Boubakri, A., Guilleminot, J., & Meunier, F. (2000). Adsorptive solar powered ice maker: experiments and model.
Solar Energy, Volume 69, No. 3, 249–263.
Buchter, F., Dind, P., & Pons, M. (2003). An experimental
solar powered adsorptive refrigerator tested in BurkinaFaso. International Journal for Refrigeration, 79–86.
Cacciola, G., Guilleminot, J., Chalfen, J., & Choisier, A.
(1993). Heat and mass transfer characteristics of composites for adsorption heat pumps. International absorption
heat pump conference, American Society of Mechanical
Engineers, AES volume 31.
Choudhury B, Saha BB, Chatterjee PK, & Sarkar JP.
(2013). An over view of developments In adsorption refrigeration systems towards a sustainable way
of cooling. Applied Energy, volume 104, 554–67,
http://dx.doi.org/10.1016/j.apenergy.2012.11.042.
Cota T.G., Reis E.L., Lima R.M.F., L., & Cipriano R.A.S.
(2018). Incorporation of waste from ferromanganese
alloy manufacture and soapstone powder in red ceramic
production. Applied Clay Science , Volume 161, 274–281.
Critoph RE. (1999). Rapid cycling solar/biomass powered
adsorption refrigeration system. Renewable Energy, Volume 16, 673–678.
Critoph RE. (2000). The use of thermosyphon heat pipes to
improve the performance of a carbon–ammonia adsorption refrigerator. Proceedings of IV Minsk international
seminar – heat pipes, heat pumps, refrigerators.
Critoph, R. (1992). A forced convection regenerative cycle
using the ammonia-carbon pair. In proceedings of Solid
Sorption Refrigeration, Paris,Volume 11R, 80–85.
Critoph, R. (1999). Forced convection adsorption cycle with
packed bed heat regeneration. International Journal of
Refrigeration, Volume 22, 38–46.
Critoph, R. (2000). Multiple bed regenerative adsorption
cycle using the monolithic carbon–ammonia pair. Applied
Thermal Engineering, Volume 22, 667–677.
Critoph, R. E. (2001). Simulation of a continuous multiplebed regenerative adsorption cycle. International Journal
of Refrigeration, Volume 24 (5), 428–437.
Critoph, R. E., & Z.Tamainot-Telto. (1997). Solar Adsorption
Refrigeration. Renewable Energy, volume 12 (4), 409–
417.
Critoph, R., Tamainot-Telto, Z., & Davies, G. (2000). A prototype of a fast cycle adsorption refrigerator utilizing a
novel carbon – aluminium laminate, Proceedings of the
Institution of Mechanical Engineers, Part A. Journal of
Power and Energy, Volume 214 ( 5), 439–448.
De Francisco A., I. R. (2002). Development and testing of a
prototype of low power water–ammonia absorption equipment for solar energy applications. Renewable Energy,
Volume 25, 537–544.
Demirocak, E. (2008). Thermodynamic and Economic Analysis of a Solar Thermal Powered Adsorption Cooling
System. Unpublished M.Sc. Thesis. Turkey: Middle East
Technical University.
Dusane N.C., & Ghuge. (2016). A Review on Solar Adsorption Refrigeration System. IOSR Journal of Engineering,
Volume 06, Issue 11, 07-13.
El-Sharkawy I.I., Hassan M., Saha B.B., Koyama S., &
Nasr M.M., N. (2009). Study on adsorption of methanol
onto carbon based adsorbents. International Journal of
Refrigeration, Volume 32 (7), 1579–1586.
Faeza M.H., Fawziea M.H., & H.N.K., A. (2011). Experimental study on two beds adsorption chiller with regeneration.
Modern Applied Science, Volume 5 (4).
Glaznev, I., Ponomarenko, S., Kirik, Y., & Aristov. (2011).
Composites CaCl2/SBA-15 for adsorptive transformation
of low temperature heat: Pore size effect. International.
Journal for Refrigeration, Volume 34, 1244–1250.
doi:10.1016/j.ijrefrig.2011.02.007.
Gordeeva LG, G., Freni A, F., Restuccia G, R., & Aristov YI. (2007). “Influence of characteristics of methanol
sorbents “salts in mesoporous silica” on the performance of adsorptive air conditioning cycle. Industrial
Engineering and Chemistry, Volume 46(9), 2747–2752,
http://dx.doi.org/10.1021/ie060666n.
Guilleminot, J., Choisier, A., Chalfen, J., Nicolas, S., & Reymoney, J. (1993). Heat transfer intensification in fixed
bed adsorbers. Heat Recovery Systems, Volume 13(4),
297–300.
Gupta, A., Anand, Y., Anand, S., & Tyagi, S. (2015). Thermodynamic optimization and chemical exergy quantification
for absorption-based refrigeration system. Akade’miai
Kiado’, Budapest, Hungary., DOI 10.1007/s10973-0154795-6.
H.N. Souza, Reis, E., Lima, R., & Cipriano, R. (2016). Using
soapstone waste with diesel oil adsorbed as raw material
for red ceramic products. Ceramics International, Volume
42, 16205–16211.
