GELIOPIROLIZ QURILMASIDA MUQOBIL YOQILG‘ILAR OLISHNING ISSIQLIKTEXNIK REJIMINI TADQIQ QILISH

Almardanov Hamidulla Abdig'aniyevich; Mamatova Maftuna Shodiyon qizi

Kirish. Maqolada parabolik quyosh konsentratorli geliopiroliz qurilmasidaa

kungaboqar o‘simligi chiqindilarini pirolizi jarayonini issiqlik-texnologik rejimi tadqiqoti natijalari

keltirilgan. Geliopiroliz jarayonini tadqiqot qilish uchun tajriba parabolik quyosh kotsentratorli

geliopiroliz qurilmasi yaratilgan. Kungaboqar o‘simligi chiqindisini termik qayta ishlash

jarayonida chiquvchi mahsulotlarni haroratga bog‘liqligi va material balansi tajribalarda

o‘rganilgan. Qurilmada o‘tkazilgan tajribalarda geliopiroliz reaktoriga yuklangan 1 kg

kungaboqar o‘simligi chiqindisi pirolizi natijasida 63 % bioko‘mir, 10 % suyuq va 27 % gazsimon

yoqilg‘ilar olishga erishilgan.

Usul va materiallar. Parabolik quyosh konsentratorli geliopiroliz qurilmasi reaktoriga

yuklangan biomassadan ajralib chiqqan bioyoqilg‘ilarning material balansi laboratoriya

sharoitida boshlang‘ich namligi 10 % va o‘lchami 6÷8 mm bo‘lgan holatda amalga oshirildi.

Tadqiqotlar kungaboqar o‘simligi chiqindisida amalga oshirilgan.

Natijalar. Olib borilgan tajribalarga ko‘ra piroliz mahsulotlarining umumiy chiqish miqdori

350-400 oC harorat intervalida o‘zgarishiga kam bog‘liq bo‘lishi aniqlandi. Shunday qilib,

tajribada yuklangan 1 kg kungaboqar o‘simligi chiqindisi pirolizi natijasida 63 % bioko‘mir, 10 %

suyuq va 27 % gazsimon yoqilg‘ilar olishga erishildi.

Xulosa. Ishlab chiqilgan parabolik kuyosh konsentratorli geliopiroliz qurilmasi kunduzgi

rejimda siklni amalga oshirish uchun xususiy ehtiyojiga sarflanadigan energiyani quyosh

issiqligidan qoplash imkonini beradi. Parabolik quyosh konsentratorili geliopiroliz qurilmasida

olib borilgan eksperimental tadqiqotlar natijasida kungaboqar o‘simligi chiqindisi pirolizidan

qattiq, suyuq va gazsimon yoqilg‘i namunalari olish mumkinligi aniqlandi.

Журнал номиMUQOBIL ENERGETIKA
Нашр номи01 (12) 2024
Кўришлар сони 4

Internet ҳавола

DOI

UzSCI тизимида яратилган сана 16-09-2024

Ўқишлар сони 4

Нашр санаси 18-03-2024

Мақола тилиO'zbek

Саҳифалар сони70-76

Калит сўзлар

quyosh energiyasi

parabolik konsentrator

muqobil yoqilg‘i

biomassa pirolizi

piroliz reaktori

quyosh geliopiroliz qurilmasi

biomassa energiyasi

Ўзбек

Kirish. Maqolada parabolik quyosh konsentratorli geliopiroliz qurilmasidaa

kungaboqar o‘simligi chiqindilarini pirolizi jarayonini issiqlik-texnologik rejimi tadqiqoti natijalari

keltirilgan. Geliopiroliz jarayonini tadqiqot qilish uchun tajriba parabolik quyosh kotsentratorli

geliopiroliz qurilmasi yaratilgan. Kungaboqar o‘simligi chiqindisini termik qayta ishlash

jarayonida chiquvchi mahsulotlarni haroratga bog‘liqligi va material balansi tajribalarda

o‘rganilgan. Qurilmada o‘tkazilgan tajribalarda geliopiroliz reaktoriga yuklangan 1 kg

kungaboqar o‘simligi chiqindisi pirolizi natijasida 63 % bioko‘mir, 10 % suyuq va 27 % gazsimon

yoqilg‘ilar olishga erishilgan.

Usul va materiallar. Parabolik quyosh konsentratorli geliopiroliz qurilmasi reaktoriga

yuklangan biomassadan ajralib chiqqan bioyoqilg‘ilarning material balansi laboratoriya

sharoitida boshlang‘ich namligi 10 % va o‘lchami 6÷8 mm bo‘lgan holatda amalga oshirildi.

Tadqiqotlar kungaboqar o‘simligi chiqindisida amalga oshirilgan.

Natijalar. Olib borilgan tajribalarga ko‘ra piroliz mahsulotlarining umumiy chiqish miqdori

350-400 oC harorat intervalida o‘zgarishiga kam bog‘liq bo‘lishi aniqlandi. Shunday qilib,

tajribada yuklangan 1 kg kungaboqar o‘simligi chiqindisi pirolizi natijasida 63 % bioko‘mir, 10 %

suyuq va 27 % gazsimon yoqilg‘ilar olishga erishildi.

