My Researches

What if we could build stronger, smarter structures while actually helping the planet? That's the question that drives my research. I transform industrial waste—fly ash, bottom ash, agricultural by-products—into high-performance concrete that's not just eco-friendly, but often outperforms traditional materials. From geopolymer concrete that eliminates cement entirely, to lightweight solutions that reduce structural weight and energy consumption, my work is about proving that sustainability and excellence aren't trade-offs—they're partners.

Research Areas

Fibrous Nano Biomass Concrete

 

Use more than 80% of waste from oil palm industries in producing nano-biomass concrete. Adopted in Eco Home UTM.

Green Alkaline Solution for Geopolymer Concrete

 

Development of an environmentally friendly alkaline activator for geopolymer concrete, reducing the environmental impact of traditional activators while maintaining or improving performance.

Lightweight Geopolymer Concrete

 

Integration of lightweight aggregates with geopolymer binders to create a sustainable lightweight concrete with reduced carbon footprint and improved thermal properties

Eco Green Brick (EGB)

 

Eco Green Brick with environmental friendly concept with no cement and sand used.

One-Part Geopolymer Concrete

 

Investigation into the development of one-part geopolymer concrete that can be mixed with water on-site, similar to ordinary Portland cement, facilitating easier adoption in the construction industry

Ceramic Waste in Reinforced Concrete

 

Investigation of the flexural behavior of reinforced concrete beams incorporating ceramic waste as cement and aggregate replacement, demonstrating improved performance in certain applications

Lightweight Concrete Panel from Coal Bottom Ash

 

Development of lightweight concrete panels using coal bottom ash as a replacement for conventional aggregates, resulting in panels with excellent thermal and acoustic properties for sustainable building applications.

Biomass Waste in Geopolymer Concrete

 

Exploration of the reactivity and fire resistance properties of green materials from biomass waste in geopolymer concrete, creating a more sustainable and fire-resistant construction material

Fire Resistance of Geopolymer Concrete

 

Investigation of the fire resistance properties of geopolymer concrete compared to traditional concrete, with a focus on developing formulations with enhanced performance at elevated temperatures

Selected Publications

Hydration and microstructural development of cement pastes incorporating diatomaceous earth, expanded perlite, and shape-stabilized phase change materials (SSPCMs)

Construction and Building Materials | 2025 | Impact Factor: 7.4 (Q1)

This research highlights the potential of integrating SSPCMs into cementitious binders for efficient energy storage, providing insights into optimizing their content and addressing associated challenges in concrete performance.

Phase Change Materials | Cement | Hydration | Microstructure

Sustainable application of ferrochrome slag as green aggregate material for novel application in concrete-A review

Journal of Hazardous Materials Advances | 2025 | Impact Factor: 7.7 (Q1)

This paper critically reviews the literature that adopted the ferrochrome slag as a green concrete material without compromising the technical properties of the concrete.

Ferrochrome | Green technology | Industrial waste | Sustainability

Physicochemical properties of reactive MgO at different alkali precursors and calcination temperatures

Journal of Environmental Chemical Engineering | 2025 | Impact Factor: 7.4 (Q1)

These findings provide valuable insights into optimizing MgO production from reject brine, presenting a more efficient pathway for sustainable resource utilization.

Magnesium Oxide | Reject Brine | Desalination 

Engineering properties of natural fibre-reinforced one-part geopolymer concrete

Construction and Building Materials | 2024 | Impact Factor: 7.4 (Q1)

This study investigates the engineering properties of one-part geopolymer concrete reinforced with natural fibres, offering a sustainable alternative to traditional concrete. The research demonstrates significant improvements in mechanical properties and crack resistance with the incorporation of natural fibres.

Geopolymer Concrete | Natural Fibres | Sustainable Materials

Sodium metasilicate-activated one-part geopolymer concrete: Impact strength assessment with bottom ash substitution and fiber reinforcement

Case Studies in Construction Materials | 2024 | Impact Factor: 6.5 (Q1)

This research explores the impact strength of one-part geopolymer concrete activated with sodium metasilicate, incorporating bottom ash as a partial replacement for fly ash and reinforced with fibers. The results show enhanced impact resistance and mechanical properties

Geopolymer Concrete | Bottom Ash | Fiber Reinforcement | Impact Strength

A Bibliometric Review of Lightweight Aggregate Geopolymer Concrete

CivilEng | 2024 | Q2

This comprehensive bibliometric review analyzes the research trends, key contributors, and future directions in lightweight aggregate geopolymer concrete, providing valuable insights for researchers and practitioners in this emerging field.

