Aliff Akhmal Mohd Fazlia, Siti Koriah Zakariaa, Nur Iman Najwa Abd Rahmana, Siti Zuliana Salleha,
Abdul Hafidz Yusoffa, Nurul Azita Sallehb, Mustaffa Ali Azhar Taibc, Faisal Budimand, Arlina Alia and Pao Ter Teo1,*
aAdvanced Materials Research Cluster, Faculty of
Bioengineering and Technology, Universiti
Malaysia Kelantan, Jeli Campus, 17600 Jeli, Kelantan, Malaysia
bSchool of Technology Management and Logistics, Universiti
Utara Malaysia, 06010
Sintok, Kedah, Malaysia
cDivision of Advanced Ceramic Materials Technology,
Advanced Technology Training Center (ADTEC) Taiping, 34600 Kamunting, Perak,
Malaysia
dSchool of Electrical Engineering, Telkom University,
Bandung 40257, West Jawa, Indonesia
Rapid development in the
concrete industry leads to a higher demand for cement consumption worldwide.
Due to this, the production of cement has become very crucial, resulting in a
high carbon footprint and pollution along the process. Therefore, the
utilization of agricultural by-products as cement replacement will help to
reduce pollution caused by conventional cement production and therefore reduce
the unsystematic waste management. Rice husk ash contains high silica content
that makes it a potential material to partially replace cement in concrete
production. This is because, the reaction between rice husk ash and cement can
improve the compressive strength of the concrete. With the aid of response
surface methodology, the optimization of utilizing rice husk ash as a partial
replacement of cement in concrete can be achieved. Therefore, concrete
incorporated with rice husk ash with high and optimum compressive strength can
be produced.
Keywords: rice husk ash (RHA), Concrete, Cement
2020; 21(6): 667-682
Published on Dec 31, 2020
Advanced Materials Research Cluster, Faculty of Bioengineering and Technology, Universiti Malaysia Kelantan, Jeli Campus, 17600 Jeli, Kelantan, Malaysia
Tel : +609-9477427
Fax: +609-9477402