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Victor L Kantsyrev

from Reno, NV
Age ~76

Victor Kantsyrev Phones & Addresses

  • 2165 Angel Ridge Dr, Reno, NV 89521
  • 1565 Roma Ct, Reno, NV 89523
  • Washoe, NV

Publications

Us Patents

Capillary Polarimeter

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US Patent:
6389107, May 14, 2002
Filed:
May 5, 1999
Appl. No.:
09/305853
Inventors:
Victor L. Kantsyrev - Reno NV, 89557-0058
Reinhard F. Bruch - Reno NV, 89557-0058
Alla S. Shlyaptseva - Reno NV, 89557-0058
International Classification:
G21K 100
US Classification:
378145, 378 84
Abstract:
A system is provided for measuring the polarity and intensity of extreme ultraviolet, soft x-ray, and x-ray radiation. The system comprises a reflective surface, a capillary array, and a detector. The reflective surface is adapted to reflect radiation from a source on to a receiving end of the capillary array. The reflective surface may have a variety of shapes, such as a curved, parabolic shape or a flat shape, for reflecting the radiation in a desired manner. The capillary array may also have a variety of shapes for directing the radiation to the detector, such as a curved shape or a conical shape. The capillaries in the capillary arrays may have an inner diameter that decreases from the receiving end of the array to the emitting end of the array. This increases the flux density of the radiation emitted by the capillary array and helps the detector measure weak radiation.

Capillary Spectrometer

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US Patent:
59910240, Nov 23, 1999
Filed:
May 29, 1998
Appl. No.:
9/087395
Inventors:
Bruno S. Bauer - Reno NV
Victor Kantsyrev - Reno NV
International Classification:
G01D 328
US Classification:
356326
Abstract:
A capillary spectrometer is disclosed for observing radiation from a source. The spectrometer comprises a capillary array, a dispersive element, and a short wavelength imaging detector. The capillary guide comprises a receiving end and an emitting end. The receiving end is positioned so that it may receive radiation from the source. As radiation travels through the capillary guide, the course of the radiation is changed so that it is emitted in a predetermined path or paths from the emitting end. The emitted radiation falls on the dispersing element which disperses the radiation into a predetermined pattern. The radiation then falls on sensors of the short wavelength imaging detector which generate electrical signals in response to the frequency and intensity of radiation. Insulators may be used to prevent discrete rays of radiation from interfering with each other as they pass from the capillary guide to the short wavelength imaging detector. The short wavelength imaging detector may be adapted to gather data for specific periods of time during an emitting event so that changes in the radiation may be observed over time.
Victor L Kantsyrev from Reno, NV, age ~76 Get Report