Update: The position has been filled. Thank you for all the interests.

Conversion of CO2 to CH4 by Methanogenic Microbes for Use in Valued-added Geologic Carbon Capture and Sequestration

We are currently looking for one (1) postdoctoral researcher to work on this project, in collaboration with Petronas Research Sdn. Bhd. (PRSB). It is a multi-disciplinary project, with researchers coming from several UTM faculties and CoE (Department of Biosciences and Department of Physics, Faculty of Science; School of Chemical Engineering and School of Mechanical Engineering, Faculty of Engineering; and Advanced Membrane Technology Research Centre) together with reservoir geology and geochemistry researchers at PRSB.

Project summary:

Carbon capture and storage (or sequestration) (CCS), is the process of capturing CO2 from large-scale emitters such as fossil fuel refineries, power plants and product manufacturing industries, and transporting it to a storage site. This prevents the CO2 re-entry into the atmosphere. There are several routes available for CCS, which can be divided into physicochemical, biological, and geological route. CO2 sequestration in deep subsurface formations, such as oil and gas reservoirs provides several advantages, such as enhanced oil recovery, and the capability to store up to two thirds of the CO2 in underground systems. The injected CO2 can also be transformed into CH4 by microbes for energy recovery as value-added options, in the presence of suitable electron donors, for example formate and H2.

This exploratory project will involve cultivation of methanogens under laboratory conditions and evaluation of the CO2 to CH4 conversion capacity. It will also involve lab scale reactor optimisations for the production of H2. Self-designed reservoir-mimic reactor will be used for larger scale methanogenesis reactions with CO2 and H2 as feedstocks. Depending on sample availability, microbial community analysis and methanogenesis characterisations will also be done on environmental samples.

Candidate requirements:

Open to both Malaysian and international candidates.

PhD (in biochemistry, biotechnology, chemical engineering, bioprocess engineering, or any related fields) from local or foreign universities.

Experience in any of these skills are an advantage: archaea handling, anaerobic reactor systems, reservoir biology, microbial ecology.

The position is on contract-basis (renewable up to 24 months), based on the candidate and project performance.

A monthly salary of MYR5,000 will be provided.

How to apply:

Kindly e-mail your CV and cover letter to the project leader, Dr. Mohd Firdaus Abdul Wahab at firdausw@utm.my.

Only selected candidates will be contacted for interview.

Position is open until filled.

Our first research book has now been published by UTM Publisher. The book has 12 chapters altogether, compiling research on proteins carried out by UTM researchers and their collaborators. It is now available for purchase at:

eBook: https://www.e-sentral.com/book/info/316417/current-technique-in-protein-science

Hard copy: https://shopee.com.my/Current-Techniques-in-Protein-Sciences-i.86546040.4943749675

Book Preface

“Proteins are the basic building blocks of life. They are defined as large biomolecules, or macromolecules, consisting of one or more long chains of amino acid residues. Proteins perform a variety of functions in the cell, including catalysing metabolic and biochemical reactions, assisting DNA replication, responding to external and internal stimuli, and transporting molecules from one location to another intra-cellularly or extra-cellularly. The study of proteins is important in the fields of biomedicine, environmental sciences, and for industrial applications. The understanding on how protein works at the molecular level assists in the development of new disease therapy, discovery and improvement of the activity of industrially- important enzymes, and discovery of beneficial secondary metabolites in medicinal plants, among many other interesting applications.

Food security is a very important issue nowadays. It is an already complex issue made worse by climate change, and the growing scarcity of arable land due to rapid urbanisation. The UN has reported that “815 million people are hungry today, and the additional 2 billion people expected to be undernourished by 2050”. Goal 2 (Zero Hunger) of the UN Sustainable Development Goals (SDG) calls for an increased investment in agricultural research to increase the agricultural productive capacity, particularly in developing countries.

Genetic engineering of food crops has the potential to provide the promising solutions, by providing the technology to develop higher yield, drought resistance, and nutritionally-enhanced food crops. However, the public perception of genetically-modified organisms (GMO) and transgenic plants has hampered the acceptance of many GM products.

Advancements in microbiology and microbial ecology has shed light on the importance of plant-associated microorganisms, particularly the community around the root region (rhizosphere). It is now known that there is a complex network of interactions between plants and their root microbes, increasing the plant nutrient uptake, and provide resistance to biotic and abiotic stresses. The rhizosphere is populated by a diverse range of microorganisms, and rhizobacteria are the bacteria colonizing this habitat with the ones that promote plant growth are called plant growth-promoting rhizobacteria (PGPR) (Beneduzi et al., 2012). These PGPR can be used to enhance agricultural productivity without using plant genetic modifications, or synthetic fertilisers. But understanding these PGPR and how they interact with their plant hosts requires the latest technologies in microbial ecology, molecular biology, plant sciences and chemical analysis.

