio
De Sio,
Salvatore Scuderì
..................463
1
Introduction
................................................463
2
Overview
...................................................464
3
Properties of Diamond
.......................................467
4
Synthesis of Diamond
........................................468
5
Experimental Methods
.......................................470
6
Electro-Optical Properties
....................................472
6.1
Polycrystalline Diamond Detectors
........................474
6.2
Single-Crystal Diamond Detectors
........................481
7
Single-Pixel Detectors
........................................485
7.1
Photodetectors
.........................................485
7.2
Photoconductor
........................................485
7.3
Photodiode
............................................487
8
Pixel Array Detectors
........................................489
9
Applications
................................................491
9.1
UV Lasers
.............................................493
9.2
Photolithography
.......................................494
Contents XXI
9.3 Space
Astronomy
.......................................495
10
Conclusions
.................................................497
References
.....................................................498
Index
..........................................................503
Vibrational Spectroscopy in Ion-Irradiated Carbon-Based
Thin Films
Giuseppe Compagnini, Orazio Puglisi, Giuseppe
A. Baratta,
Giovanni
Strazzulla
.....................................................505
1
Introduction
................................................505
2
Irradiation of Crystalline Carbon and Carbon Alloys
.............506
3
Irradiation of Hydrocarbons
(Oligomers,
Polymers and Frozen
Gases)
.....................................................510
4
Irradiation of sp-Rich Amorphous Carbon Phases
...............513
References
.....................................................518
Index
..........................................................519
Index
.........................................................521
|
adam_txt |
Contents
Aid of Scaling Laws in the Achievement of a Well-
Cont
rolled
Film Deposition Process
Giacomo
Messina, Saveria Santangelo
. 1
A Spectroscopie
Approach to Carbon Materials for Energy
Storage
Giuseppe Zerbi, Matteo
Tommasini,
Andrea
Centrone,
Luigi Brambilla, Chiara Castiglioni
. 23
1
Introduction.
23
1.1
Carbon-Based
Materials
. 24
2
Prototypical Lattices in Three, Two and One Dimensions
. 26
2.1
Diamond
. 26
2.2
Graphite
. 28
2.3
Polyacetylene
. 29
2.4
Polyynes
. 32
3
A Spectroscopie
Approach to Disordered Carbon Materials
. 33
3.1
ID Systems
-
Saturated Carbon Materials
. 33
3.2
Polyconjugated Polymers
. 34
3.3
2D sp2 Systems
. 35
4
Edge Effects in Graphitic Domains for Structure Diagnosis
. 36
5
Approaching the Structure of Carbonaceous Materials by
Vibrational Spectroscopy: Imagination and Reality
. 41
5.1
Carbon-Based Materials for Hydrogen Storage
. 44
6
Conclusions
. 47
References
. 48
Index
. 52
Biocompatibility, Cytotoxicity and Bioactivity of Amorphous
Carbon Films
Sandra E.
Rodil,
René
Olivares,
Higinio Arzate, Stephen Muhl
. 55
1
Introduction
. 55
2
Experimental Details
. 58
2.1
Film Deposition
. 58
2.2
Film Characterization
. 58
2.3
Cell Preparation
. 59
XIV Contents
2.4 Cytotoxicity Test. 59
2.5 Bioactivity. 60
2.5.1
Morphological Assay.
60
2.5.2 Protein
Synthesis.
60
3
Results
.
62
3.1
Film Properties
. 62
3.2
Cytotoxicity
. 64
3.3
Bioactivity
. 65
3.3.1
Morphological Analysis
. 65
3.3.2
Proteins
. 65
4
Discussion
. 71
References
. 73
Index
. 75
Characterisation of the Growth Mechanism during PECVD
of Multiwalled Carbon Nanotubes
Martin S. Bell,
Rodrigo
G.