Hai-Ming., L. (2000).An enhanced adsorption cycle operated
by periodic reversal forced convection. Applied Thermal
Engineering, Volume 20, 595–617.
Hassan Fadiel. (2008). Theoretical and experimental study of
a hybrid adsorption refrigeration system”, M.Sc. thesis.
Iraq: University of Technology.
Hassan, H. M.-A. (2012). Development of a continuously
operating solar-driven adsorption cooling system: Thermodynamic analysis and parametric study. Applied Thermal Engineering, doi:10.1016/j.applthermaleng.2012.
04.040.
Hassan, H., Mohamad,A., & Bennacer, R. (2011). Simulation
of an adsorption solar cooling system. Energy, Volume 36,
530–537.
Hildbrand, C., Dind, P., Pons, M., & Buchter, F. (2004).
A new solar powered adsorption refrigerator with high
Performance. Solar Energy, Volume 77, 311–318.
Huhta A., & Kärki A. (2018). A proposal for the definition, nomenclature, and classification of soapstones. GFF
Volume 140, 38–43.
IEA. (2010). World Energy Outlook Executive Summary.
Retrieved from International Energy Agency.
Khalifa, A., Ahmed, Q. M., & Hassan, J. F. (2015). Theoretical study on the effect of operating parameters on the
performance of adsorption refrigerator. Journal of kerbala
university, Volume 13 (1).
Khattab N.M. (2004). A novel solar-powered adsorption
refrigeration module. Applied Thermal Engineering, Volume 24, 2747–2760.
Khattab, N. (2006). Simulation and optimization of a novel
solar-powered adsorption refrigeration module. Solar
Energy, Volume 80, 823–833.
Koyama K.H, & Bidyut B.S.S. (2014). Study of various
adsorbent refrigerant pairs for the application of solar
driven adsorption cooling in tropical climates. Applied
Thermal Engineering, 266–274.
Kumar P., Sudalaimani K., & Shanmugasundaram M. (2017).
An investigation on selfcompacting concrete using ultrafine natural steatite powder as replacement to cement.
Advanced Materials Science and Engineering.
Leite, A., & Daguenet, M. (2000). Performance of a new
solid adsorption ice maker with solar energy regeneration.
Energy Conversion Management, Volume 41, 1625–1647.
Leite, P. (1998). Thermodynamic analysis and modeling of
an adsorption–cycle system for refrigeration from low
grade energy sources. Journal of Brazilian Society of
Mechanical Science, Volume 20(3), 301–324.
272
Solar Energy, Volume 69, No. 3, 249–263.
Buchter, F., Dind, P., & Pons, M. (2003). An experimental
solar powered adsorptive refrigerator tested in BurkinaFaso. International Journal for Refrigeration, 79–86.
Cacciola, G., Guilleminot, J., Chalfen, J., & Choisier, A.
(1993). Heat and mass transfer characteristics of composites for adsorption heat pumps. International absorption
heat pump conference, American Society of Mechanical
Engineers, AES volume 31.
Choudhury B, Saha BB, Chatterjee PK, & Sarkar JP.
(2013). An over view of developments In adsorption refrigeration systems towards a sustainable way
of cooling. Applied Energy, volume 104, 554–67,
http://dx.doi.org/10.1016/j.apenergy.2012.11.042.
Cota T.G., Reis E.L., Lima R.M.F., L., & Cipriano R.A.S.
(2018). Incorporation of waste from ferromanganese
alloy manufacture and soapstone powder in red ceramic
production. Applied Clay Science , Volume 161, 274–281.
Critoph RE. (1999). Rapid cycling solar/biomass powered
adsorption refrigeration system. Renewable Energy, Volume 16, 673–678.
Critoph RE. (2000). The use of thermosyphon heat pipes to
improve the performance of a carbon–ammonia adsorption refrigerator. Proceedings of IV Minsk international
seminar – heat pipes, heat pumps, refrigerators.
Critoph, R. (1992). A forced convection regenerative cycle
using the ammonia-carbon pair. In proceedings of Solid
Sorption Refrigeration, Paris,Volume 11R, 80–85.
Critoph, R. (1999). Forced convection adsorption cycle with
packed bed heat regeneration. International Journal of
Refrigeration, Volume 22, 38–46.
Critoph, R. (2000). Multiple bed regenerative adsorption
cycle using the monolithic carbon–ammonia pair. Applied
Thermal Engineering, Volume 22, 667–677.
Critoph, R. E. (2001). Simulation of a continuous multiplebed regenerative adsorption cycle. International Journal
of Refrigeration, Volume 24 (5), 428–437.
Critoph, R. E., & Z.Tamainot-Telto. (1997). Solar Adsorption
Refrigeration. Renewable Energy, volume 12 (4), 409–
417.
Critoph, R., Tamainot-Telto, Z., & Davies, G. (2000). A prototype of a fast cycle adsorption refrigerator utilizing a
novel carbon – aluminium laminate, Proceedings of the
Institution of Mechanical Engineers, Part A. Journal of
Power and Energy, Volume 214 ( 5), 439–448.
