MIKROTO‘LQIN–VAKUUM QURITGICHLARDA ENERGIYA SAMARADORLIGINI OSHIRISHNING ZAMONAVIY USULLARI: KONSTRUKTIV VA TEXNOLOGIK YECHIMLAR TAHLILI
DOI:
https://doi.org/10.5281/zenodo.23167195Abstract
Maqolada mikroto‘lqin–vakuum quritish texnologiyasining energiya samaradorligini oshirishga qaratilgan konstruktiv va texnologik yechimlar bo‘yicha zamonaviy ilmiy adabiyotlar tizimli tahlil qilindi. Mikroto‘lqin energiyasining hajmiy yutilishi, vakuum sharoitida namlikning past haroratlarda bug‘lanishi, materialning dielektrik xossalari, mikroto‘lqin quvvat zichligi, vakuum darajasi, yuklama, qatlam qalinligi, impulsli energiya berish va aylanuvchi ishchi organlarning quritish kinetikasi hamda solishtirma energiya sarfiga ta’siri umumlashtirildi. Pilot miqyosdagi tadqiqotlar energiya sarfini faqat magnetron quvvati bilan baholash yetarli emasligini, vakuum nasosi, sovitish konturi, kondensator va yordamchi elektr jihozlarining sarfi ham hisobga olinishi zarurligini ko‘rsatadi. So‘nggi ishlarda COMSOL asosidagi ko‘p fizikaviy modellashtirish, sun’iy neyron tarmoqlar, elektron burun va adaptiv boshqaruv vositalari harorat va namlik maydonining notekisligini kamaytirish uchun qo‘llanmoqda. Adabiyotlar tahlili asosida yuqori samarali quritgich uchun impulsli mikroto‘lqin rejimi, nazorat qilinadigan vakuum, aylanuvchi platforma yoki aralashtiruvchi organ, kondensatsiya issiqligini qayta ishlatish va real vaqt monitoringini birlashtirgan arxitektura istiqbolli deb asoslandi. Mahalliy qishloq xo‘jaligi mahsulotlarini qayta ishlash sharoitlari uchun tadqiqot bo‘shliqlari va tajriba yo‘nalishlari shakllantirildi.Keywords
mikroto‘lqin–vakuum quritish, energiya samaradorligi, solishtirma energiya sarfi, vakuum darajasi, quvvat zichligi, issiqlik va massa almashinuvi, COMSOL, sun’iy neyron tarmoq, impulsli rejim, qayta tiklanadigan energiyaReferences
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