I joined the Swarup Lab at the National University of Singapore (NUS) in January 2019, as part of my post-doctoral training, to learn more about these latest technologies. My work here involves the use of multi-omics analysis (metagenomics, metatranscriptomics and metabolomics) to study plant-microbial interactions, particularly how the PGPR at the root region affect the growth of green leafy vegetables. Multi-omics analysis uses information obtained from DNA, RNA and small chemical molecules (known as metabolites) found in the plant rhizosphere. I will also use advanced culturing tools to culture and characterise the complex bacterial communities in the rhizosphere. Bacteria found to have beneficial plant improvements traits can be applied to enhance the yield of agricultural products, in this case the leafy vegetables commonly used in urban farming. This microbial-assisted plant growth enhancement technology can lead to a more sustainable agriculture, lowering the use of chemical fertilisers, pesticides and herbicides.

References:

UN Sustainable Development Goals (https://www.un.org/sustainabledevelopment/sustainable-development-goals/)

Beneduzi et al., 2012. Plant growth-promoting rhizobacteria (PGPR): Their potential as antagonists and biocontrol agents. Genet Mol Biol. 35(4 Suppl): 1044-1051.

The Taiwan-Malaysia Innovation Centre for Clean Water and Sustainable Energy (WISE Centre) will organize the inaugural Taiwan-Malaysia Workshop on Clean Water and Sustainable Energy, to be held at Universiti Teknologi Malaysia, Johor Bahru, on 5-6 August 2019. This workshop is co-organized by the Centre for Environmental Sustainability and Water Security (IPASA), Faculty of Science, Research Institute for Sustainable Environment (RISE), Resource Sustainability Research Alliance (RSRA), UTM; the School of Chemical Sciences, Universiti Sains Malaysia (USM) and the Centre for Biomass Utilization, Universiti Malaysia Perlis (UniMAP); together with National Tsing Hua University (NTHU), Taiwan. It is also supported by the Ministry of Science and Technology, Taiwan (MOST).

The general theme of the workshop is “Clean Water and Sustainable Energy”, and abstract submission are now invited from academic staff, researchers and postgraduate students on all aspects related to the Workshop theme. Several prominent professors from NTHU will participate as keynote and invited speakers in the Workshop. Participants will have the opportunity to network with professors and researchers from Taiwan, Malaysia, and other South East Asian countries.

A nominal fee of MYR300 (academic staff and researchers) or MYR150 (students) will be charged on all participants to cover meals during the workshop.

Abstract can be submitted at this link: https://forms.gle/E3yxmbkNCPAvE5W79 

Submission will close on 20 July 2019, or until all places are filled as they are limited.

Any enquiries regarding the Workshop can be directed to the Secretariat, Dr. Mohd Firdaus Abdul Wahab at firdausw@utm.my.

For more information, visit: http://www.utm.my/ipasa/2019/06/24/taiwan-malaysia-workshop-on-clean-water-and-sustainable-energy/

Our involvement in the Taiwan-Malaysia Innovation Centre for Clean Water and Sustainable Energy (WISE Centre) continues with the study and networking trip to NTHU Taiwan and the affiliated institutes in March 2019. Read more about the trip here.

Abdullahi Mohammed has successfully submitted his final thesis for PhD award. He was working on isolating and characterising psychrotolerant bacteria from Antarctic environment for lower temperature biohydrogen production. Psychrotolerant bacteria are able to survive mesophilic temperature (20-40°C) but they are also able to tolerate lower temperature.

Abdullahi has published a paper in the Polish Journal of Microbiology (click here to read), and a few more are in the pipeline.

We wish him all the best in his future academic career!

Lily Suhana Ayoub has successfully completed her MPhil thesis correction and awarded the MPhil degree in Biosciences in January 2019. Lily was working on identification and characterisations of biohydrogen-producing bacteria from cassava-processing wastewater and sludge.

Congratulations!

We are happy to be part of the newly-formed Malaysia-Taiwan Innovation Centre for Clean Water and Sustainable Energy (abbreviated as WISE), with the other UTM partners being RISE and IPASA. National Tsing Hua University (NTHU) is the Taiwanese counterpart. Read more about the partnership here.

Effective of 1 July 2018, the existing 18 faculties of UTM will be merged into only 7. The Vice Chancellor Prof. Datuk Ir. Dr. Wahid Omar was quoted as saying “This major transformation is meant to open up more opportunities for synergy and collaborations between academicians from different academic disciplines and new innovation in offering academic programs that are able to fulfill the new needs of the society in the future.”

The Faculty of Biosciences and Medical Engineering (FBME) split into two, the original Biosciences will join the Faculty of Science, becoming the Department of Biosciences. While the Medical Engineering will join the Faculty of Engineering as the School of Biomedical Engineering and Health Sciences.

Read the full story of the merger at the link below.

UTM Synergy 4.0 to merge faculties

The Faculty has acquired an ÄKTA pure system, which has a higher capability for protein purification than the current ÄKTAprime plus available in the lab. It also comes equipped with His-tag, ion exchange, and gel chromatography columns. Members of the Proteomics Lab will have access to this shared instrument.

Photo courtesy of GE Life Sciences.