Buchumschlag

Heat pump technologies of low temperature drying of capillary-porous materials spherical shape

Gespeichert in:

Bibliographische Detailangaben
Datum:	2020
Hauptverfasser:	Yu. F. Sniezhkin, V. M. Paziuk, Zh. O. Petrova
Format:	Artikel
Sprache:	Englisch
Veröffentlicht:	2020
Schriftenreihe:	Ceramics: Science and Life
Online Zugang:	http://jnas.nbuv.gov.ua/article/UJRN-0001216588
Tags:	Tag hinzufügen Keine Tags, Fügen Sie den ersten Tag hinzu!
Назва журналу:	Library portal of National Academy of Sciences of Ukraine \| LibNAS

Institution

Library portal of National Academy of Sciences of Ukraine | LibNAS

Ähnliche Einträge

Mathematical processing of results experimental studies of low-temperature modes of drying of capillary-porous materials of spherical shape
von: Yu. F. Sniezhkin, et al.
Veröffentlicht: (2019)

Investigation of low-temperature drying modes plant capillary-porous materials spherical shape
von: V. M. Paziuk
Veröffentlicht: (2018)

Energy-efficient modes of drying of colloidal capillary-porous materials
von: Zh. O. Petrova
Veröffentlicht: (2018)

Modeling of heat and mass transfer in the process of drying of colloid capillary - porous materials
von: Zh. O. Petrova, et al.
Veröffentlicht: (2019)

RENEWABLE ENERGY SOURCES IN HEAT PUMPS FOR ENERGY EFFICIENT LOW-TEMPERATURE DRYING OF SEED GRAIN
von: Sniezhkin , Yu., et al.
Veröffentlicht: (2025)

Fundamental approaches in mathematical modeling of drying processes of capillary-porous and dispersed materials
von: B. Haivas
Veröffentlicht: (2017)

Modeling of internal diffusion mass transfer during filtration drying of capillary-porous material
von: Ya. Gnativ, et al.
Veröffentlicht: (2020)

Investigation of the dispersion processes of composite colloidal capillary-porous materials
von: Zh. O. Petrova, et al.
Veröffentlicht: (2019)

Analysis of energy performance of heat pump drying
von: Yu. F. Sniezhkin, et al.
Veröffentlicht: (2017)

Numerical modeling of heat and mass transfer processes in a capillary-porous body during contact drying
von: B. I. Gayvas, et al.
Veröffentlicht: (2023)

Basic ways to reduce energy consumption when drying grains by a heat pump drier
von: V. M. Paziuk
Veröffentlicht: (2014)

Investigation of drying the porous wood of a cylindrical shape
von: B. Gayvas, et al.
Veröffentlicht: (2022)

Energy saving technologies for drying of heat-sensitive materials
von: Yu. F. Sniezhkin, et al.
Veröffentlicht: (2019)

Thermo-economic analysis of the heat-pumping drying installation
von: M. A. Kuznetsov
Veröffentlicht: (2012)

Thermo-economic analysis of the heat-pumping drying installation
von: Кузнецов, М. А.
Veröffentlicht: (2012)

Thermo-economic analysis of the heat-pumping drying installation
von: Кузнецов, М. А.
Veröffentlicht: (2012)

Energy-Consumption and Environmental Aspects of Drying Processes
von: Yu. F. Sniezhkin, et al.
Veröffentlicht: (2023)

PROSPECTS FOR THE APPLICATION OF THERMOELECTRIC HEAT PUMPS IN LOW-TEMPERATURE DISTRICT HEATING SYSTEMS
von: Lobunets , Yu.
Veröffentlicht: (2025)

The Anergy Efficiency of Low-Temperature Water Heating and Ventilation System with Recuperative Heat Pumping
von: M. K. Bezrodnyj, et al.
Veröffentlicht: (2011)

Thermodynamic Efficiency of Low Temperature Heat Pump Schemes of Heating Systems Using Solar Energy
von: M. K. Bezrodnyj, et al.
Veröffentlicht: (2013)

Energy efficient heat pump technology: status and prospects of their introduction in Ukraine
von: Yu. F. Sniezhkin
Veröffentlicht: (2017)

Equipment for low temperature and freeze-drying preservation, long-term storage of biological materials
von: V. N. Batrakov, et al.
Veröffentlicht: (2008)

Low-temperature sorption of hydrogen by porous carbon material containing palladium nanoclusters
von: A. V. Dolbin, et al.
Veröffentlicht: (2020)

Construction of the solution of the thermal-convective drying problem for porous solids in drying plants
von: Ye. Ya. Chaplya, et al.
Veröffentlicht: (2015)

Paramagnetic centers of the surface of capillary-porous body contacting with monomers during polymerization
von: E. A. Pashchenko, et al.
Veröffentlicht: (2017)

Energy-saving heat pump technology for heat supply system of housing and communal services and industry (according to the materials of scientific report at the meeting of the Presidium of NAS of Ukraine, May 13, 2015)
von: Yu. F. Sniezhkin
Veröffentlicht: (2015)

Bimetal materials and products manufactured by the method of high-temperature non-capillary brazing
von: G. M. Grigorenko, et al.
Veröffentlicht: (2011)

Overview of low grade heat sources for heat pump plants in district heating systems
von: V. O. Derii, et al.
Veröffentlicht: (2022)

Stressed state and stability of porous bodies form in the drying process
von: B. Hayvas, et al.
Veröffentlicht: (2013)

Highly porous cubic boron nitride wheels for dry grinding
von: V. K. Starkov
Veröffentlicht: (2013)

Estimation of the potential of low grade heat sources for heat pump plants in district heating systems
von: V. O. Derii, et al.
Veröffentlicht: (2022)

Diffusion mass transfer at low-frequency liquid oscillations in capillaries
von: V. I. Yelisieiev, et al.
Veröffentlicht: (2022)

Estimation of the efficiency of thermal energy production by heat pump stations on the basis of heat of low-temperature groundwater according to the methodology of full energy costs
von: V. D. Bilodid, et al.
Veröffentlicht: (2020)

The low-temperature specific heat of MWCNTs
von: V. V. Sumarokov, et al.
Veröffentlicht: (2019)

The low-temperature specific heat of MWCNTs
von: Sumarokov, V.V., et al.
Veröffentlicht: (2019)

СТАН ТЕХНОЛОГІЙ ОЧИЩЕННЯ СТІЧНИХ ВОД В УКРАЇНІ ТА СВІТІ
von: Yu., Sniezhkin, et al.
Veröffentlicht: (2021)

Structure of different shape 2D electron clusters at low temperatures
von: V. E. Sivokon
Veröffentlicht: (2020)

Investigating permeability of metal felt capillary structures of heat pipes for cooling electronics
von: Ju. Kravets, et al.
Veröffentlicht: (2020)

Machining of porous materials
von: A. V. Tolstenko
Veröffentlicht: (2014)

Modeling of a fluid surface shape and capillary—transport processes in the liquids under different values of gravitational forces
von: M. F. Hryhorenko, et al.
Veröffentlicht: (2017)