Lacerda,
Kenneth
В.К. Тео,
William I. Milne
. 77
1
Introduction
. 77
2
Production of Carbon Nanotubes
. 82
3
Plasma Composition during PECVD
. 84
4
Characterisation of the Growth Mechanism
. 85
5
Conclusion
. 89
References
. 90
Index
. 92
Correlation Between Local Structure and Film Properties
in Amorphous Carbon Materials
Giovanni Fanchini, Alberto
Tagliaferro
. 95
1
Introduction
. 95
2
Electronic States in Carbon
. 95
3
Hybridisation and Local Structure
. 96
4
The Various Forms of Amorphous Carbon
. 97
5
Phase Matching and Its Effects on Materials
. 99
6
Optoelectronic and Mechanical Properties
.102
7
Conclusion
.103
References
.104
Index
.104
Defects in CVD Diamond Films from Their Response
as Nuclear Detectors
Marco
Mannelli,
Enrico
Milani, Aldo Tucciarone, Gianluca
Verona
Rinati
.107
1
Introduction
.107
2
CVD Diamond Nuclear Detectors: Realization and Physics
.108
Contents
XV
3
Analysis of the Charge Collection Spectrum
.
Ill
3.1
Qualitative Analysis
.
Ill
3.2
Quantitative Analysis: The General Model
.115
3.3
The Use of Detector Thickness
.117
3.4
The Use of Penetration Depth
.119
4
Time-Domain Analysis
.123
4.1
The Background
.123
4.2
Qualitative Analysis
.125
4.3
Quantitative Analysis: Computer Simulation
.126
5
Temperature Effects: Depumping
.129
6
Conclusion
.133
References
.133
Index
.135
Effects of Nanoscale Clustering in Amorphous Carbon
J. David Carey, S. Ravi P.
Silva.137
1
Introduction and Bonding in Carbon
.137
2
Disorder in Amorphous Carbon
.139
3
Intracluster Effects in Amorphous Carbon
.142
4
Intercluster
Interactions in Amorphous Carbon
.147
5
Field Emission from Amorphous Carbon
.148
6
Conclusions
.150
References
.150
Index
.151
Elastic and Structural Properties of Carbon Materials
Investigated by Brillouin Light Scattering
Marco G. Beghi, Carlo S.
Casari,
Andrea
Li Bassi,
Carlo E. Bottani
. 153
1
Introduction
.153
2
Experimental Technique
.156
3
Derivation of the Elastic Constants
.158
4
Brillouin Scattering from Carbonaceous Materials
.161
5
Ultra-Thin Carbon Films
.162
6
Nanotubes
.166
7
Conclusions
.170
References
.170
Index
.173
Electrical Resistivity and Real Structure of Magnetron-
Sputtered Carbon Films
Alexei A. Onoprienko
.175
1
Introduction
.175
2
Experimental
.176
3
Results and Discussion
.177
3.1
Substrate Temperature Effects
.177
XVI Contents
3.2 Substrate
Bias Effects
. 181
4
Conclusion
.
1°4
References
.
!85
Index
.
186
Formation, Atomic Structures and Properties of Carbon
Nanocage Materials
Takeo Oku, Ichihito Narita, Atsushi Nishiwaki, Naruhiro
Koi,
Katsuaki Sugamima, Rikizo Hatakeyama, Takamichi Hirata, Hisato
Tokoro,
Shigeo Fujii
.
187
1
Introduction
.187
2
Synthesis Methods
.189
3
Fullerene
Clusters and Metallofullerenes
.190
4
Onions and Nanotubes
.196
5
Carbon Nanocapsules
.200
6
Properties of Carbon Nanomaterials
.204
6.1
Photoluminescence of Carbon Nanocapsules
.204
6.2
Magnetic Properties of Carbon Nanocapsules
.205
6.3
Possibility of H2 Gas Storage in Carbon Nanocages
.207
6.4
One-Dimensional Self-Organization of Nanocapsules
.209
7
Conclusion
.212
References
.212
Index
.215
Hard Amorphous Hydrogenated Carbon Films and Alloys
Fernando L.
Ereire
Jr.
