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Overview of Comnonent and Device Characterization

Published online by Cambridge University Press:  10 February 2011

Doug Rytting*
Affiliation:
Research and Technology Manager Santa Rosa Systems Division, Hewlett Packard 1400 Fountain Grove Parkway, Santa Rosa, CA 95403
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Abstract

The electronics market is constantly pushing the state of the art in design to reduce cost, size, weight, and power consumption. New designs are emerging causing rapid changes in technology driving high design turnover. This drives the need for component and material measurements that will reduced design cycles and time to market. In the design and measurement of linear devices, error corrected S-parameters are traditionally measured with a network analyzer. the network analyzer combines magnitude with phase measurements for improved accuracy. Time domain techniques are used to get a better physical understanding of the device characteristics. Error correction procedures have been improved to provide high accuracy and ease of use. New methods to measure impedance results in high precision capacitor and inductor models necessary for both surface mount and integrated circuit applications. Note: In the following paper the relevant text follows each slide.

Type
Research Article
Copyright
Copyright © Materials Research Society 1996

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References

[1] Weinberg, L., “Fundamentals of Scattering Matrices,” Electro-Technology, pp 5572, July 1967 Google Scholar
[2] Marks, R.B. and Williams, D.F.A General Waveguide Circuit Theory,” J. Res. Natl. Inst. Stand, Technol. 97,533, Sept. 1992 Google Scholar
[3] Hines, M. E., Stinehelfer, H. E., “Time Domain Oscillographic Microwave Network Analysis Using Frequency Domain Data”, IEEE Trans. on Microwave Theory and Techniques, MTT– 22–3, pp 276282, Mar. 1974 Google Scholar
[4] Rytting, D. K., “Let Time Domain Response Provide Additional Insight Into Network Behavior”, Hewlett Packard RF & Microwave Symposium, March 1984 Google Scholar
[5] Wong, K. H., “Using Precision Coaxial Air Dielectric Transmission Lines as Calibration and Verification Standards”, Microwave Journal, pp 8392, December 1988 Google Scholar
[6] Donecker, S. B., “Determining the Measurement Accuracy of the HP85 10 Microwave Network Analyzer”, Hewlett-Packard RF & Microwave Symposium, March 1985 Google Scholar
[7] Fitzpatrick, J., “Error Models for Systems Measurement”, Microwave Journal, pp 6366, May 1978 Google Scholar
[8] Engen, G. F., Hoer, C. A., “Thru-Reflect-Line: An Improved Technique for Calibrating the Dual 6-Port Automatic Network Analyzer”, IEEE Trans. on Microwave Theory and Techniques, MTT–27–12, pp 987993, Dec. 1979 Google Scholar
[9] Eul, H. J., Schiek, B., “A Generalized Theory and New Calibration Procedures for Network Analyzer Self-Calibration”, IEEE Trans. on Microwave Theory & Techniques, vol.39, pp. 724731, April 1991 Google Scholar
[10] Eul, H. J., Scheik, B., “Reducing the Number of Calibration Standards for Network Analyzer Calibration”, IEEE Trans. Instrumentation Measurement, vol 40, pp. 732735, August 1991 Google Scholar
[11] Silvonen, Kimmo J., “A General Approach to Network Analyzer Calibration”, IEEE Trans. on Microwave Theory & Techniques, vol 40, April 1992 Google Scholar
[12] Adamian, V., “A Novel Procedure for Network Analyzer Calibration and Verification,” ARFTG Digest, Spring 1993 Google Scholar
[13] “Electronic Materials Measurement Seminar,” Hewlett Packard Seminar PublicationGoogle Scholar