|
|
|
|
LEADER |
05770nam a2200649 4500 |
001 |
ocn889949337 |
003 |
OCoLC |
005 |
20170124070741.2 |
006 |
m o d |
007 |
cr cnu---unuuu |
008 |
140904s2014 enka ob 000 0 eng d |
040 |
|
|
|a DG1
|b eng
|e rda
|e pn
|c DG1
|d N$T
|d YDXCP
|d OHI
|d EBLCP
|d IDEBK
|d CDX
|d RECBK
|d DEBSZ
|d OCLCQ
|d COO
|d DEBBG
|d GrThAP
|
019 |
|
|
|a 887507332
|a 891163061
|
020 |
|
|
|a 9781118984314
|q (electronic bk.)
|
020 |
|
|
|a 1118984315
|q (electronic bk.)
|
020 |
|
|
|a 9781118984321
|q (electronic bk.)
|
020 |
|
|
|a 1118984323
|q (electronic bk.)
|
020 |
|
|
|z 9781848215979
|
020 |
|
|
|z 1848215975
|q (hardback)
|
029 |
1 |
|
|a DEBSZ
|b 431746060
|
029 |
1 |
|
|a GBVCP
|b 814866964
|
029 |
1 |
|
|a NZ1
|b 15908973
|
029 |
1 |
|
|a DEBBG
|b BV043397098
|
035 |
|
|
|a (OCoLC)889949337
|z (OCoLC)887507332
|z (OCoLC)891163061
|
050 |
|
4 |
|a TK7874.85
|b .W53 2014
|
072 |
|
7 |
|a TEC
|x 009070
|2 bisacsh
|
082 |
0 |
4 |
|a 621.381045
|2 23
|
049 |
|
|
|a MAIN
|
245 |
0 |
0 |
|a Wide band gap semiconductor nanowires.
|n 1,
|p Low-dimensionality effects and growth /
|c edited by Vincent Consonni, Guy Feuillet.
|
246 |
3 |
0 |
|a Low-dimensionality effects and growth
|
264 |
|
1 |
|a London, UK :
|b ISTE,
|c 2014.
|
300 |
|
|
|a 1 online resource :
|b illustrations (black and white).
|
336 |
|
|
|a text
|b txt
|2 rdacontent
|
337 |
|
|
|a computer
|b c
|2 rdamedia
|
338 |
|
|
|a online resource
|b cr
|2 rdacarrier
|
490 |
1 |
|
|a Electronics engineering series
|
504 |
|
|
|a Includes bibliographical references.
|
588 |
0 |
|
|a Print version record.
|
505 |
0 |
|
|a Cover; Title Page ; Copyright; Contents; Preface; PART 1: GaN and ZnO Nanowires: Low-dimensionality Effects; Chapter 1: Quantum and Optical Confinement; 1.1. Introduction; 1.2. All-optical integrated circuits with Bose exciton polaritons; 1.3. High efficiency single photon sources; 1.4. High efficiency solar photovoltaics; 1.4.1. Potential photovoltaic benefits of the nanowire geometry; 1.4.2. Interests of wide band gap semiconductor photovoltaics; 1.5. Conclusion; 1.6. Bibliography; Chapter 2: Stress Relaxation in Nanowires with Heterostructures; 2.1. Introduction; 2.1.1. Scope.
|
505 |
8 |
|
|a 2.1.2. Stress relaxation2.1.3. Nanowire specificities; 2.2. Calculation and measurement of elastic strain in nanowires; 2.2.1. Calculation of elastic strain; 2.2.2. Measurement of elastic strain; 2.3. Core-shell heterostructures; 2.3.1. Elastic relaxation in core-shell heterostructures; 2.3.2. Plastic relaxation and critical parameters in core-shell heterostructures; 2.3.2.1. Theoretical considerations; 2.3.2.2. Experiments; 2.4. Axial heterostructures; 2.4.1. Elastic relaxation in axial heterostructures; 2.4.2. Critical dimensions for axial heterostructures.
|
505 |
8 |
|
|a 2.4.2.1. Theoretical considerations2.4.2.2. Experiments; 2.5. Other possible modes of stress relaxation in nanowires with heterostructures; 2.6. Summary and conclusions; 2.7. Bibliography; Chapter 3: Surface-related Optical Properties of GaN-Based Nanowires; 3.1. Introduction; 3.2. Specific exciton and donor states related to surfaces; 3.3. Non-radiative surface recombination; 3.4. Influence of surface photochemical activity on nitride nanowire optical properties; 3.5. Summary; 3.6. Bibliography; Chapter 4: Surface Related Optical Properties of ZnO Nanowires; 4.1. Introduction.
|
505 |
8 |
|
|a 4.2. Surface excitons in ZnO nanowires4.3. Surface-related defect luminescence in ZnO nanowires; 4.4. Surface functionalization of ZnO nanowires with colloidal quantum dots; 4.5. Other surface-related effects in ZnO nanowires; 4.6. Conclusion; 4.7. Bibliography; Chapter 5: Doping and Transport; 5.1. Introduction; 5.2. Advanced lithography processes for direct wide band gap nanowire and microwire devices; 5.3. Electrical transport properties of single wire: ZnO nanowire and GaN microwire; 5.3.1. Electrical transport measurements; 5.3.1.1. General remarks about near-surface band bending.
|
505 |
8 |
|
|a 5.3.1.2. Resistivity measurement: two-probe and four-probe configurations5.3.1.3. Field-effect transistor characteristics; 5.3.1.4. Thermoelectric measurement: Seebeck effect; 5.3.2. Mobility versus doping; 5.4. Local probe and mapping of the electric field: cathodoluminescence; 5.5. Conclusion and perspectives; 5.6. Bibliography; Chapter 6: Microstructure of Group III-N Nanowires; 6.1. Introduction; 6.2. Structural properties; 6.2.1. Crystal structure; 6.2.2. Nanowire morphology; 6.2.3. Macroscopic and microscopic strain; 6.3. Polarity; Channeling-enhanced EELS.
|
520 |
|
|
|a GaN and ZnO nanowires can by grown using a wide variety of methods from physical vapor deposition to wet chemistry for optical devices. This book starts by presenting the similarities and differences between GaN and ZnO materials, as well as the assets and current limitations of nanowires for their use in optical devices, including feasibility and perspectives. It then focuses on the nucleation and growth mechanismsof ZnO and GaN nanowires, grown by various chemical and physical methods. Finally, it describes the formation of nanowire heterostructures applied to optical devices.
|
650 |
|
0 |
|a Optoelectronic devices.
|
650 |
|
0 |
|a Nanowires.
|
650 |
|
7 |
|a TECHNOLOGY & ENGINEERING
|x Mechanical.
|2 bisacsh
|
650 |
|
7 |
|a Nanowires.
|2 fast
|0 (OCoLC)fst01032641
|
650 |
|
7 |
|a Optoelectronic devices.
|2 fast
|0 (OCoLC)fst01046908
|
655 |
|
4 |
|a Electronic books.
|
655 |
|
0 |
|a Electronic books.
|
700 |
1 |
|
|a Consonni, Vincent,
|e editor.
|
700 |
1 |
|
|a Feuillet, Guy,
|e editor.
|
776 |
0 |
8 |
|i Print version:
|t Wide band gap semiconductor nanowires
|z 9781848215979
|w (OCoLC)870426617
|
830 |
|
0 |
|a Electronics engineering series (London, England)
|
856 |
4 |
0 |
|u https://doi.org/10.1002/9781118984321
|z Full Text via HEAL-Link
|
994 |
|
|
|a 92
|b DG1
|