TO STUDY THE DISTRIBUTION OF THE DENSITY OF THE RADIANT ENERGY FLUX IN THE FOCAL PLANE OF THE PARABOLOID OF CYLINDRICAL CONCENTRATORS

Umid  Turdialiyev; Bobirmirzo  Xasanov; Alijon Djumabayev

PDF

Published: 2023-10-10

Keywords:

concentrating, reflector, Gauss distribution, composite materials, nanodisperse fillers, modifiers, component, particles, nanocomposites, nanostructures, nanomaterial, synthesis, condensation, thermolysis, dehydroxylation.

Turdialiyev Umid Mukhtaraliyevich

Doctor of Technical Sciences, Professor Andijan machine building institute Andijan, Uzbekistan

Xasanov Bobirmirzo Maxmudali ugli

doctoral student in technical sciences Andijan machine building institute Andijan, Uzbekistan

Djumabayev Alijon Bakishevich

Doctor of Technical Sciences, Professor Andijan machine building institute Andijan, Uzbekistan

Abstract

This article distribution of the radiant energy density in the focal plane of concentrating mirrors obeys the law of the normal distribution of probability theory (Gauss distribution), in which small inaccuracies in the shape of the reflector are considered random. In modern materials science and technology of composite materials for functional coatings, nanodisperse fillers and modifiers obtained from various semi-finished products, including natural ones, play a special role

Downloads

Download data is not yet available.

Issue

Vol. 3 No. 10 (2023): International Bulletin of Applied Science and Technology

Section

Articles

This work is licensed under a Creative Commons Attribution 4.0 International License.

How to Cite

TO STUDY THE DISTRIBUTION OF THE DENSITY OF THE RADIANT ENERGY FLUX IN THE FOCAL PLANE OF THE PARABOLOID OF CYLINDRICAL CONCENTRATORS. (2023). International Bulletin of Applied Science and Technology, 3(10), 143-147. https://researchcitations.com/index.php/ibast/article/view/2772

References

Жимерин Д.Г. Энергетика. Настоящее и будущее. – М.: Знание, 1978. – 189 с.

Соbb1е М. Н. Theoretical concentrations for solar furnaces //Solar Energy. – 1961. – Vol. 5, 2. – P. 61-72.

Sharver W. W., Duffi W.S. Solar thermal electric power systems composition of lin-focus collectors //Solar Energy. –1979. – Vol. 22, 2. – P. 49-61.

Ласло Т. Оптические высокотемпературные печи. – М.: Мир, 1968. – 207 с.

Апариси Р.Р. Экспериментальная установка для получения высоких температур //Использование солнечной энергии. – М.: Изд-во РАН, 1957. – С. 151-152.

Автономная солнечная установка обеззараживания воды концентрированным УФ-излучением с производительностью 1,5 м3 /час. ГНЦ РФ ГУП «НПО Астрофизика», www.tppchuvashia.ru. – 2003. – 6 с.

Автономная солнечная энергетическая установка с повышенным коэффициентом концентрации, предназначенная для систем термохимического получения водорода. ГНЦ РФ ГУП «НПО Астрофизика», www.tppchuvashia.ru. – 2003. – 12 с.

Шпильрайн Э.Э. Проблемы и перспективы возобновляемой энергии в России. www.hitechno.ru. – 2004. – 25 с.

Khasanov B.M Qorachayeva O.A. Akhmadaliyev O.M Results of development and experimental studies of a solar thermoelectric generator (STEG) with a heat pipe and a parabola cylindrical concentrator Scientific ideas of young scientists 2022 DOI: http://doi.org/10.5281zenodo.6562641

Article Sidebar

Main Article Content