Skip to main content
Have a personal or library account? Click to login
Isotropic distributions in hcp crystals Cover

Isotropic distributions in hcp crystals

Open Access
|Dec 2015

References

  1. 1. Houston, W. V. (1948). Normal vibrations of a crystal lattice..,, 161–165.
  2. 2. Mueller, F. M., & Priestley, M. G. (1966). Inversion of cubic de Haas-van Alphen Data, with an application to palladium..,, 638–643.
  3. 3. Bhatia, A. B. (1955). Vibration spectra and specific heats of cubic metals. I. Theory and application to sodium..,, 363–371.
  4. 4. Betts, D. D., Bhatia, A. B., & Womann, M. (1956). Houston’s method and its application to the calculation of characteristic temperatures of cubic crystals..,, 37–42.
  5. 5. Betts, D. D., Bhatia, A. B., & Horton, J. W. (1956). Debye characteristic temperatures of certain noncubic crystals..,, 43–47.
  6. 6. Ghosh, G., Delsante, S., Borzone, G., Asta, M., & Ferro, R. (2006). Phase stability and cohesive properties of Ti-Zn intermetallics: First-principles calculations and experimental results.,, 4977–4997.
  7. 7. Taylor, C. D., Lookman, T., & Scott, L. R. (2010). Ab initio calculations of the uranium-hydrogen system: Thermodynamics, hydrogen saturation of a-U and phase-transformation to UH.,, 1045–1055.
  8. 8. Bansil, A. (1979). Coherent-potential and average-matrix approximations for disordered muffin-tin alloys. II. Application to realistic systems.,, 4035–4043.
  9. 9. Prasad, R., & Bansil, A. (1980). Special directions for Brillouin-zone integration: Application to density of states calculations.,, 496–503.
  10. 10. Šob, M., Szuszkiewicz, S., & Szuszkiewicz, M. (1984). Polarized positron annihilation enhancement effects in ferromagnetic iron.,, 649–652.
  11. 11. Šob, M. (1985). Electronic structure and positron annihilation in alkali metals: Isolation of ionic core contribution and valence high-momentum components..,, 249–253.
  12. 12. Aguiar, J. C., Mitnik, D., & DiRocco, H. O. (2015). Electron momentum density and Compton profile by a semi-empirical approach.,, 64–69.
  13. 13. Ahuja, B. L., Sharma, M. D., Sharma, B. K., Hamouda, S., & Cooper, M. J. (1994). Compton profile of polycrystalline yttrium.,, 301–304.
  14. 14. Ahuja, B. L., Sharma, M., & Bross, H. (2007). Compton profile study of gold: Theory and experiment.,, 642–649.
  15. 15. Ahuja, B. L., Mohammad, F. M., Mohammed, S. F., Sahariya, J., Mund, H. S., & Heda, N. L. (2015). Compton scattering and charge transfer in Er substituted DyAl..,, 50–55.
  16. 16. Bross, H. (2006). Special directions for surface integrals in cubic lattices with application to the evaluation of the Compton profile of copper.,, 653–665.
  17. 17. Bross, H. (2004). The local density approximation limit of the momentum density and the Compton profiles of Al.,, 7363–7378.
  18. 18. Bross, H. (2005). Electronic structure of Li with emphasis on the momentum density and the Compton profile.,, 115109(14 pp.).
  19. 19. Chu-Nan, Chang, Yu-Mei, Shu, Chuhn-Chuh, Chen, & Huey-Fen, Liu. (1993). The Compton profiles of tantalum.,, 5371–5376.
  20. 20. Joshi, K. B., Pandya, R. K., Kothari, R. K., & Sharma, B. K. (2009). Electronic structure of AlAs: A Compton profile study.,, 1268–1274.
  21. 21. Ohata, T., Itou, M., Matsumoto, I., Sakurai, Y., Kawata, H., Shiotani, N., Kaprzyk, S., Mijnarends, P. E., & Bansil, A. (2000). High-resolution Compton scattering study of the electron momentum density in Al.,, 16528–16535.
  22. 22. Sharma, G., Joshi, K. B., Mishra, M. C., Kothari, R. K., Sharma, Y. C., Vyas, V., & Sharma, B. K. (2009). Electronic structure of AlAs: A Compton profile study..,, 682–686.
  23. 23. Kawasuso, A., Maekawa, M., Fukaya, Y., Yabuuchi, A., & Mochizuki, I. (2011). Polarized positron annihilation measurements of polycrystalline Fe, Co, Ni, and Gd based on Doppler broadening of annihilation radiation.,, 0406(R).
  24. 24. Kontrym-Sznajd, G. (2013). Utilization of symmetry of solids in experimental investigations.,, 205–208.
  25. 25. Waspe, R. L., & West, R. N. (1982). The Fermi surface of gadolinium. In P. G. Coleman, S. C. Sharma, & L. M. Diana (Eds.),(pp. 328–330). Amsterdam: North-Holland Publ. Co.
  26. 26. Kontrym-Sznajd, G., & Samsel-Czekała, M. (2012). Special directions in momentum space. II. Hexagonal, tetragonal and trigonal symmetries.,, 1254–1260.
  27. 27. Kontrym-Sznajd, G., Samsel-Czekała, M., Pietraszko, A., Sormann, H., Manninen, S., Huotari, S., Hämäläinen, K., Laukkanen, J., West, R. N., & Schülke, W. (2002). Electron momentum density in yttrium.,, 155110(10 pp).
  28. 28. Walters, P. A., Mayers, J., & West, R. N. (1982). Two-dimensional electron-positron momentum densities in the hcp metals: Mg, Zn, and Cd. In P. G. Coleman, S. C. Sharma, & L. M. Diana (Eds.),(pp. 334–336). Amsterdam: North-Holland Publ. Co.
  29. 29. Stewart, A. T. (1957). Momentum distribution of metallic electrons by positron annihilation..,, 168–183.
  30. 30. Lam, L., & Platzman, P. M. (1974). Momentum density and Compton profile of the inhomogeneous interacting electronic system. I. Formalism.,, 5122–5127.
  31. 31. Kubo, Y. (2005). Electron correlation effects on Compton profiles of copper in the GW approximation.,, 2202–2206.
  32. 32. Bansil, A. (1975). Special directions in the Brillouin zone..,, 885–889.
  33. 33. Fehlner, W. R., Nickerson, S. B., & Vosko, S. H. (1976). Cubic harmonic expansions using Gauss integration formulas..,, 83–86.
  34. 34. Fehlner, W. R., & Vosko, S. H. (1976). A product representation for cubic harmonics and special directions for the determination of the Fermi surface and related properties..,, 215–216.
  35. 35. Wasserman, E., Stixrude, L., & Cohen, R. E. (1996). Thermal properties of iron at high pressures and temperatures.,, 8296–8309.
DOI: https://doi.org/10.1515/nuka-2015-0133 | Journal eISSN: 1508-5791 (formerly 0029-5922) | Journal ISSN: 0029-5922
Language: English
Page range: 741 - 744
Submitted on: Jun 18, 2015
Accepted on: Aug 20, 2015
Published on: Dec 1, 2015
Published by: Institute of Nuclear Chemistry and Technology
In partnership with: Paradigm Publishing Services
Related subjects:

© 2015 Grażyna Kontrym-Sznajd, published by Institute of Nuclear Chemistry and Technology
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 3.0 License.