Dr. Abdul Muneem is currently serving as a Lecturer at the Department of Fiqh and Usul, Academy of Islamic Studies, Universiti Malaya (UM). He holds both a PhD and a Master’s degree from the same department, reflecting his strong academic foundation in Islamic jurisprudence. He completed his undergraduate studies at the International Islamic University Malaysia (IIUM) in 2015. Following his graduation, Dr. Abdul Muneem joined the International Shariʿah Research Academy for Islamic Finance (ISRA)—now known as ISRA Institute—as a Sharīʿah Management Trainee in 2015. This role allowed him to delve deeply into research and industry practices within the field of Islamic finance. He also gained hands-on experience through an internship at the Sharīʿah Research and Advisory Department of AmBank Islamic Berhad in 2017. Dr. Abdul Muneem has made meaningful contributions to the development of Islamic finance through his research and academic publications. His areas of expertise include Islamic banking, Islamic finance, takaful, and broader Sharīʿah-related legal issues. His current research focuses on emerging topics such as Islamic financial technologies (fintech), Islamic crowdfunding, digital assets, zakat, and other contemporary issues in Islamic finance. He has authored and co-authored numerous articles in prestigious academic journals indexed by Scopus, Web of Science (WoS), as well as reputable local journals such as MyCite.

Mohamadariff Othman received his Bachelor in Electronic Engineering from Multimedia University, Malaysia, in 2006, M.Sc. in RF and Microwave from University of Science Malaysia (USM), Malaysia in 2008 and a Ph.D. in Antenna and Propagation also from USM in 2015. He joined Universiti Malaya, Malaysia as senior lecturer in 2016 after serving in the UCSI University, Malaysia for almost 1 and half year. His research interests include 5G antenna, dielectric material characterization, dielectric resonator antenna, and filtenna. Currently, he extensively investigate UHF antenna for partial discharge detection in high power application.

Acquainting with technical and teoritical knowldege together with skills in the molecular functionalization and composite system of areas in natural (polysaccharide) and synthetic (polyolefin) derived of polymers. The previous research projects was concerned on physical and chemical modifications of polymers with the main objective to enchane its parent properties on mechanical, thermal, solubility, degradability, selectivity and  adsorption ability. The interfacial, rigidity and homogeneity of the modified polymer is the major considerations in order to meet the potential application as the membrane separation of organic pollutants. The outcomes of this projects is knowledge and methodology on molecular modification of chitosan (as a model of polymer) through cross-linking process as a reinforcement agents to increase the said properties of polymer composites. 14 numbers of ISI journals including one review paper has been managed to be published through out the research project. Currently,  looking for the new research opportunities to functionalize the nano based materials (metal oxide based, carbon based, metal etc) with polymer materials in order to increase the functionality, dispersion ability, homogeneity and resistancy of the nano materials. Initiated with research project on band gap re-engineering approach of nano-particle TiO2 with various organic dopants (carbon, nitrogen, sulfur) and chitosan as a support for photoctalyst system on the application of organic pollutants degradation. It is expected that, modified nano-particle TiO2 could be utilize satisfactory in both ultra-violet and visible light, seperatible effectively from the suspension of pollutant mixture, highly selectivity, and re-cycleable. The polymer fucntionalize nano-particle project is then continue to the second project; with nano-particle Fe3O4 coated with polycarboxylic, polyamine and polyol based. The main objective of the project is to modulate the composition, size and magnetic properties of nano-particle Fe3O4 as a metal detectable agent for the nitrile glove formulation. While, the third current project is focused on the thermal and magnetitie properties of nano-particle Fe3O4/Au as a anti-cancer agent. Nano-coated Fe3O4/Au with chitosan and ethylene cellulose for colon drug delivery system is expected to minimize the limitations on premature drug release, poor translation of biorecognition propertyand inffective colon targetting.