This study made setups that can be used in solar powered drying of washed clothing. This was used to analyze and test the performance, and determined if there is significant difference on the drying rate of set ups related to traditional and experimental method. A solar drying chamber was designed to use local materials in which the frame is made of bamboo with walls made of plastic to trap the heat of the sunlight entering the chamber. There were four set ups that were established in the gathering of data: S-1 is with electric fan, S-2 is with electric fan and electric flat iron, S-3 which did not use the drying chamber, is a traditional method where the garments C-1, C-2, C-3, C-4 & C-5 of different sizes, shapes, width and weight were dried under the heat of the sun. S-4 is almost similar to S-3 but the difference is that the garments were dried with no sunlight. The drying chamber alone is effective to reduce the moisture content of the garments using sunlight. Using the electric fan and electric flat iron increased the circulation of the enclosed hot air and boasted the drying capacity. Although it was computed that P > ? in comparison of the data in all set ups, it is insufficient to conclude that there is no significant difference on data of the experimental and traditional set ups since the data for the traditional set ups are not complete until the garments are totally dried.


Solar Power, Dryer, Drying Chamber, Post-Harvest Agriculture,


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  1. Zhao R, Gao T. Research Progress of Hot Air Drying Technology for Fruits and Vegetables. Advance Journal of Food Science and Technology. 2016;10(3).
  2. Aasa S, Ajayi O, Omotosho O. Design Optimization of Hot Air Dryer for Yam Flour Chunk. Asian Journal of Scientific Research. 2012;5(3).
  3. Wu J, Zhao L, Xie N, Gao L, Gao W, Dai X, Zhang J. Research on the characteristics of a novel solar drying system and its application. Energy Procedia. 2012;14.
  4. Kirar DS, Bhadoria HS, Pandey R. Configuration and Development of a Solar Cloth Dryer. Srivastava T, Rani S, Kakkar S, editors. MATEC Web of Conferences. 2016;57.
  5. Amiebenomo S, Omorodion I, Igbinobaq J. Prototype design and performance analysis of solar clothes dryer. Asian Review of Mechanical Engineering. 2013;2.
  6. Alahmer A, Al-Dabbas M. Design and construction of a passive solar power clothing dryer. Research Journal of Applied Sciences, Engineering and Technology. 2014;7.
  7. Celil May RY. Design of solar desiccant clothes dryer. International Journal of Engineering and Techniques. 2017;3.
  8. Alahmer A, Al-Dabbas M. Design and Construction of a Passive Solar Power Clothing Dryer. Research Journal of Applied Sciences, Engineering and Technology. 2014;7(13).
  9. Ezike S, Alabi A, Ossai A, Aina A. A Low-Cost Temperature-Controlled Chamber Fabricated for Materials Testing. Designs. 2018;2(3).
  10. Mensah K, Choi JM. Energy Consumption and Stability Investigation of Constant Temperature and Humidity Test Chamber. International Journal of Air-Conditioning and Refrigeration. 2017;25(01).
  11. An empirical study of energyefficiency of clothes dryers. 2009;.
  12. López A, Valera DL, Molina-Aiz FD, Peña A. Effectiveness of horizontal air flow fans supporting natural ventilation in a Mediterranean multi-span greenhouse. Scientia Agricola. 2013;70(4).
  13. Liu H, Yousaf K, Chen K, Fan R, Liu J, Soomro S. Design and Thermal Analysis of an Air Source Heat Pump Dryer for Food Drying. Sustainability. 2018;10(9).
  14. Pardhi CB, Bhagoria JL. Development and performance evaluation of mixed-mode solar dryer with forced convection. International Journal of Energy and Environmental Engineering. 2013;4(1).
  15. Karathanos V, Belessiotis V. Sun and artificial air drying kinetics of some agricultural products. Journal of Food Engineering. 1997;31(1).