Xulosa. Ishlab chiqilgan parabolik kuyosh konsentratorli geliopiroliz qurilmasi kunduzgi

rejimda siklni amalga oshirish uchun xususiy ehtiyojiga sarflanadigan energiyani quyosh

issiqligidan qoplash imkonini beradi. Parabolik quyosh konsentratorili geliopiroliz qurilmasida

olib borilgan eksperimental tadqiqotlar natijasida kungaboqar o‘simligi chiqindisi pirolizidan

qattiq, suyuq va gazsimon yoqilg‘i namunalari olish mumkinligi aniqlandi.

Калит сўзлар

quyosh energiyasi

parabolik konsentrator

muqobil yoqilg‘i

biomassa pirolizi

piroliz reaktori

quyosh geliopiroliz qurilmasi

biomassa energiyasi

№ Муаллифнинг исми Лавозими Ташкилот номи

1 Almardanov H.A. katta o'qituvchi QarMII

2 Mamatova M.S. doktorant QarMII

№ Ҳавола номи

1 Avezov, R.R., Vokhidov, A.U., Kuralov, M.A. Principles of development of solar energy in the Republic of Uzbekistan, Modern problems of renewable energy, A collection of materials of the respublican scientific-practical conference, Karshi, March, 18, 11-13 (2018)

2 Abdurakhmanov, A., Kuchkarov, A.A., Holov, Sh.R., Abdumuminov, A. “Calculation of optical-geometrical characteristics of parabolic-cylindrical mirror concentrating systems”, European science review. 2017. Vol. 2. P. 201-204.

3 Klychev, Sh.I., Zakhidov, R.A., Bakhramov, S.A., Dudko, Yu.A., Khudoikulov, A.Ya., Klychev, Z.Sh., Khudoiberdiev, I.A. “Parameter optimization for paraboloid-cylinder-receiver system of thermal power plants”, Applied Solar Energy. Applied Solar Energy. 2009. Vol. 45. No. 4. pp. 281–284.

4 Avezov, R.R., Avezova, N.R., Matchanov, N.A., Suleimanov, Sh.I., Abdukadirova, R.D. “History and State of Solar Engineering in Uzbekistan”, Applied Solar Energy, 2012, Vol. 48, No. 1, pp. 14–19.

5 Amal, E.K., Oumaima, E.A., Elhassan, A. CFD Simulation of Temperature Distribution in a Parabolic Trough Collector. Appl. Sol. Energy 59, 311–323 (2023).

6 Koishiyev, T.K., Bekzhan, Z.B., Saribayev, A.S. Optimization Issues, Computer Modeling, and Visualization of the Efficiency Coefficient of Optical Systems of Solar Furnaces and Solar Power Plants. Appl. Sol. Energy 59, 324–328 (2023).

7 Abdurakhmanov, A.A. Akhadov, Zh.Z. Concentrating systems and determination of optimal parameters of the light-receiving surface, Appl. Sol. Energy, 2004, vol. 40, no. 3, p 39

8 Akhadov, J.Z. Study of the Performance Characteristics of a Solar Concentrator for Production of Thermal Energy. Appl. Sol. Energy 59, 169–175 (2023).

9 Li, R., Zeng, K., Soria, J.E., Mazza, G.A., Gauthier, Rodriguez, D.R., Flamant, G. Product distribution from solar pyrolysis of agricultural and forestry biomass residues. Renew. Energy 89, 27–35.

10 Luzzi, A., Lovegrove. K. Solar Thermal Power Generation, Australian National University, Camberra, 2004, pp. 669–683.

11 Nzihou, A., Flamant, G., Stanmore, B. Synthetic fuels from biomass using concentrated solar energy - a review. Energy 2012 (42), 121–131.

12 Uzoqov G‘.N., Almardanov H.A. Biomassa geliopirolizi jarayonida suyuq mahsulotlarni chiqish miqdoriga ta’sir etuvchi parametrlarni baholash. // Fan va texnologiyalar. – 2023. – №6(58). – 45–53 b.

13 Uzakov, G.N., Almardanov, X.A. Study of the Material Balance of a Heliopyrolysis Device with a Parabolic Solar Concentrator. Appl. Sol. Energy 59, 739–746 (2023).

14 Uzakov G.N., Novik A.V., Davlonov X.A., Almardanov X.A., Chuliev S.E. Heat and Material Balance of Heliopyrolysis Device. Energetika. Proceedings of CIS higher education institutions and power engineering associations. 2023; 66(1):57-65.

15 Uzakov, G.N., Almardanov, X.A., Kodirov, I.N., Aliyarova, L.A. Studying the temperature regime of the heliopyrolysis device reactor. E3S Web of Conferences, 2023, 411, 01040.

