Project Network Member

Universiti Putra Malaysia https://www.scopus.com/authid/detail.uri?authorId=57189578426

Location: Malaysia | Last Updated: November 18, 2024

Introduction

Dr. Nur Syakina Jamali has dedicated her academic and professional career to advancing the field of chemical engineering, specifically focusing on green hydrogen production and wastewater treatment. As part of her formal training, Dr. Syakina earned her PhD in Bioprocess Engineering, specializing in hydrogen production from palm oil mill effluent (POME). This extensive research not only strengthened her knowledge of chemical and environmental engineering but also developed her expertise in emerging technologies such as dark fermentation, thermophilic biohydrogen production, and bioconversion of organic wastes. Her academic pursuits demonstrate a continuous commitment to broadening her knowledge. She has contributed significantly to the development of hydrogen production technologies through immobilized biofilms and biohydrogen granules. These efforts have led to innovative approaches in utilizing renewable feedstocks, such as POME and lignocellulosic biomass, for sustainable energy production. Her publications in high-impact journals further evidence her deep understanding and application of chemical engineering principles, as well as her ability to expand the body of knowledge in this domain. Dr. Syakina’s engagement in multidisciplinary collaborations reflects her dedication to expanding her technical skills. By working with experts in nanotechnology and materials science, she has incorporated advanced materials such as hydroxyapatite and magnetite nanoparticles into biohydrogen production systems. These collaborative efforts have allowed her to integrate broader knowledge bases and emerging technologies into her work, ensuring cutting-edge advancements in her field. Additionally, her role as a mentor and supervisor to PhD and Master's students demonstrates her capability to share and further develop technical knowledge. By guiding students in projects related to biohydrogen production and wastewater treatment, Dr. Syakina has played a pivotal role in cultivating innovative engineering techniques and theories. These activities align closely with the goal of broadening both personal and collective expertise within her specialization.

Sectors

This Project Network member has experience supporting the sectors and subsectors listed below.

Biogas

  • Agriculture
  • - Anaerobic digestion
  • Municipal Solid Waste
  • - Anaerobic digestion
  • - Composting
  • Wastewater
  • - Anaerobic digestion
  • - Anaerobic Lagoon Treatment System
  • - Liquids Treatment Systems
  • - Sludge Treatment and Management/Biosolids management

Activities

The following table provides the years of relevant experience and highlights of support for various types of methane mitigation activities. The member’s information reflects a set of activity types that were pre-determined by GMI to provide relevant information to GMI stakeholders.

ActivityYearsHighlights
Project Technical (design, engineering, and planning)10Dr. Syakina’s work in wastewater treatment and hydrogen production exemplifies her ability to bridge theoretical knowledge with practical applications. Through her extensive research, she has focused on developing innovative solutions for complex environmental and engineering challenges, such as the effective treatment of POME and the efficient production of biohydrogen. Her expertise in technical research and development has resulted in pioneering solutions, such as the use of immobilized bacteria on advanced carriers like granular activated carbon (GAC) and hydroxyapatite for biohydrogen production. These carriers have been optimized to enhance microbial attachment, improve hydrogen yields, and stabilize production processes. This work demonstrates her ability to develop and refine systems based on evolving technologies and sustainability goals. In the wastewater treatment sector, Dr. Syakina’s experience includes analyzing and improving anaerobic digestion systems for methane and hydrogen production. Her innovative use of eco-enzyme technology and biochar derived from agricultural waste reflects a commitment to continuous improvement and sustainability. By addressing constraints such as nutrient limitations and microbial efficiency, she has introduced new methodologies to enhance the performance of anaerobic systems. Furthermore, her ability to transfer knowledge to industry stakeholders and students illustrates her focus on leveraging research for real-world improvements. This includes collaborating with industry players to evaluate the feasibility of novel bioconversion processes and conducting knowledge-sharing workshops to extend the application of her work beyond academia. These initiatives underscore her ability to identify gaps in existing technologies and deliver targeted improvements.

Countries

The following table provides the years of relevant experience and highlights of methane mitigation support provided in specific countries.

CountryYearsHighlights
Malaysia 10

Contacts

For more information about this Project Network member, reach out to the following point(s) of contact.

Global Methane Initiative (GMI)
Leading methane action since 2004