An Advanced Presence Detection System Using the CMOS Infrared (CIR) Technology

Date

2017-04-13

Author

Arslan, Tugay
Cilbir, Gorkem
Tepegoz, Murat
Akın, Tayfun

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This paper presents the development of advanced presence detection system using the CMOS infrared (CIR) technology. The recent advancements on microbolometer type uncooled LWIR imaging sensor technology allowed to reduce the fabrication cost of the microbolometer type detectors and the overall wafer cost and therefore to increase the use of this technology in a number of emerging applications, including various consumer applications and advance presence detection systems for smart buildings and smart offices. Such applications require even lower cost detectors, which can be achieved with a recently introduced CMOS infrared (CIR) technology that enables the mass fabrication of microbolometer type sensors in almost any CMOS foundries without additional equipment investment. This paper introduces an advanced presence detection system which uses an LWIR microbolometer type sensor fabricated using the CIR technology. The advanced presence detection (APD) system can provide 80x80 infrared video together with the temperature map of the scene where the sensor can collect LWIR radiation using 120 degrees wide FOV lens. The embedded microprocessor can process the infrared video and provide real time number of people data as output. The APD system can both provide SPI interface for OEM developers and USB interface for fast evaluation and prototyping.

Subject Keywords

Microbolometer, Presence detection, Image processing, Low cost thermal imaging, Infrared, LWIR, Thermal cameras

URI

https://hdl.handle.net/11511/36593

DOI

https://doi.org/10.1117/12.2275165

Collections

Department of Electrical and Electronics Engineering, Conference / Seminar

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Citation Formats

T. Arslan, G. Cilbir, M. Tepegoz, and T. Akın, “An Advanced Presence Detection System Using the CMOS Infrared (CIR) Technology,” 2017, vol. 10177, Accessed: 00, 2020. [Online]. Available: https://hdl.handle.net/11511/36593.