Djamal Benhadji

• Implementing concurrent design methodology and rolling out COMET CDP4 software to improve design process efficiency, timeline management, and traceability.
• Capturing and managing requirements while liaising with subsystem teams to build lifecycle management for Enoda’s Prime Exchanger product.
• Investigating and implementing methods to enhance the performance of the Prime Exchanger, focusing on power factor correction, grid harmonisation, and voltage regulation to improve efficiency and stability in low-voltage distribution networks.
  Conducting trade-off studies and feasibility analyses to assess performance, cost, and scalability
• Investigating and conducting trade-off studies and feasibility analyses to assess performance, cost, and scalability of of the Prime Exchanger system.

• Designed and led the development of a first-of-its-kind pressurised SOEC electrolysis system, delivering highly efficient and low-cost hydrogen production.
• Performed detailed feasibility analyses for integrating carbon capture systems with high temperature Solid Oxide Fuel Cells, optimising system design for enhanced CO2 sequestration and energy efficiency.
• Led cross-functional collaboration across engineering teams to develop Piping and Instrumentation Diagrams (P&IDs), establish clear operational modes, and accelerate project delivery.
• Applied model-based systems engineering best practices including the V-model, requirements management, and system architecture modelling to improve work quality and ensure the successful delivery of projects.
• Developed an advanced cost calculation tool to estimate the LCOE and LCOH, enabling robust techno-economic assessments and supporting strategic decision-making for Ceres Power.
• Managed timelines and resources to deliver complex projects on budget and schedule, capturing and validating requirements via Cockpit platform and working with stakeholders to develop customised SOFC/SOEC solutions.
• Conducted technical feasibility research on ammonia as a clean fuel for Ceres’ fuel cells, laying the groundwork for marine SOFC applications.
• Led the development of a process air dehumidification system for Ceres’ solid oxide electrolysers, enhancing durability, extending stack lifespan, and enabling the company’s first megawatt-scale SOEC demonstrator.

• Designed and conducted experimental performance testing for domestic and industrial energy storage systems.

• Applied thermal engineering knowledge to develop simulation models, enhancing accuracy in predicting system performance and optimising thermal management strategies.

• Sized and tested heat pumps integrated with thermal storage systems, ensuring optimal efficiency and performance in various applications.

• Analysis and material characterisation using a variety of laboratory and thermal analysis devices.

• Conducted experimental research on fluid flows employing two-dimensional particle tracking velocimetry, particle image velocimetry, and planar laser-induced fluorescence techniques.

• Developed and implemented custom energy storage systems to meet specific project requirements, improving efficiency and sustainability.

• Reported findings through detailed technical reports and authored scientific papers, contributing to the broader knowledge base in energy storage and thermal engineering.

• Coordinated energy projects utilizing Computational Fluid Dynamics (CFD) for advanced applications.

• Coordinated lecturers for diverse engineering courses, offering robust academic support.

• Expertly managed energy projects with Computational Fluid Dynamics.

• Delivered engaging lectures for diverse engineering courses.

• Fostered student success as a Teaching Assistant.

• Conducted solar energy potential and structural analysis of energy systems.

• Evaluated renewable energy systems to optimize efficiency.

• Utilized Computational Fluid Dynamics (CFD) for precise system modelling.

• Analysed energy consumption data, recommending cost effective conservation measures

• Coordinated with the team in the development and conceptualization of decentralized Energy, Water, and Food systems for rural Africa, enhancing sustainability and self-sufficiency.

• Performed comprehensive economic analysis for diverse systems and scenarios, driving data-driven decision-making and optimizing resources.

• Designed decentralized systems for Energy, Water and Food in rural Africa.

• Executed economic analyses for multiple systems and scenarios.

• Supported and Installed solar photovoltaic systems in rural areas in Enkanini, Stellenboch.

• Enhanced rural energy access with sustainable solutions.

• Worked with project manager to develop and implement strategies for cost analysis.

• Assessed and evaluated potential sites for solar energy projects implementation in Algeria.

• Prepared detailed reports and presentations on solar project outcomes for stakeholders.

• Created regular status reports to keep stakeholders updated on project progress and site evaluation results.