Semiconductor Materials Analysis and Fabrication Process Control
eBook - PDF

Semiconductor Materials Analysis and Fabrication Process Control

  1. 352 pages
  2. English
  3. PDF
  4. Available on iOS & Android
eBook - PDF

Semiconductor Materials Analysis and Fabrication Process Control

About this book

There is a growing awareness that the successful implementation of novel material systems and technology steps in the fabrication of microelectronic and optoelectronic devices, is critically dependent on the understanding and control of the materials, the process steps and their interactions. The contributions in this volume demonstrate that characterisation and analysis techniques are an essential support mechanism for research in these fields. Current major research themes are reviewed both in the development and application of diagnostic techniques for advanced materials analysis and fabrication process control. Two distinct trends are elucidated: the emergence and evaluation of sophisticated in situ optical diagnostic techniques such as photoreflectance and spectroellipsometry and the industrial application of ultra-high sensitivity chemical analysis techniques for contamination monitoring. The volume will serve as a useful and timely overview of this increasingly important field.

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Yes, you can access Semiconductor Materials Analysis and Fabrication Process Control by G.M. Crean,R. Stuck,J.A. Woollam in PDF and/or ePUB format, as well as other popular books in Physical Sciences & Physics. We have over one million books available in our catalogue for you to explore.

Information

Publisher
North Holland
Year
2012
Print ISBN
9780444899088
eBook ISBN
9780444596918

