Photomodulated Optical Reflectance
Details
This singular non-invasive technique for in-line metrology is an outstanding contribution to the field, reporting significant advances in testing the properties of semiconductors, such as the characteristics of ultra-shallow junctions, without destroying them.
One of the critical issues in semiconductor technology is the precise electrical characterization of ultra-shallow junctions. Among the plethora of measurement techniques, the optical reflectance approach developed in this work is the sole concept that does not require physical contact, making it suitable for non-invasive in-line metrology. This work develops extensively all the fundamental physical models of the photomodulated optical reflectance technique and introduces novel approaches that extend its applicability from dose monitoring towards detailed carrier profile reconstruction. It represents a significant breakthrough in junction metrology with potential for industrial implementation.
Selected as an outstanding contribution by K.U. Leuven Reports significant advances in non-destructive testing of semiconductors New approaches have potential for industrial application Includes supplementary material: sn.pub/extras
Inhalt
Theory of Perturbation of the Reflectance.- Theory of Perturbation of the Refractive Index.- Theory of Carrier and Heat Transport in Homogeneously Doped Silicon.- Extension of the Transport Theory to Ultra-Shallow Doped Silicon Layers.- Assessment of the Model.- Application of the Model to Carrier Profling.
Weitere Informationen
- Allgemeine Informationen
- GTIN 09783642301070
- Genre Elektrotechnik
- Auflage 2012
- Sprache Englisch
- Lesemotiv Verstehen
- Anzahl Seiten 228
- Größe H241mm x B160mm x T17mm
- Jahr 2012
- EAN 9783642301070
- Format Fester Einband
- ISBN 364230107X
- Veröffentlichung 28.06.2012
- Titel Photomodulated Optical Reflectance
- Autor Janusz Bogdanowicz
- Untertitel A Fundamental Study Aimed at Non-Destructive Carrier Profiling in Silicon
- Gewicht 512g
- Herausgeber Springer Berlin Heidelberg