Performance Modeling Of Terahertz (Thz) And Millimeter Waves (Mmw) Pupil Plane Imaging
Keywords
antenna array; millimeter wave (mmW); modulation transfer function (MTF); point spread function (PSF); pupil plane imaging; resolution; sensitivity; system performance; terahertz (THz)
Abstract
Terahertz- (THz) and millimeter-wave sensors are becoming more important in industrial, security, medical, and defense applications. A major problem in these sensing areas is the resolution, sensitivity, and visual acuity of the imaging systems. There are different fundamental parameters in designing a system that have significant effects on the imaging performance. The performance of THz systems can be discussed in terms of two characteristics: sensitivity and spatial resolution. New approaches for design and manufacturing of THz imagers are a vital basis for developing future applications. Photonics solutions have been at the technological forefront in THz band applications. A single scan antenna does not provide reasonable resolution, sensitivity, and speed. An effective approach to imaging is placing a high-performance antenna in a two-dimensional antenna array to achieve higher radiation efficiency and higher resolution in the imaging systems. Here, we present the performance modeling of a pupil plane imaging system to find the resolution and sensitivity efficiency of the imaging system.
Publication Date
1-1-2018
Publication Title
Proceedings of SPIE - The International Society for Optical Engineering
Volume
10625
Document Type
Article; Proceedings Paper
Personal Identifier
scopus
DOI Link
https://doi.org/10.1117/12.2311496
Copyright Status
Unknown
Socpus ID
85048110793 (Scopus)
Source API URL
https://api.elsevier.com/content/abstract/scopus_id/85048110793
STARS Citation
Mohammadian, Nafiseh; Furxhi, Orges; Zhang, Lei; Offermans, Peter; and Ghazi, Galia, "Performance Modeling Of Terahertz (Thz) And Millimeter Waves (Mmw) Pupil Plane Imaging" (2018). Scopus Export 2015-2019. 8123.
https://stars.library.ucf.edu/scopus2015/8123