Table of contents

  1. Front Cover
  2. Semiconductor Materials Analysis and Fabrication Process Control
  3. Copyright Page
  4. Table of Contents
  5. Preface
  6. Conference Organization
  7. Supporting Organizations and Sponsors
  8. Chapter 1. In situ spectroscopic ellipsometry in molecular beam epitaxy for photonic devices
  9. Chapter 2. Insitu spectral ellipsometry for real-time measurement and control
  10. Chapter 3. In situ spectroscopic ellipsometry studies of electron cyclotron resonance (ECR) plasma etching of oxides of silicon and GaAs
  11. Chapter 4. Spectroscopic ellipsometry characterisation of light-emitting porous silicon structures
  12. Chapter 5. In situ studies of semiconductor processes by spectroellipsometry
  13. Chapter 6. Growth mode of ultrathin Sb layers on Si studied by spectroscopic ellipsometry and Raman scattering
  14. Chapter 7. Criteria for the extraction of SIMOX material parameters from spectroscopic ellipsometry data
  15. Chapter 8. Round robin investigation of silicon oxide on silicon reference materials for ellipsometry
  16. Chapter 9. Spectroscopic ellipsometric characterization of Si/Si1-xGex strained-layer supperlattices
  17. Chapter 10. The influence of nanocrystals on the dielectric function of porous silicon
  18. Chapter 11. Some examples of depth resolution in SIMS analysis
  19. Chapter 12. Process control for III-V semiconductor device fabrication using mass spectroscopy
  20. Chapter 13. Sputter induced resonant ionization spectroscopy for trace analysis in silicon
  21. Chapter 14. Contamination control and ultrasensitive chemical analysis
  22. Chapter 15. Organic contamination of silicon wafers by buffered oxide etching
  23. Chapter 16. Application of advanced contamination analysis for qualification of wafer handling systems and chucks
  24. Chapter 17. In situ optical spectroscopy of surfaces and interfaces with submonolayer resolution
  25. Chapter 18. Thermal desorption of amorphous arsenic caps from GaAs(100) monitored by reflection anisotropy spectroscopy
  26. Chapter 19. Optical second harmonic generation from the Si(111)–Sb interface
  27. Chapter 20. Surface-sensitive multiple internal reflection spectroscopy as a tool to study surface mechanisms in CVD: the example of UV photodeposition of silicon dioxide and silicon nitride
  28. Chapter 21. On the assessment of local stress distributions in integrated circuits
  29. Chapter 22. Strain analysis of multilayered silicon-based contact structures
  30. Chapter 23. In-process control of silicide formation during rapid thermal processing
  31. Chapter 24. In situ ellipsometry for real-time feedback control of oxidation furnaces
  32. Chapter 25. Optical characterization of the electrical properties of processed GaAs
  33. Chapter 26. Optical study of band bending and interface recombination at Sb, S and Se covered gallium arsenide surfaces
  34. Chapter 27. Photoreflectance investigation of dry-etch-induced damage in semi-insulating GaAs substrates
  35. Chapter 28. Contactless electromodulation for in situ characterization of semiconductor processing
  36. Chapter 29. Photoreflectance versus ellipsometry investigation of GaAs/Al0.3Ga0.7As MQW's
  37. Chapter 30. Temperature dependence of the photoreflectance of strained and lattice-matched InGaAs/InAlAs single quantum wells
  38. Chapter 31. Optical tools for intermixing diagnostic: application to InGaAs/InGaAsP microstructures
  39. Chapter 32. Characterization of lattice-matched and strained GalnAs/AlInAs HEMT structures by photoluminescence spectroscopy
  40. Chapter 33. Interface characterization of strained InGaAs/InP quantum wells after a growth interruption sequence
  41. Chapter 34. Electric field dependence of allowed and forbidden transitions in In0.53Ga0.47As/In0.52 Al0.48 As single quantum wells by room temperature modulation spectroscopy
  42. Chapter 35. Optical characterization of InP/InAlAs/InP interfaces grown by MOVPE
  43. Chapter 36. Temperature dependence analysis of the optical transmission spectra in InGaAs/InP multi quantum well structures
  44. Chapter 37. Lifetime and diffusion length inhomogeneity controlled by point and extended defect interaction in n-GaAs LEC
  45. Chapter 38. Mapping of the local minority carrier diffusion length in silicon wafers
  46. Chapter 39. Evaluation of the minority carrier lifetime and diffusion coefficient of cast polycrystalline silicon wafers by the dual mercury probe method
  47. Chapter 40. In-situ quality monitoring during the deposition of a-Si:H films
  48. Chapter 41. Non-destructive identification of end-of-range damage in ion-implanted and annealed silicon
  49. Chapter 42. Correlation of photoluminescence and nuclear characterization of In-implanted silicon
  50. Chapter 43. Accurate infrared spectroscopy analysis in back-side damaged silicon wafers
  51. Chapter 44. Chemical composition of porous silicon layers studied by IR spectroscopy
  52. Chapter 45. Stoichiometry of oxygen precipitates in silicon
  53. Chapter 46. Optical characterization of semiconductors containing inhomogeneous layers
  54. Chapter 47. Nonlinear recombinations in photoreflectance characterization of silicon wafers
  55. Chapter 48. Investigation of the relaxation of excess carriers in SiGe-heterostructures by photothermal measurement
  56. Chapter 49. Epioptic analysis of the initial ordered growth of Au on Si(111)
  57. Chapter 50. Diagnostics of the silicon–insulator interface structure by optical second-harmonic generation
  58. Chapter 51. Atomic scale simulation of crystal growth applied to the calculation of the photoemission current
  59. Chapter 52. Potential step imaging of interfaces in MBE-grown structures
  60. Chapter 53. Using the metal-oxide–polysilicon–silicon (MOPS) structure to determine LPCVD polysilicon quality
  61. Chapter 54. Combined low-frequency noise and random telegraph signal analysis of silicon MOSFET's
  62. Chapter 55. Effect of near-surface damage on C–V measurements of Schottky barrier diodes
  63. Chapter 56. The impact of high-field stressing on C–V characteristics of irradiated gate oxides
  64. Chapter 57. Effects of diffusion-induced defects on the carrier lifetime
  65. Chapter 58. In situ bulk lifetime measurement on silicon with a chemically passivated surface
  66. Chapter 59. Infrared analysis of buried insulator layers formed by ion implantation into silicon
  67. Chapter 60. Electrochemical etching and profiling of silicon
  68. Author index
  69. Subject index