2018
DOI: 10.1016/j.apradiso.2018.04.031
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High efficiency Dual-Cycle Conversion System using Kr-85

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Cited by 11 publications
(8 citation statements)
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“…A radioluminescent nuclear battery, which is an extensively researched important branch of batteries nowadays, consists of three main components, namely, radiation sources, radioluminescent materials, and photovoltaic devices. The usual conversion approach converts the radioisotope energy into photons via a phosphor and then converts these photons to electricity via a semiconductor junction device. Although the additional radioluminescence (RL) step may lead to a decrease in energy conversion efficiency, this approach can also protect the irradiation-sensitive semiconductors from lattice damage. In order to improve the electrical properties of the radioluminescent nuclear batteries, the specification parameters and structural optimization of these three components have been extensively explored and summarized. Numerous corresponding studies have also been carried out, such as using diverse energy conversion materials, optimizing the structure design, adopting a mixture of radioactive sources and phosphor layers, and adjusting the physical parameters. …”
Section: Introductionmentioning
confidence: 99%
“…A radioluminescent nuclear battery, which is an extensively researched important branch of batteries nowadays, consists of three main components, namely, radiation sources, radioluminescent materials, and photovoltaic devices. The usual conversion approach converts the radioisotope energy into photons via a phosphor and then converts these photons to electricity via a semiconductor junction device. Although the additional radioluminescence (RL) step may lead to a decrease in energy conversion efficiency, this approach can also protect the irradiation-sensitive semiconductors from lattice damage. In order to improve the electrical properties of the radioluminescent nuclear batteries, the specification parameters and structural optimization of these three components have been extensively explored and summarized. Numerous corresponding studies have also been carried out, such as using diverse energy conversion materials, optimizing the structure design, adopting a mixture of radioactive sources and phosphor layers, and adjusting the physical parameters. …”
Section: Introductionmentioning
confidence: 99%
“…In the past decade, investigations on the design of the device structure , [4][5][6] application of various scintillators (organic or inorganic ones), 7 effect and optimization of physical parameters, [8][9][10] and coupling between scintillators and PVDs have been carried out to improve the NB e ciency. 11 Despite the power output and e ciency of NBs have been improved signi cantly, the scintillators employed in these researches were mainly conventional transition or rare earth metal doped phosphors, 7,12,13 which typically possess short emission wavelength or low light yield (LY).…”
Section: Main Textmentioning
confidence: 99%
“…The indirect energy conversion mode can effectively reduce the radiation damage effect of the energy conversion unit in the device. This energy conversion method is expected to be applied to radiation sources with high activity and energy density …”
Section: Introductionmentioning
confidence: 99%
“…This energy conversion method is expected to be applied to radiation sources with high activity and energy density. 9,10 Previous research works mainly focused on revealing the influencing factors of RL nuclear battery and improving the property of electrical output.…”
Section: Introductionmentioning
confidence: 99%