217
1
Introduction
.217
2
Film Growth and Chemical Composition
.220
3
Film Microstmcture
.224
4
Mechanical and Nanotribological Properties
.229
5
Conclusion
.234
References
.235
Index
.237
Ion Microscopy on Diamond
Claudio Manfredotti .239
1
Introduction
.240
2
IBIC
.241
3
Lateral IBIC
.246
4
IBIL
.251
5
XBIC
.257
6
Conclusions
.263
References
.264
Index
.265
Contents XVII
Measurements of Defect Density Inside CVD Diamond Films
Through Nuclear Particle Penetration
Renato
Potenza,
Cristina
Tuve
.267
1
Diamond
as Radiation
Detector
.267
1.1
Properties of
Diamond
.267
1.2
Lattice Defects in Synthetic Diamond Crystals
.269
1.3
Application of Diamond to Beam and Beam Profile Monitoring
271
2
Mechanism of Conduction in Circuits Including Diamond
.273
2.1
Modified Hecht's Model for Charge Transport Inside Diamond
275
2.1.1
Absorption of Carriers During Their Transport Along
the Electric Field Lines
.275
2.1.2
Edge Effects
.276
2.2
Effect of
Nonuniform Bragg's
Deposit of Charge into Diamond
278
2.3
Nonuniform
Distributions of Charge and Defects
.279
3
Charge Collection Efficiencies of Diamond Detectors
Under Ion Bombardment
.280
3.1
Experimental Procedure to Measure the Charge Collection
Efficiencies
.282
3.2
Corrections to the Efficiencies
η±
Needed to Into Take
Account the Pulse Height Defect of Diamond for Detectors
Heavy Ionizing Particles
.283
4
Conclusions
.285
References
.285
Index
.286
Laser Ablation-Deposited CN^ Thin Films
Enza Fazio, Enrico
Barletta,
Francesco Barreca,
Guglielmo Mondio,
Fortunato Neri, Sebastiano Trusso
.287
1
Introduction
.287
2
Experiments
.288
3
Results and Discussion
.289
4
Conclusion
.300
References
.301
Index
.302
Modeling of the Transport Properties of Diamond Radiation
Sensors
Stefano Lagomarsino,
Silvio Sciortino
.303
1
Models of the Polycrystalline Diamond Band Gap
.303
1.1
Band A
.304
1.2
Trapping Centers
.304
1.3
Carrier Lifetimes and Charge Collection Distance
.305
1.4
Location of the Trapping and Recombination Centers in the
Diamond Band Gap
.306
1.5
Unipolar Conduction
.308
XVIII
Contents
2
A General Model for Transport Properties of pCVD Diamond:
Underlying Assumptions
.309
3
Conductivity Under Exposure to Ionizing Radiation
.311
4
Thermal Relaxation of Uniform Trap Level Distributions
.316
4.1
Radiation Induced Conductivity Transient at Different
Fading Times
.317
4.2
Persistent Radiation-Induced Conductivity
.319
5
Conclusions
.323
References
.325
Index
.326
Nucleation Process of CVD Diamond on Molybdenum
Substrates
Giuliana Faggio,
Maria
G.
Donato, Stefano Lagomarsino, Giacomo
Messina, Saveria Santangelo, Silvio Sciortino
.329
1
Introduction
.329
2
Experimental.
330
3
Results and Discussion
.331
3.1
Raman and
Photoluminescence
Analysis
.331
3.1.1
Discontinuous Samples
.332
3.1.2
Continuous Samples
.334
3.2
Statistical Study of the Nucleation Process
.336
4
Conclusions
.340
References
.341
Index
.343
Optical Characterisation of High-Quality Homoepitaxial
Diamond
Maria G.
Donato, Giuliana Faggio, Giacomo Messina, Saveria
Santangelo, G. Verona Rinati
.345
1
Introduction
.345
2
Experimental.
