Interactive figures


Table of Contents - Glossary - 1 2 3 4 5 6 7 8 9 R A

2. Semiconductor Fundamentals

  1. Fig.2.2.1 Potential and Energy levels in an infinite quantum well - Preview
  2. Fig.2.2.2 Energy levels and wavefunctions in an infinite quantum well - Preview - Load
  3. Fig.2.2.2a Probability density functions in an infinite quantum well - Preview - Load
  4. Fig.2.2.3 Potential energy and wavefunctions in an infinite quantum well - Preview
  5. Fig.2.2.4 Energy levels in an infinite quantum well - Preview - Load
  6. Fig.2.2.5a The crystal structure of diamond - Preview
  7. Fig.2.2.5b The crystal structure of zincblende - Preview
  8. Fig.2.2.6 The periodic potential assumed in the Kronig-Penney model - Preview
  9. Fig.2.2.7 Graphical solution to the Kronig-Penney model - Preview - Load
  10. Fig.2.2.8 Energy band of a periodic potential - the Kronig-Penney model. - Preview - Load
  11. Fig.2.2.9 Kronig-Penney wavefunctions. - Preview - Load
  12. Fig.2.2.10 Band structure of metals, insulators and semiconductors - Preview
  13. Fig.2.2.11 Simplified band diagram of a semiconductor - Preview
  14. Fig.2.2.12 Energy band diagram showing electron and hole motion in an applied electric field - Preview
  15. Fig.2.2.14 Temperature dependence of the energy bandgap. - Preview - Load
  16. Fig.2.2.15 Doping dependence of the energy bandgap. - Preview - Load
  17. Fig.2.3.1 Density of states in one, two and three dimensions. - Preview - Load
  18. Table.2.3.1 Degeneracy of the energy levels in quantum wells, square wires and cube-like dots. - Preview
  19. Fig.2.4.1 Fermi-Dirac, Bose-Einstein and Maxwell Boltzmann distributions. - Preview - Load
  20. Fig.2.4.2 Electron configurations - an example. - Preview
  21. Fig.2.4.3 Table of all possible configuration of the example system. - Preview - Load
  22. Fig.2.4.4 The Fermi-Dirac distribution function - an example. - Preview - Load
  23. Fig.2.4.5 The Fermi-Dirac distribution function. - Preview - Load
  24. Fig.2.5.2 The carrier density integral. - Preview - Load
  25. Fig.2.6.1 Intrinsic carrier density versus temperature. - Preview - Load
  26. Fig.2.7.1 The fermi energy in an extrinsic semiconductor: Graphical solution to the general analysis. - Preview - Load
  27. Fig.2.7.2 Carrier density versus temperature. - Preview - Load
  28. Fig.2.8.1 Electron and hole mobility versus doping density for silicon. - Preview - Load
  29. Fig.2.9.2 Resistivity of n-type and p-type silicon versus doping density. - Preview - Load
  30. Fig.2.9.3 Sheet resistance of a 14 mil thick silicon wafer. - Preview - Load

© Bart J. Van Zeghbroeck, 1997