De Francisco A., I. R. (2002). Development and testing of a
prototype of low power water–ammonia absorption equipment for solar energy applications. Renewable Energy,
Volume 25, 537–544.
Demirocak, E. (2008). Thermodynamic and Economic Analysis of a Solar Thermal Powered Adsorption Cooling
System. Unpublished M.Sc. Thesis. Turkey: Middle East
Technical University.
Dusane N.C., & Ghuge. (2016). A Review on Solar Adsorption Refrigeration System. IOSR Journal of Engineering,
Volume 06, Issue 11, 07-13.
El-Sharkawy I.I., Hassan M., Saha B.B., Koyama S., &
Nasr M.M., N. (2009). Study on adsorption of methanol
onto carbon based adsorbents. International Journal of
Refrigeration, Volume 32 (7), 1579–1586.
Faeza M.H., Fawziea M.H., & H.N.K., A. (2011). Experimental study on two beds adsorption chiller with regeneration.
Modern Applied Science, Volume 5 (4).
Glaznev, I., Ponomarenko, S., Kirik, Y., & Aristov. (2011).
Composites CaCl2/SBA-15 for adsorptive transformation
of low temperature heat: Pore size effect. International.
Journal for Refrigeration, Volume 34, 1244–1250.
doi:10.1016/j.ijrefrig.2011.02.007.
Gordeeva LG, G., Freni A, F., Restuccia G, R., & Aristov YI. (2007). “Influence of characteristics of methanol
sorbents “salts in mesoporous silica” on the performance of adsorptive air conditioning cycle. Industrial
Engineering and Chemistry, Volume 46(9), 2747–2752,
http://dx.doi.org/10.1021/ie060666n.
Guilleminot, J., Choisier, A., Chalfen, J., Nicolas, S., & Reymoney, J. (1993). Heat transfer intensification in fixed
bed adsorbers. Heat Recovery Systems, Volume 13(4),
297–300.
Gupta, A., Anand, Y., Anand, S., & Tyagi, S. (2015). Thermodynamic optimization and chemical exergy quantification
for absorption-based refrigeration system. Akade’miai
Kiado’, Budapest, Hungary., DOI 10.1007/s10973-0154795-6.
H.N. Souza, Reis, E., Lima, R., & Cipriano, R. (2016). Using
soapstone waste with diesel oil adsorbed as raw material
for red ceramic products. Ceramics International, Volume
42, 16205–16211.
Hai-Ming., L. (2000).An enhanced adsorption cycle operated
by periodic reversal forced convection. Applied Thermal
Engineering, Volume 20, 595–617.
Hassan Fadiel. (2008). Theoretical and experimental study of
a hybrid adsorption refrigeration system”, M.Sc. thesis.
Iraq: University of Technology.
Hassan, H. M.-A. (2012). Development of a continuously
operating solar-driven adsorption cooling system: Thermodynamic analysis and parametric study. Applied Thermal Engineering, doi:10.1016/j.applthermaleng.2012.
04.040.
Hassan, H., Mohamad,A., & Bennacer, R. (2011). Simulation
of an adsorption solar cooling system. Energy, Volume 36,
530–537.
Hildbrand, C., Dind, P., Pons, M., & Buchter, F. (2004).
A new solar powered adsorption refrigerator with high
Performance. Solar Energy, Volume 77, 311–318.
Huhta A., & Kärki A. (2018). A proposal for the definition, nomenclature, and classification of soapstones. GFF
Volume 140, 38–43.
IEA. (2010). World Energy Outlook Executive Summary.
Retrieved from International Energy Agency.
Khalifa, A., Ahmed, Q. M., & Hassan, J. F. (2015). Theoretical study on the effect of operating parameters on the
performance of adsorption refrigerator. Journal of kerbala
university, Volume 13 (1).
Khattab N.M. (2004). A novel solar-powered adsorption
refrigeration module. Applied Thermal Engineering, Volume 24, 2747–2760.
Khattab, N. (2006). Simulation and optimization of a novel
solar-powered adsorption refrigeration module. Solar
Energy, Volume 80, 823–833.
Koyama K.H, & Bidyut B.S.S. (2014). Study of various
adsorbent refrigerant pairs for the application of solar
driven adsorption cooling in tropical climates. Applied
Thermal Engineering, 266–274.
Kumar P., Sudalaimani K., & Shanmugasundaram M. (2017).
An investigation on selfcompacting concrete using ultrafine natural steatite powder as replacement to cement.
Advanced Materials Science and Engineering.
Leite, A., & Daguenet, M. (2000). Performance of a new
solid adsorption ice maker with solar energy regeneration.
Energy Conversion Management, Volume 41, 1625–1647.
Leite, P. (1998). Thermodynamic analysis and modeling of
an adsorption–cycle system for refrigeration from low
grade energy sources. Journal of Brazilian Society of
Mechanical Science, Volume 20(3), 301–324.
272