Semiconductor Physics, Quantum Electronics & Optoelectronics, 3 (2), P. 170-173 (2000)
https://doi.org/10.15407/spqeo3.02.170


PACS: 77.60, 77.70

Induced polar materials for intense radiation monitoring

I.V. Blonsky, V.F. Kosorotov, L.V. Shchedrina and L.V. Levash

Institute of Physics National Academy of Sciences of Ukraine
46, prospect Nauki, 03650, Kiev , Ukraine
I.V. Blonsky: E-mail: blon@iop.kiev.ua Phone:(044) 265 3138, Fax: (044) 265 1543
V.F. Kosorotov: E-mail: shched@iop.kiev.ua   Phone: (044) 265 6269
L.V. Shchedrina: E-mail: shched@phys.semicond.kiev.ua   Phone: (044) 265 6269
L.V. Levash: E-mail: levash@iop.kiev.ua   Phone: (044) 265 7942

 Semiconductor Physics, Quantum Electronics & Optoelectronics. 2000. V. 3, N 2. P. 170-173.

Abstract. Theoretical and experimental researches on the electric potential spatial distribution in thin crystal plates of zinc selenide and quartz, presented in this paper, is a constituent part of a common approach elaborated for a study of the polar states induced by inhomogeneous heating in a wide class of materials including those not belonging to the polar crystallographic classes. Construction original principles of a new class of the transmission-type power pyroelectric sensors with a maximum attainable upper limit of the dynamic range for an intense radiation monitoring in a wide region of IR spectrum are developed.

Keywords: pyroelectricity, spatially inhomogeneous heating, induced polar state, transmission-type power sensors

Paper received 05.10.99; revised manuscript received 03.11.99; accepted for publication 14.03.00.

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