348
3
Results
.348
3.1
Optical and
SEM
Characterisation
.348
3.2
Raman Characterisation
.350
3.2.1
First-Order Raman Scattering
.350
3.2.2
Second-Order Raman Scattering
.351
3.3
Photoluminescence Characterisation
.352
4
Discussion and Conclusions
.355
References
.357
Index
.358
Contents XIX
Pulsed Laser Deposition of Carbon Films: Tailoring Structure
and Properties
Paolo M.
Ossi,
Antonio Miotello
.359
1
Introduction
.359
2
Experimental Details
.361
3
Results
.362
3.1
Low-Pressure Deposited Films
.362
3.2
High-Pressure Deposited Films
.367
4
Discussion
.373
4.1
Low-Pressure Deposited Films
.373
4.2
High-Pressure Deposited Films
.376
5
Conclusions
.377
References
.378
Index
.379
Raman Spectra and Structure of sp2 Carbon-Based
Materials: Electron—Phonon Coupling, Vibrational Dynamics
and Raman Activity
Chiara Castiglioni, Fabrizia Negri, Matteo
Tommasini,
Eugenio Di
Donato, Giuseppe Zerbi
.381
1
Introduction
.381
2
Raman Spectra of Poly conjugated Materials
.383
3
Electron-Phonon Coupling and Raman Features
.385
3.1
Electron—Phonon Coupling in Polyacetylene
.385
3.2
Electron-Phonon Coupling in Graphenes
.390
3.3
Electron-Phonon Coupling in Carbon Nanotubes
.395
4
Conclusions
.399
References
.400
Index
.402
Raman Spectroscopy and Optical Properties of Amorphous
Diamond-Like Carbon Films
Leonid Khriachtchev
.403
1
Introduction
.403
2
Experimental Details
.404
3
Raman Diagnostics
.405
4
Effects Induced by Interference of Light
.409
5
Optical Characterization
.413
6
Some Applications
.416
7
Conclusions
.418
References
.419
Index
.420
XX
Contents
Raman Spectroscopy of CVD Carbon Thin Films Excited by
Near-Infrared Light
Margit
Koos, Miklós
Veres,
Sára Tóth, Miklós Füle
.423
1
Introduction
.423
1.1
The Raman Effect.
423
1.2
Raman Spectra of Carbon Materials
.426
2
Infrared Excited Raman Spectroscopy of Amorphous Carbon Thin
Films
.429
2.1
a-C:H Thin Films Prepared from Benzene
.429
2.2
a-C:H Thin Layers Prepared From Methane
.438
References
.443
Index
.444
The Role of Hydrogen in the Electronic Structure of
Amorphous Carbon: An Electron Spectroscopy Study
Lucia Calliari, Massimiliano
Filippi,
Nadhira Laidani, Gloria
Gottardi, Ruben Bartali, Victor
Micheli,
Mariano Anderle
.447
1
Introduction
.447
2
Experimental
.449
2.1
Hydrogen Incorporation in the Structure of
α
-С
.
449
2.2
Temperature-Induced Hydrogen Evolution from a-C:H
.450
3
Hydrogen Incorporation in the Structure of
α
-С
.
