Altaf Albaho

Senior Civil Engineer

Ministry of Oil, Kuwait

Dr. Altaf Albaho is a senior civil engineer with a PhD specializing in sustainable environmental engineering, with a strong academic and research background. Dr. Altaf has made significant contributions to sustainable remediation technologies and bioelectrochemical systems, presenting research findings at national and international conferences and publishing a book chapter in Wiley Library. 
With extensive experience in climate change and sustainable energy, Dr. Altaf collaborates with industry and public organizations on large-scale projects aimed at remediation, renewable energy development, and clean energy transition. These efforts focus on minimizing the environmental impact of oil operations and advancing climate-smart oil and land management solutions. 
Dr. Albaho also specializes in waste management, particularly in the treatment of landfill leachate and crude oil-contaminated soils, applying advanced remediation strategies. Additionally, Dr. Altaf has expertise in biowaste materials, including biochar and hydrochar, exploring their applications in environmental remediation and resource recovery. 

Participates in

TECHNICAL PROGRAMME | Primary Energy Supply

The Role of Biofuels as a Feedstock
Forum 06 | Technical Programme Hall 1
30
April
10:00 11:30
UTC+3
In the current linear economy, natural resources are assumed to be plentiful, easily accessible, and reasonably priced. However, this assumption is untenable, given that the world travels beyond its ecological bounds. The circular economy (CE), on the other hand, is a more sustainable alternative to the prevalent linear model since it decreases waste and increases resource efficiency. Waste-based biofuels derived from used cooking oil, animal fats, and industrial food waste offer a sustainable alternative to fossil fuels, reducing waste while contributing to a circular economy. This enhances energy security while lowering greenhouse gas emissions. However, integrating waste-to-biofuel technologies necessitates addressing environmental, technological, and socioeconomic challenges. Globally, governments are starting to realize that petroleum is no longer the best fuel option in terms of pollution, health, and geopolitical harmony. Since petroleum oil is a finite resource, its price will only increase as it becomes more scarce. For example, biodiesel from consumed cooking oil and hydrotreated vegetable oil (HVO) are waste-derived biofuels that offer a low-carbon substitute for traditional petroleum fuels, lowering greenhouse gas emissions and dependency on fossil fuels. Compared to petroleum diesel, biodiesel is non-toxic, renewable, and biodegradable. It also burns cleaner in diesel engines. Biodiesel is less harmful to the environment and is especially better in case of a spill or leak. 

Kuwait Petroleum International (KPI) is a part of the BioSFerA project, a large-scale European endeavor to create innovative, high-performing biofuels to lower greenhouse gas emissions in aviation and maritime sectors. The project's goal is to validate an integrated thermochemical-biochemical approach to developing affordable technology for sustainable marine and aviation fuels. KPI contributes to the BioSFerA project by supporting the development of advanced biofuels through innovative gasification and microbial fermentation technologies. This aligns with its commitment to sustainable energy solutions and low-carbon fuel alternatives. Furthermore, the Imdad initiative in Kuwait was the first biodiesel production facility, which will initially be capable of producing 240,000 liters per month. One of the sustainable biofuels the Imdad project provides is pure biodiesel B-100, which can be mixed to create other grades like B-5. Suitable for use in existing equipment, such as boilers, heating equipment, locomotives, marine engines, electricity generation, and all major diesel engine manufacturers, to satisfy local and international standards. Although Imdad's primary product is biodiesel, the process also produces other goods, all of which have applications. Crude glycerin is a by-product of the process of making biodiesel. Foods, medicines, soaps, and other products can all contain glycerin. The Imdad Project in Kuwait faces challenges in converting used cooking oil (UCO) into biodiesel, including feedstock collection logistics, contamination from food residues, and refining compatibility, which can be addressed through structured collection networks, advanced filtration technologies, and refinery co-processing innovations. In addition, cost competitiveness and supply chain development are crucial factors for the advancement of biofuel market. 

 

TECHNICAL PROGRAMME | Energy Infrastructure

Water Management in the Energy Industry: Innovations for Sustainability & Efficiency
Forum 12 | Technical Programme Hall 2
30
April
10:00 11:30
UTC+3
The production of large amounts of water by the oil industry presents urgent operational and environmental problems, especially in water-limited areas like the Arabian Gulf. Conventional water treatment techniques are frequently energy-intensive and economically. Produced water (PW) is the main waste stream in the oil and gas sector. 

The coexistence of intensive oil production with Kuwait’s arid climate and high salinity levels presents significant sustainability challenges. This study investigates the viability of using bio-electrochemical systems (BES) as a sustainable, low-energy substitute for generated water management in Kuwait's oil industry. A BES is a technology that combines microbial activity with electrochemical processes to treat wastewater and generate electricity simultaneously. Due to the complicated composition and high salinity of the water produced by Kuwait's oil and gas operations, this study suggests a hybrid treatment strategy that combines granular activated carbon (GAC) adsorption with degradation based on the BES. By pre-treating and lowering the organic and hydrocarbon load, the adsorption process improves the effectiveness and permanence of thetreatment process. This integrated approach offers a novel and promising approach to sustainable produced water management in dry, energy-constrained oilfield situations by utilizing the advantages of both physical pollution removal through GAC and the energy-efficient, electroactive biodegradation capabilities of BES. Results are expected to demonstrate the potential of BES in addressing high-salinity water challenges while reducing the environmental footprint of oil operations. In addition to offering comparative benchmarks against traditional treatment technologies, the results can provide practical suggestions for scaled BES approach deployment in Kuwait.