Modeling and Simple Parameters Extraction of Calibration Standards for
Accurate mm-Wave On-Wafer Measurements up to 110 GHz
- Kaiyue Liu,
- Shuchao Liu,
- Zeyu Wang,
- Li-Ming Si,
- Mariangela Latino,
- Giovanni Crupi,
- Houjun Sun,
- Xiue Bao
Zeyu Wang
Beijing Remote Sensing Equipment Research Institute
Author ProfileMariangela Latino
Istituto per i Processi Chimico-Fisici Consiglio Nazionale delle Ricerche
Author ProfileGiovanni Crupi
Universita degli Studi di Messina Centro Linguistico d'Ateneo
Author ProfileXiue Bao
Beijing Institute of Technology
Corresponding Author:xiue.bao@bit.edu.cn
Author ProfileAbstract
In this paper, a simple and novel residual parameter extraction
technique is provided for impedance substrate calibration standards. It
uses the measured scattering parameters of four calibration standards,
i.e., the THRU, SHORT, OPEN, and LOAD standards, with only the DC
resistance known in advance. Based on the electric structures and the
frequency range of interest, the equivalent circuit of each standard is
provided. The residual parameters in the equivalent circuits might show
frequency dependence or frequency non-dependence, which are both
considered in the following analysis. In the parameter extraction
algorithm, no other calibration is needed. Instead, only the recorded
raw data of the four standards are used, by assuming that the two ports
of the SHORT, OPEN, and LOAD standards are symmetric and identical. A
series of validation experiments are performed on a commercial
calibration substrate, within the broad frequency range from 200 MHz to
110 GHz . The results have shown that the extracted residual parameters
by using the proposed method are in very good consistency with the
values provided by the manufacturer. In addition, the extracted
parameters are further used for SOLT calibration, by measuring another
group of calibration standards on the commercial calibration substrate.
The calibration accuracy and reliability are further verified by using
another open structure, a transmission line, and mismatched load.19 Jan 2025Submitted to International Journal of Numerical Modelling: Electronic Networks, Devices and Fields 20 Jan 2025Submission Checks Completed
20 Jan 2025Assigned to Editor
20 Jan 2025Review(s) Completed, Editorial Evaluation Pending
01 Feb 2025Reviewer(s) Assigned