Yuqori samarali mikroto‘lqin-vakuum quritgichlarini qayta tiklanuvchi energiya manbalari asosida takomillashtirish istiqbollari
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mikroto‘lqin-vakuum quritish, qayta tiklanuvchi energiya manbalari, quyosh fotoelektr stansiyasi, energiya samaradorligi, solishtirma energiya sarfi, qattiq jismli mikroto‘lqin generatori, gibrid quritish, energiya saqlashAbstrak
Mazkur maqolada yuqori samarali mikroto‘lqin-vakuum quritish texnologiyasini qayta tiklanuvchi energiya manbalari, birinchi navbatda quyosh fotoelektr tizimlari asosida takomillashtirish istiqbollari tahlil qilingan. Mikroto‘lqin-vakuum quritishning energetik xususiyatlari, elektr energiyasiga asoslanganligi sababli qayta tiklanuvchi manbalar bilan integratsiyalashuv imkoniyati, vakuum muhitida past haroratli quritishning mahsulot sifatiga ta’siri yoritilgan. An’anaviy magnetronlardan qattiq jismli mikroto‘lqin generatorlariga o‘tish, vakuum nasoslarini chastotaviy boshqarish, issiqlikni qayta tiklash, energiya saqlash va raqamli monitoring tizimlarini joriy etish yo‘nalishlari taqqoslangan. Quritish kinetikasi va energetik samaradorlikni baholash uchun namlik nisbati, solishtirma energiya sarfi va quritish samaradorligi formulalari keltirilgan. O‘zbekiston, xususan Buxoro viloyati sharoitida quyosh energetikasi salohiyatidan foydalanish imkoniyatlari Buxoro davlat universitetidagi fotoelektr stansiyalari misolida asoslangan. Natijalar energiya tejamkor, ekologik toza va modulli mikroto‘lqin-vakuum quritish tizimlarini ishlab chiqish uchun ilmiy-amaliy asos bo‘lib xizmat qilishi mumkin
##submission.citations##
How Does Vacuum Microwave Drying Differ From Other Drying Methods? EnWave Corporation, texnik sharh, 2026.
Raxmatov I., Samiyev K., Mirzayev M. Analysis of the efficiency of 300 kW grid-connected solar photovoltaic systems at Bukhara State University. Buxoro davlat universiteti ilmiy-elektron resurslar bazasi, 2023.
O‘zbekiston qayta tiklanuvchi energiya manbalari quvvatini 27 gigavattga oshirmoqchi. Kun.uz, 16.11.2024.
Prezident Shavkat Mirziyoyev qayta tiklanuvchi energiya manbalaridan foydalanishni kengaytirish masalalariga bag‘ishlangan yig‘ilish o‘tkazdi. Prezident matbuot xizmati materiallari, 2024.
2030-yilgacha O‘zbekistonda “yashil” energetikani rivojlantirish rejalari. Ochiq axborot manbasi.
Quyosh fotoelektr stansiyalari loyihalari bo‘yicha texnik-iqtisodiy hisobot: Samarqand va Jizzax viloyatlari. O‘zbekiston Respublikasi Energetika vazirligi.
Solar radiation potential across Uzbekistan’s climatic zones: GHI analysis. Ilmiy nashr.
Freeze Drying vs Microwave Drying. EnWave Corporation, texnik-tahliliy material.
Energy efficiency and drying rates during vacuum microwave drying of wood. European Journal of Wood and Wood Products, 2004.
High-power solid-state microwave generator for RF energy applications. US Patent No. 10,720,310 B2.
Khikmatov B., Mirzaev M., Samiev K., Khamidov O. Performance analysis of 1210 kW grid-connected solar photovoltaic systems at Bukhara State University. Buxoro davlat universiteti ilmiy-elektron resurslar bazasi.
Hybrid energy sources for drying: Solar energy conversion to microwave energy for agricultural and mineral applications. Drying Technology, 2026, 44(3), 287–289.
Korkua S.K., Khongtong S., Ray P.K., Thinsurat K. Cleaner Potential for Natural Rubber Drying Process Using Microwave Technology Powered by Solar Energy. Energies, 2022, 15, 6564.
O‘zbekistonda “yashil” energetika ulushi 45% dan oshdi. Spot.uz, 25.06.2026.
GaN va LDMOS asosidagi sanoat mikroto‘lqin generatorlarining texnik xususiyatlari. RFHIC Corporation va EverythingRF texnik ma’lumotlari.
Bianchi C., Schmid R., Frick D. Microwave Assisted Vacuum Drying Processing: Magnetron vs Solid State – A Case Study of Apple Drying. COMSOL Conference materials.
Atuonwu J.C., Tassou S.A. Quality assurance in microwave food processing and the enabling potentials of solid-state power generators: A review. Journal of Food Engineering, 2018, 234, 1–15.
Kushimov B.A., Mamadaliyev X.J. Qishloq xo‘jaligi hamda meva-sabzavot mahsulotlari quritish uchun energiya tejamkor qurilma va texnologiya. Oriental Renaissance, 2021, 1(9), 869–879.
An N.-n., Li D., Wang L.-j., Wang Y. Factors Affecting Energy Efficiency of Microwave Drying of Foods: An Updated Understanding. Critical Reviews in Food Science and Nutrition, 2024, 64(9), 2618–2633.
Meva-sabzavot mahsulotlarini qayta ishlash va eksport qilish tendensiyalari. “Tendensii razvitiya fiziki kondensirovannix sred – 2024” xalqaro konferensiya materiallari, Farg‘ona davlat universiteti.
Rasooli Sharabiani V., Kaveh M., Abdi R., Szymanek M., Tanaś W. Estimation of moisture ratio for apple drying by convective and microwave methods using artificial neural network modeling. Scientific Reports, 2021, 11, 9155. https://doi.org/10.1038/s41598-021-88270-z.
El-Mesery H.S., Jibril A.N., Hu Z., ElMesiry A.H., Zhang X., Njobeh P.B., Mahdi A.A. Microwave drying effects on modeling thin-layer drying kinetics, energy efficiency analysis, and physical properties of garlic. Scientific Reports, 2026, 16, 23105. https://doi.org/10.1038/s41598-026-53293-x.
Vacuum Microwave Drying as an Efficient Alternative to Hot Air Drying: Optimization, Drying Kinetics, and Quality Retention of Washington Navel Orange Slices. Applied Sciences, 2026, 16(7), 3530.
