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A MATHEMATICAL MODEL OF THE TEMPERATURE FLUCTUATION RATES INSIDE A SOLAR THERMAL DEVICE FOR IMMOBILAZING THE PUPA OF SILKWORM COCOONS

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In view of reducing the consumption of fuel and energy resources required for immobilizing the pupa of live silkworm cocoons, a high-performance solar thermal device designed for killing the pupa of cocoons is being proposed in this work. This portable device can be transported by any vehicle and handled by a single operator, and it does not require any special qualifications. Application of this device enables the saving of 100% of fuel and energy resources consumed in existing conveyor-type cocoon drying aggregates at the premises destined for the primary processing of cocoons. Experiments to study temperature conditions inside a solar thermal device with loaded living cocoons were carried out in industrial settings. Measurements of the ambient temperature inside the solar thermal unit and the flux of total solar radiation incident on the horizontal surface of the solar device were made by means of proven tools. Based on the findings from experimental investigations, a mathematical model of the rate of change in the temperature of cocoons inside a solar thermal device has been developed and proposed, taking into account the thermal characteristics of its enclosing elements, the arrival of solar radiation, and changes in ambient temperature. This mathematical model will enable the development of a solar thermal device for a similar purpose for the required temperatures inside the device.

AUTHORS

S.Umarov

Ipakchilik ilmiy-tadqiqot instituti, Tut ipak qurti naslchiligi laboratoriyasi mudiri

Tags

# математическая модель# mathematical model# matematik model# temperature mode# live cocoon# живой кокон# tirik pilla# температурный режим# солнечная тепловая установка# замаривание кокона тутового шелк# суммарная солнечная радиация# коконосушильный агрегат конвейер# quyosh issiqlik qurilmasi# tut ipak qurti pillasi g‘umbagin# yig‘indi quyosh radiatsiyasi# harorat rejimi# konveyer tipidagi pilla quritish# solar thermal device# killing of pupa in the silkworm# total solar radiation# conveyor-type cocoon drying aggr

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References

Umarov, S. (2004). Opredeleniya rezhima zamarivaniya kokonov na solnechnom ustroystve [Determination of the mode of killing pupa of cocoons on a solar device]. Bulletin of Tashkent State Technical University(2), 233-237.

Umarov, S. (2005). Sposob zamarivaniya zhivykh kokonov energiyey solnechnogo izlucheniya [Method of killing of pupa in the living cocoons with solar radiation energy]. Problemy tekstilya – Textile Problems ( 2), 27-29.

Umarov, S. (2007). Razrabotka i ispolzovaniye solnechnogo teplovogo kollektora dlya zamarivaniya shelkovichnykh kokonov [Development and use of a solar thermal collector for killing pupa of mulberry cocoons]. Abstract of PhD thesis, 26. Tashkent.

Umarov, S., Yuldashev, S., Oripov, S., & Zhabborov, H. (2000). Pillaga dastlabki ishlov berishda quyosh nuridan fojdalanish istiqbollari [Prospects for the use of solar radiation during primary cocoon processing]. Silk, 1, 10-12.

Yuldashev, S., & Umarov, S. (2000, September 14-16). Utilization solar energy for killing of cocoon chrysalis. World conference on intelligent systems for industrial automation, (pр. 295-297).

Yuldashev, S., & Umarov, S. (2001). Calculating moisture loss in silkworm cocoons upon death in hotbed solar units. Geliotekhnika(4), 19-21.

Yuldashev, S., & Umarov, S. (2002). Model rascheta massy vlagi, isparennoy iz kokonov shelkopryada pri zamarivanii ikh v solnechnykh ustanovkakh [Model for calculating the mass of moisture evaporated from silkworm cocoons during the killing of pupa in the silkworm cocoons in solar device]. Bulletin of Tashkent State Technical University(1), 55-58.

Yuldashev, S., & Umarov, S. (2002). Nonstationary thermal regime of solar units for suffocating silkworm cocoons. Geliotekhnika(3), 32-36.

Yuldashev, S., Aripov, S., Dzhabbarov, H., Irgashev, U., & Abidzhanov, Z.U. (2005). Uz Patent № IAP 02870.

Yuldashev, S., Irgashev, U., & Abidzhanov, Z. (1994). Uz Patent № 414.

Yuldashev, S., Umarov, S., & Aripova, A. (2002). Ustroystvo dlya zamarivaniya kokonov shelkopryada i sushki fruktov solnechnymi luchami [Device for killing of pupa in the silkworm cocoons and drying fruits by solar rays]. Bulletin of Tashkent State Technical University(4), 57.

Yuldashev, S., Umarov, S., & Avezov, R. (2000). Temperature and humidity regimes of a solar plant for silkworm cocoon destruction. Geliotekhnika(4), 35-39.

Zaripov, N., & Umarov, S. (2005). Ispolzovaniye energii solnechnogo izlucheniya v protsesse zamarivaniya shelkovichnykh kokonov [Using the energy of solar radiation in the process of killing pupa of mulberry cocoons]. Proceedings of the V scientific and practical conference of gifted students on the topic “Youth in the development of science and technology”, (pp. 93-94). Tashkent.

Zulponov, S., Samandarov, D., Sultanova, S., & Safarov, J. (2021). Issledovaniye sushki kokonov tutovogo shelkopryada v solnechnoy sushilke [Research on drying silkworm cocoons in a solar dryer]. Universum(12(93)). Retrieved from https://7universum.com/ru/tech/archive/item/12743

Avezov, R., & Avezova, N. (1997). Geliotekhnika, 69-77.

Avezov, R., & Umarov, S. (2005). Sledyashhee solnechnoye ustroystvo dlya zamarivaniya shelkovichnykh kokonov [Solar tracking device for killing pupa of mulberry cocoons]. Proccedings of the IV Republican Conference on Physical Electronics, (р. 175). Tashkent.

Burlakov, V., & Muradov, Z. (1976). Perspektivy morki i sushki kokonov s pomoshhyu solnechnoy energii [Prospects for killing of pupa in the silkworm cocoons and drying cocoons using solar energy]. Silk(2), 19-20.

Nguku, E., Raina, S., Mburugu, K., & Mugenda, O. (2009). Evaluation of different cocoon stifling methods on raw silk quality. African Journal of Applied Human Sciences, 1, 4-8.

Shumakov, N. (1979). Metod posledovatelnykh intervalov v teplometrii nestatsionarnykh protsessov [Method of successive intervals in thermometry of non-stationary processes]. Moscow: Atomizdat.

Tvajdell, D., & Uejr, A. (1990). Vozobnovlyaemyye istochniki energii [Renewable Energy]. Moscow: Energoatomizdat.

Umarov, F., & Umarov, S. (2012). Solnechnyy teplovoy kollektor [Solar thermal collector]. Technologies of the XXI century(2), 10-11.

Umarov, S. (2004). Issledovaniye izmeneniya vlazhnosti kokonov v protsesse zamarivaniya ikh v solnechnom ustroystve [Study of changes in the humidity of cocoons during the process of killing pupa of cocoons in a solar device]. Texnika yulduzlari – Tech Stars(2), 85-89.