16 Davlonov X., Study on heat and material balance of heliopyrolysis device, AIP Conference Proceedings, 2686, 020023 (2022)

17 Almardanov, H. and Chuliyev, S. 2022. Biomassadan geliopiroliz usulida yoqilg‘i olish tajriba qurilmasining parametrlarini asoslash. Innovatsion texnologiyalar. 1, 4 (Nov. 2022), 92–96.

18 G.N. Uzakov, X.A. Almardanov, I.N. Kodirov, L.A. Aliyarova. Modeling the heat balance of a solar concentrator heliopyrolysis device reactor. BIO Web Conf., 71 (2023) 01098.

Кутилмоқда

№	Муаллифнинг исми	Лавозими	Ташкилот номи
1	Almardanov H.A.	katta o'qituvchi	QarMII
2	Mamatova M.S.	doktorant	QarMII

№	Ҳавола номи
1	Avezov, R.R., Vokhidov, A.U., Kuralov, M.A. Principles of development of solar energy in the Republic of Uzbekistan, Modern problems of renewable energy, A collection of materials of the respublican scientific-practical conference, Karshi, March, 18, 11-13 (2018)
2	Abdurakhmanov, A., Kuchkarov, A.A., Holov, Sh.R., Abdumuminov, A. “Calculation of optical-geometrical characteristics of parabolic-cylindrical mirror concentrating systems”, European science review. 2017. Vol. 2. P. 201-204.
3	Klychev, Sh.I., Zakhidov, R.A., Bakhramov, S.A., Dudko, Yu.A., Khudoikulov, A.Ya., Klychev, Z.Sh., Khudoiberdiev, I.A. “Parameter optimization for paraboloid-cylinder-receiver system of thermal power plants”, Applied Solar Energy. Applied Solar Energy. 2009. Vol. 45. No. 4. pp. 281–284.
4	Avezov, R.R., Avezova, N.R., Matchanov, N.A., Suleimanov, Sh.I., Abdukadirova, R.D. “History and State of Solar Engineering in Uzbekistan”, Applied Solar Energy, 2012, Vol. 48, No. 1, pp. 14–19.
5	Amal, E.K., Oumaima, E.A., Elhassan, A. CFD Simulation of Temperature Distribution in a Parabolic Trough Collector. Appl. Sol. Energy 59, 311–323 (2023).
6	Koishiyev, T.K., Bekzhan, Z.B., Saribayev, A.S. Optimization Issues, Computer Modeling, and Visualization of the Efficiency Coefficient of Optical Systems of Solar Furnaces and Solar Power Plants. Appl. Sol. Energy 59, 324–328 (2023).
7	Abdurakhmanov, A.A. Akhadov, Zh.Z. Concentrating systems and determination of optimal parameters of the light-receiving surface, Appl. Sol. Energy, 2004, vol. 40, no. 3, p 39
8	Akhadov, J.Z. Study of the Performance Characteristics of a Solar Concentrator for Production of Thermal Energy. Appl. Sol. Energy 59, 169–175 (2023).
9	Li, R., Zeng, K., Soria, J.E., Mazza, G.A., Gauthier, Rodriguez, D.R., Flamant, G. Product distribution from solar pyrolysis of agricultural and forestry biomass residues. Renew. Energy 89, 27–35.
10	Luzzi, A., Lovegrove. K. Solar Thermal Power Generation, Australian National University, Camberra, 2004, pp. 669–683.
11	Nzihou, A., Flamant, G., Stanmore, B. Synthetic fuels from biomass using concentrated solar energy - a review. Energy 2012 (42), 121–131.
12	Uzoqov G‘.N., Almardanov H.A. Biomassa geliopirolizi jarayonida suyuq mahsulotlarni chiqish miqdoriga ta’sir etuvchi parametrlarni baholash. // Fan va texnologiyalar. – 2023. – №6(58). – 45–53 b.
13	Uzakov, G.N., Almardanov, X.A. Study of the Material Balance of a Heliopyrolysis Device with a Parabolic Solar Concentrator. Appl. Sol. Energy 59, 739–746 (2023).
14	Uzakov G.N., Novik A.V., Davlonov X.A., Almardanov X.A., Chuliev S.E. Heat and Material Balance of Heliopyrolysis Device. Energetika. Proceedings of CIS higher education institutions and power engineering associations. 2023; 66(1):57-65.
15	Uzakov, G.N., Almardanov, X.A., Kodirov, I.N., Aliyarova, L.A. Studying the temperature regime of the heliopyrolysis device reactor. E3S Web of Conferences, 2023, 411, 01040.
16	Davlonov X., Study on heat and material balance of heliopyrolysis device, AIP Conference Proceedings, 2686, 020023 (2022)
17	Almardanov, H. and Chuliyev, S. 2022. Biomassadan geliopiroliz usulida yoqilg‘i olish tajriba qurilmasining parametrlarini asoslash. Innovatsion texnologiyalar. 1, 4 (Nov. 2022), 92–96.
18	G.N. Uzakov, X.A. Almardanov, I.N. Kodirov, L.A. Aliyarova. Modeling the heat balance of a solar concentrator heliopyrolysis device reactor. BIO Web Conf., 71 (2023) 01098.