Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter

The miniature and low-power devices with long service life in hard operating conditions like the Carbon-14 beta-decay energy converters indeed as eternal resource for integrated MEMS and NEMS are considered. Authors discuss how to create the power supply for MEMS/NEMS devices, based on porous SiC/Si...

Full description

Bibliographic Details
Main Authors: Akimchenko Alina, Chepurnov Victor, Dolgopolov Mikhail, Gurskaya Albina, Kuznetsov Oleg, Mashnin Alikhan, Radenko Vitaliy, Radenko Alexander, Surnin Oleg, Zanin George
Format: Article
Language:English
Published: EDP Sciences 2017-01-01
Series:EPJ Web of Conferences
Online Access:https://doi.org/10.1051/epjconf/201715806004
id doaj-5b8b5cebcd194d33bd91ae171b616145
record_format Article
spelling doaj-5b8b5cebcd194d33bd91ae171b6161452021-08-02T05:56:20ZengEDP SciencesEPJ Web of Conferences2100-014X2017-01-011580600410.1051/epjconf/201715806004epjconf_qfthep2017_06004Betavoltaic device in por-SiC/Si C-Nuclear Energy ConverterAkimchenko AlinaChepurnov VictorDolgopolov MikhailGurskaya AlbinaKuznetsov OlegMashnin AlikhanRadenko VitaliyRadenko AlexanderSurnin OlegZanin GeorgeThe miniature and low-power devices with long service life in hard operating conditions like the Carbon-14 beta-decay energy converters indeed as eternal resource for integrated MEMS and NEMS are considered. Authors discuss how to create the power supply for MEMS/NEMS devices, based on porous SiC/Si structure, which are tested to be used as the beta-decay energy converters of radioactive C-14 into electrical energy. This is based on the silicon carbide obtaining by self-organizing mono 3C-SiC endotaxy on the Si substrate. The new idea is the C-14 atoms including in molecules in the silicon carbide porous structure by this technology, which will increase the efficiency of the converter due to the greater intensity of electron-hole pairs generation rate in the space charge region. The synthesis of C-14 can be also performed by using the electronically controlled magneto-optic chamber.https://doi.org/10.1051/epjconf/201715806004
collection DOAJ
language English
format Article
sources DOAJ
author Akimchenko Alina
Chepurnov Victor
Dolgopolov Mikhail
Gurskaya Albina
Kuznetsov Oleg
Mashnin Alikhan
Radenko Vitaliy
Radenko Alexander
Surnin Oleg
Zanin George
spellingShingle Akimchenko Alina
Chepurnov Victor
Dolgopolov Mikhail
Gurskaya Albina
Kuznetsov Oleg
Mashnin Alikhan
Radenko Vitaliy
Radenko Alexander
Surnin Oleg
Zanin George
Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter
EPJ Web of Conferences
author_facet Akimchenko Alina
Chepurnov Victor
Dolgopolov Mikhail
Gurskaya Albina
Kuznetsov Oleg
Mashnin Alikhan
Radenko Vitaliy
Radenko Alexander
Surnin Oleg
Zanin George
author_sort Akimchenko Alina
title Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter
title_short Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter
title_full Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter
title_fullStr Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter
title_full_unstemmed Betavoltaic device in por-SiC/Si C-Nuclear Energy Converter
title_sort betavoltaic device in por-sic/si c-nuclear energy converter
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2017-01-01
description The miniature and low-power devices with long service life in hard operating conditions like the Carbon-14 beta-decay energy converters indeed as eternal resource for integrated MEMS and NEMS are considered. Authors discuss how to create the power supply for MEMS/NEMS devices, based on porous SiC/Si structure, which are tested to be used as the beta-decay energy converters of radioactive C-14 into electrical energy. This is based on the silicon carbide obtaining by self-organizing mono 3C-SiC endotaxy on the Si substrate. The new idea is the C-14 atoms including in molecules in the silicon carbide porous structure by this technology, which will increase the efficiency of the converter due to the greater intensity of electron-hole pairs generation rate in the space charge region. The synthesis of C-14 can be also performed by using the electronically controlled magneto-optic chamber.
url https://doi.org/10.1051/epjconf/201715806004
work_keys_str_mv AT akimchenkoalina betavoltaicdeviceinporsicsicnuclearenergyconverter
AT chepurnovvictor betavoltaicdeviceinporsicsicnuclearenergyconverter
AT dolgopolovmikhail betavoltaicdeviceinporsicsicnuclearenergyconverter
AT gurskayaalbina betavoltaicdeviceinporsicsicnuclearenergyconverter
AT kuznetsovoleg betavoltaicdeviceinporsicsicnuclearenergyconverter
AT mashninalikhan betavoltaicdeviceinporsicsicnuclearenergyconverter
AT radenkovitaliy betavoltaicdeviceinporsicsicnuclearenergyconverter
AT radenkoalexander betavoltaicdeviceinporsicsicnuclearenergyconverter
AT surninoleg betavoltaicdeviceinporsicsicnuclearenergyconverter
AT zaningeorge betavoltaicdeviceinporsicsicnuclearenergyconverter
_version_ 1721240724910899200