The essence of the project is to work with a technology capables of utilizing a wide varieties of feedstocks for bio-fuel productions. This project will focus on the chemical thermodynamics of ethanol production by using various lignocellulose biomass feedstocks, to provide the flexibility in feedstocks usage and eventually establish the optimized conditions for these biomass resources.
This project aimed to utilize CO2 for production of value added products and as carbon feedstock for biofuels synthesis. The research will focus on key challenges in catalysts design and catalytic reaction. Student will be exposed to the synthesis of heterogeneous catalysts using impregnation method and deposition precipitation method. Catalytic reaction will be carried out using gas flow reactor at different temperature and pressure. Student also will have opportunities to collaborate with university in Malaysia, Indonesia and UK to carry out experiments and catalysts characterisation.
This project will focus on designing and modification of semiconductor for photocatalytic reforming of biofuels mainly for the production of hydrogen gas. Student will be exposed towards synthesis and characterization of metal nanoparticles on semiconductor supports, and also second generations semiconductor. Student also will be exposed on instrumental analysis, XRD, N2 adsorption, SEM, and solar mediated photocatalytic reactor.
CAMES has developed technology for low wind speed turbine, and the project has reached the stage for field testing and commercialization. This project will fabricate 5kWp capacity turbines to be placed at strategic locations for field testing. The test data will be used for further product refinement. The project shall also study the commercialization potential of the turbines, and the aim is to prepare for a startup company. Joint supervision with Dr. S. Mathew
The project involves the survey of road sub-surface conditions in Brunei. The project will involve signal processing, data analytics, and system integration of GPR system for rapid roads.
The main aim of this project is to study the production process of Pervoskite Solar Cell (PSC). As various PSC structures are available, a selected type of PSC will be optimized for production. The product specification is at least 16% power conversion efficiency with module dimension of at 16 x 16 cm2. Joint supervision with Dr. NTRN Kumara
Hybrid plasmonic nanostructures (HPNs) are a combination of structured metal and dielectric materials in the nanoscale. HPNs possess special optical and electrical effects which are applicable to the diverse applications on water purification and other nanophotonic devices, such as nanoantennas and bio-sensors. The water purification technology will compliment existing water treatment technologies where the HPNs based water purification technology is targeted for the treatment of industrial waste water containing organic compounds, metals, and micro-organisms. In this project, the investigated HPNs will be performed by using the simulation and experiment methods simultaneously.
In this project, we will focus on the design and analysis of high throughput of nanoscale plasmonic metamaterial for light manipulation and energy harvesting. We will aim to promote the development of nanoplasmonic metamaterials for applications in light manipulation and energy harvest, such as plasmonic solar cell, plasmonic nanoantenna and highly sensitive plasmonic biosensors. For achieving this purpose, four research steps will be carried out base on our previous works: design, fabrication, measurement, and application. In addition, a numerical method by using the finite element method will be performed to simulate and design the tunable efficiency and nonlinear enhancement of electromagnetic resonances of various plasmonic metamaterials.
A photonic crystal fiber based on surface plasmon resonance (PCF-SPR) sensing of a gold layer or gold nanoparticles will be investigated. The sensor has two advantages: polarization independence and less noble metal consumption. The coupling characteristics and sensing performance of the sensor are performed by using by the finite-element method (FEM) based on Maxwell's equations. The characteristics of birefringer, foundmantal modes and optical loss spectrum of the PCF-SPR sensor will be discussed in detail in this project.
Prevention of unforeseen and sudden accidents within our immediate environment as a result of gaseous pollutants and /or gas cylinder leakage make it necessary for researchers and industrialist across the world to provide effective means for present and future prevention through fabrication of gas sensors. Semiconductor metal oxide gas sensors have been proven to be the most efficient gas sensors exploited so for due to a number of reasons such as simplicity in their fabrication and cost effective.
Theoretical study always help to understand the more sciences. This modelling and simulation study is to explore the behavior of pristine and different doped metal oxide clusters in the presence of gas molecules. The results may help to understand the mechanism of sensitivity and reactivity improvements in the gas sensors which will be useful for the experimental works. Energy calculations, geometry optimizations, density of states (DOS), and natural bond orbital analyses are some of selected simulation works.
Waste generated as by product from many factories. Zinc, copper, nickel, lead and toxic dye contaminated wastewater has been a major concern due to its extremely hazardous impact on the environment and human health. Adsorption method have been proven to be most effective and low-cost technique for treating the contaminated wastewater. Modified and development of activated carbon with waste biomass as its precursor are considered as an excellent adsorbent for removal of the contaminants due to its cost effective and high adsorption capacity.
The aim of this applied-research project is to develop and demonstrate coatings for application in maritime-building infrastructure. There are three types of coatings to be developed and demonstrated: antifungal, anticorrosion and concrete-protection. There are three main activities for this project. The initial research and development activity will take place at the Centre for Advanced Material and Energy Sciences (CAMES), under the host organisation, Universiti Brunei Darussalam (UBD). The latter demonstration activity will be conducted in collaboration with the Centre of Science and Technology, Research and Development (CSTRAD) on maritime-building assets belonging to the Ministry of Defence Brunei Darussalam. The final activity involves filing the patent applications related to these coating products. Laboratory skills and knowledge related to undergraduate Chemistry and/or Physics are required.
The aim of this project is to synthesize functionalized zeolites catalyst for methane activation reaction. The activation of methane enables the direct conversion of methane (a major component of natural gas) into higher monetary value chemicals such as alcohols, syngas, alkenes, alkynes and aromatics, a reaction regarded as the “holy grail” in the chemical industry. Zeolite comprises of a crystalline framework of aluminosilicates and because of its high porosity and reactive acidic sites, zeolites has shown to have exceptional performance as catalyst in various reactions in the chemical industry. The active sites can be chemically modified to enhance its catalytic performance, thus to functionalise the catalyst. The world market demand for zeolites catalyst is USD20 billion in and it is projected to grow to USD24 billion by 2018.
Heterogeneous catalysis technology is the key for green energy. It is involved in making petrochemical processes more efficient and also the development of renewable energy such as water splitting and solar photovoltaic cells. Metal oxides are usually used as materials for heterogeneous catalysis. Since most of the catalytic reactions occurs on the surface, surface chemistry and optimisation is utmost important. One method to optimise the surfaces of the metal oxide catalyst is by specifying its exposed facets, and this can be achieved by tuning the morphology of the metal oxides. However, this method of optimisation is not feasible for the chemical industry due to the complication and high cost of synthesising these morphology-controlled oxide catalysts. This project aims to develop facile and cost effective synthesis methods, so the catalysed chemical processes can be more efficient and economical.