450
4
Temperature-Induced Hydrogen Evolution from a-C:H
.455
5
Concluding Remarks
.459
References
.461
Index
.462
UV-Induced Photoconduction in Diamond
Emanuele
Pace, Antonio
De Sio,
Salvatore Scuderì
.463
1
Introduction
.463
2
Overview
.464
3
Properties of Diamond
.467
4
Synthesis of Diamond
.468
5
Experimental Methods
.470
6
Electro-Optical Properties
.472
6.1
Polycrystalline Diamond Detectors
.474
6.2
Single-Crystal Diamond Detectors
.481
7
Single-Pixel Detectors
.485
7.1
Photodetectors
.485
7.2
Photoconductor
.485
7.3
Photodiode
.487
8
Pixel Array Detectors
.489
9
Applications
.491
9.1
UV Lasers
.493
9.2
Photolithography
.494
Contents XXI
9.3 Space
Astronomy
.495
10
Conclusions
.497
References
.498
Index
.503
Vibrational Spectroscopy in Ion-Irradiated Carbon-Based
Thin Films
Giuseppe Compagnini, Orazio Puglisi, Giuseppe
A. Baratta,
Giovanni
Strazzulla
.505
1
Introduction
.505
2
Irradiation of Crystalline Carbon and Carbon Alloys
.506
3
Irradiation of Hydrocarbons
(Oligomers,
Polymers and Frozen
Gases)
.510
4
Irradiation of sp-Rich Amorphous Carbon Phases
.513
References
.518
Index
.519
Index
.521 |
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any_adam_object_boolean | 1 |
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illustrated | Illustrated |
index_date | 2024-07-02T16:23:07Z |
indexdate | 2024-07-09T20:52:10Z |
institution | BVB |
isbn | 3540295313 9783540295310 |
language | English |
lccn | 2006924284 |
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physical | XXI, 529 S. Ill., graph. Darst. |
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spelling | Carbon the future material for advanced technology applications ; with ... 24 tables Giacomo Messina ... (eds.) Berlin [u.a.] Springer 2006 XXI, 529 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Topics in applied physics 100 Kohlenstoff-Nanoröhre Kohlenstoffwerkstoff Carbon Carbon composites Kohlenstoffwerkstoff (DE-588)4031677-4 gnd rswk-swf Kohlenstoff-Nanoröhre (DE-588)4581365-6 gnd rswk-swf Kohlenstoff-Nanoröhre (DE-588)4581365-6 s Kohlenstoffwerkstoff (DE-588)4031677-4 s DE-604 Messina, Giacomo Sonstige oth Topics in applied physics 100 (DE-604)BV008007504 100 http://deposit.dnb.de/cgi-bin/dokserv?id=2687151&prov=M&dok_var=1&dok_ext=htm Verlag Inhaltstext Digitalisierung UB Regensburg application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=015408183&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
spellingShingle | Carbon the future material for advanced technology applications ; with ... 24 tables Topics in applied physics Kohlenstoff-Nanoröhre Kohlenstoffwerkstoff Carbon Carbon composites Kohlenstoffwerkstoff (DE-588)4031677-4 gnd Kohlenstoff-Nanoröhre (DE-588)4581365-6 gnd |
subject_GND | (DE-588)4031677-4 (DE-588)4581365-6 |
title | Carbon the future material for advanced technology applications ; with ... 24 tables |
title_auth | Carbon the future material for advanced technology applications ; with ... 24 tables |
title_exact_search | Carbon the future material for advanced technology applications ; with ... 24 tables |
title_exact_search_txtP | Carbon the future material for advanced technology applications ; with ... 24 tables |
title_full | Carbon the future material for advanced technology applications ; with ... 24 tables Giacomo Messina ... (eds.) |
title_fullStr | Carbon the future material for advanced technology applications ; with ... 24 tables Giacomo Messina ... (eds.) |
title_full_unstemmed | Carbon the future material for advanced technology applications ; with ... 24 tables Giacomo Messina ... (eds.) |
title_short | Carbon |
title_sort | carbon the future material for advanced technology applications with 24 tables |
title_sub | the future material for advanced technology applications ; with ... 24 tables |
topic | Kohlenstoff-Nanoröhre Kohlenstoffwerkstoff Carbon Carbon composites Kohlenstoffwerkstoff (DE-588)4031677-4 gnd Kohlenstoff-Nanoröhre (DE-588)4581365-6 gnd |
topic_facet | Kohlenstoff-Nanoröhre Kohlenstoffwerkstoff Carbon Carbon composites |
url | http://deposit.dnb.de/cgi-bin/dokserv?id=2687151&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=015408183&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
volume_link | (DE-604)BV008007504 |
work_keys_str_mv | AT messinagiacomo carbonthefuturematerialforadvancedtechnologyapplicationswith24tables |