Bibliometric Analysis | Lightweight Concrete | Geopolymer | Research Trends

Influence Of Elevated Temperatures On The Mechanical Behavior Of One-Part Coal Ash Geopolymer Concrete With Sodium Metasilicate Pentahydrate And Sodium Metasilicate Anhydrous As Alkaline Activators

Journal of Building Engineering | 2024 | Impact Factor: 6.7 (Q1)

This study examines the effects of elevated temperatures on the mechanical properties of one-part coal ash geopolymer concrete activated with different forms of sodium metasilicate. The research provides insights into the fire resistance and high-temperature behavior of these sustainable concrete formulations.

Geopolymer Concrete | Coal Ash | Fire Resistance | Elevated Temperature

A scientometric review of geopolymer concrete

Journal of Cleaner Production | 2021 | Impact Factor: 11.08 (Q1)

This scientometric review provides a comprehensive analysis of global research trends in geopolymer concrete, identifying key research clusters, influential publications, and emerging research directions. The study offers valuable insights for researchers and practitioners in this rapidly evolving field.

Scientometric Analysis | Geopolymer Concrete | Research Trends | Sustainable Construction

Patents & Innovations

High Performance Cement Free Brick from Agro-Industrial Waste

MY-178149-A

A method for producing high-performance bricks without cement, utilizing agro-industrial waste materials. This innovation reduces carbon emissions and provides a sustainable alternative to traditional brick manufacturing.

Granted: 2013

Binder And Strength Performance Of Fibre Reinforced Geopolymer PFA-POBA Mortar

MY-176128-A

A formulation for fiber-reinforced geopolymer mortar using pulverized fuel ash and palm oil boiler ash, offering enhanced strength and durability compared to conventional mortars.

Granted: 2013
Method Of Producing Fibrous Nano-Biomass Concrete From Biomass

MY-171721-A

A novel method for incorporating nano-scale biomass fibers into concrete, improving mechanical properties and sustainability through the utilization of agricultural waste.

Granted: 2013
Environmentally Friendly Concrete Material (CERA ECO BLOCK)

MY-180173-A

An eco-friendly concrete formulation incorporating ceramic waste, reducing the environmental impact of concrete production while maintaining or improving performance characteristics.

Granted: 2015
Geopolymer mortar for repairing works

MY-186371-A

A specialized geopolymer mortar formulation designed specifically for concrete repair applications, offering superior bonding, durability, and environmental benefits compared to traditional repair mortars.

Granted: 2016
High performance concrete with significantly reduced cement and sand

MY-186799-A

A high-performance concrete formulation with substantially reduced cement and sand content, achieved through the strategic incorporation of waste materials and optimized mix design.

Granted: 2016
High Performance Geopolymer Concrete Without Cement And Sand (GEO-CAST)

PI 2017700920

An innovative geopolymer concrete formulation that eliminates the need for both cement and natural sand, utilizing waste materials to create a high-performance, environmentally friendly construction material.

Filing: 2017
A Geopolymer Concrete Having Green Alkaline Solution And Method Of Preparation Thereof

PI2022007568

A novel geopolymer concrete formulation utilizing an environmentally friendly alkaline solution, reducing the environmental impact of traditional geopolymer activators while maintaining structural performance.

Filing: 2022

Collaborators

Hanyang University

Collaboration on microstructure and hydration models of POFA concrete and durability performance of concrete using agro-industrial waste.

Universiti Malaysia Pahang

Joint research on building maintenance practices and approaches to sustainable construction in Malaysian universities.

Universitas Sriwijaya

Joint research on structural behavior of composite connections in precast concrete and lightweight concrete applications.

Universiti Tun Hussein Onn Malaysia

Collaboration on the development of interlocking hollow brick systems and other innovative construction technologies.

Construction Research Institute of Malaysia (CREAM)

Collaboration on the development and implementation of Industrialized Building System (IBS) technologies and sustainable construction practices.

Industry Partners

Collaboration with various industry partners including MMHE, Alam Flora, and others on the practical application of research findings and technology transfer