Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2

CuInSe2 thin-film solar cells are promising materials for photovoltaic devices. One of the main tasks of researchers is to find ways to increase the solar cells efficiency. In this paper we propose an original structure of a thin-film solar cell based on a tandem connection of a photoelectric conver...

Full description

Bibliographic Details
Main Authors: A. K. Esman, V. K. Kuleshov, V. A. Potachits, G. L. Zykov
Format: Article
Language:Russian
Published: Belarusian National Technical University 2018-10-01
Series:Izvestiâ Vysših Učebnyh Zavedenij i Ènergetičeskih ob Edinennij SNG. Ènergetika
Subjects:
Online Access:https://energy.bntu.by/jour/article/view/1394
_version_ 1797879754527866880
author A. K. Esman
V. K. Kuleshov
V. A. Potachits
G. L. Zykov
author_facet A. K. Esman
V. K. Kuleshov
V. A. Potachits
G. L. Zykov
author_sort A. K. Esman
collection DOAJ
description CuInSe2 thin-film solar cells are promising materials for photovoltaic devices. One of the main tasks of researchers is to find ways to increase the solar cells efficiency. In this paper we propose an original structure of a thin-film solar cell based on a tandem connection of a photoelectric converter and a thermoelectric layer based on CuInSe2. The photoelectric converter consists of CuInSe2 and CdS layers. A 3D model of the proposed thin-film solar cell was implemented in the COMSOL Multiphysics environment with using the Heat Transfer module. The simulation was carried out taking into account the diurnal and seasonal variations of both the ambient temperature and the power density of the AM1.5 solar spectrum for the geographical coordinates of Minsk. The solar radiation power density of about 500 kW/m2 can be achieved by using concentrators. The temperature pattern and temperature gradients are calculated in each layer of the solar cell without and with the temperature stabilization of the substrate back side as well as without and with the thermal insulation of the substrate ends. Graphs of the temperature gradients of the thermoelectric layer and the temperature variations of the photoelectric converter of the solar cell are given. As a result of the simulation, it is shown how the uneven heating of both the surface of a thin-film solar cell and its layers occur under conditions of diurnal and seasonal variations of both the ambient temperature and the solar radiation power density. Under concentrated solar radiation exposure, the photoelectric converter surface can be heated up to 700 °C without temperature stabilization of the solar cell substrate. The operating temperature of the photoelectric converter was maintained at no more than 2.35 °C in January and at no more than 14.23 °C in July due to the temperature stabilization of the substrate back side of the proposed device. This made it possible to achieve an increase in the output power of the solar cell both by summing the photoand thermoelectric output voltages and by the concentration of solar radiation.
first_indexed 2024-04-10T02:53:27Z
format Article
id doaj.art-a99028f748674312a5e7c8ba6a330e04
institution Directory Open Access Journal
issn 1029-7448
2414-0341
language Russian
last_indexed 2024-04-10T02:53:27Z
publishDate 2018-10-01
publisher Belarusian National Technical University
record_format Article
series Izvestiâ Vysših Učebnyh Zavedenij i Ènergetičeskih ob Edinennij SNG. Ènergetika
spelling doaj.art-a99028f748674312a5e7c8ba6a330e042023-03-13T07:41:51ZrusBelarusian National Technical UniversityIzvestiâ Vysših Učebnyh Zavedenij i Ènergetičeskih ob Edinennij SNG. Ènergetika1029-74482414-03412018-10-0161538539510.21122/1029-7448-2018-61-5-385-3951340Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2A. K. Esman0V. K. Kuleshov1V. A. Potachits2G. L. Zykov3Белорусский национальный технический университетУниверситет гражданской защиты Министерства по чрезвычайным ситуациям Республики БеларусьБелорусский национальный технический университетБелорусский национальный технический университетCuInSe2 thin-film solar cells are promising materials for photovoltaic devices. One of the main tasks of researchers is to find ways to increase the solar cells efficiency. In this paper we propose an original structure of a thin-film solar cell based on a tandem connection of a photoelectric converter and a thermoelectric layer based on CuInSe2. The photoelectric converter consists of CuInSe2 and CdS layers. A 3D model of the proposed thin-film solar cell was implemented in the COMSOL Multiphysics environment with using the Heat Transfer module. The simulation was carried out taking into account the diurnal and seasonal variations of both the ambient temperature and the power density of the AM1.5 solar spectrum for the geographical coordinates of Minsk. The solar radiation power density of about 500 kW/m2 can be achieved by using concentrators. The temperature pattern and temperature gradients are calculated in each layer of the solar cell without and with the temperature stabilization of the substrate back side as well as without and with the thermal insulation of the substrate ends. Graphs of the temperature gradients of the thermoelectric layer and the temperature variations of the photoelectric converter of the solar cell are given. As a result of the simulation, it is shown how the uneven heating of both the surface of a thin-film solar cell and its layers occur under conditions of diurnal and seasonal variations of both the ambient temperature and the solar radiation power density. Under concentrated solar radiation exposure, the photoelectric converter surface can be heated up to 700 °C without temperature stabilization of the solar cell substrate. The operating temperature of the photoelectric converter was maintained at no more than 2.35 °C in January and at no more than 14.23 °C in July due to the temperature stabilization of the substrate back side of the proposed device. This made it possible to achieve an increase in the output power of the solar cell both by summing the photoand thermoelectric output voltages and by the concentration of solar radiation.https://energy.bntu.by/jour/article/view/1394тонкопленочный солнечный элемент cuinse2численное моделированиеcomsol multiphysicsтермоэлектрический слойфотоэлектрический преобразовательградиент температурытермостабилизацияподложкаконцентратор солнечного излучения
spellingShingle A. K. Esman
V. K. Kuleshov
V. A. Potachits
G. L. Zykov
Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2
Izvestiâ Vysših Učebnyh Zavedenij i Ènergetičeskih ob Edinennij SNG. Ènergetika
тонкопленочный солнечный элемент cuinse2
численное моделирование
comsol multiphysics
термоэлектрический слой
фотоэлектрический преобразователь
градиент температуры
термостабилизация
подложка
концентратор солнечного излучения
title Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2
title_full Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2
title_fullStr Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2
title_full_unstemmed Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2
title_short Simulation of Tandem Thin-Film Solar Cell on the Basis of CuInSe2
title_sort simulation of tandem thin film solar cell on the basis of cuinse2
topic тонкопленочный солнечный элемент cuinse2
численное моделирование
comsol multiphysics
термоэлектрический слой
фотоэлектрический преобразователь
градиент температуры
термостабилизация
подложка
концентратор солнечного излучения
url https://energy.bntu.by/jour/article/view/1394
work_keys_str_mv AT akesman simulationoftandemthinfilmsolarcellonthebasisofcuinse2
AT vkkuleshov simulationoftandemthinfilmsolarcellonthebasisofcuinse2
AT vapotachits simulationoftandemthinfilmsolarcellonthebasisofcuinse2
AT glzykov simulationoftandemthinfilmsolarcellonthebasisofcuinse2