Process Engineer - Catalytic Reactor Development

Facet Amtech, Newcastle, Australia, Internship

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Published on 16 September 2026 · first appeared in our records on 16 September 2026.

Stable posting: first seen on 16 September 2026, with no abnormal reposting.

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Facet Amtech is developing a world-first clean ammonia process — producing ammonia directly from air and water, without the hydrogen infrastructure (SMR or electrolysers) that conventional grey, blue and green ammonia plants require. Our process feeds air and water into a reactor where the catalyst simultaneously separates hydrogen from water and reduces nitrogen from the air, combining the two directly into ammonia. This removes major plant infrastructure costs, improves energy efficiency by avoiding generated waste heat, and drives production costs below grey ammonia prices. We are seeking an exceptional Process Engineer to take our world-first clean ammonia process from bench-scale discovery to industrially scalable technology. Reporting to the CEO, you will design, build and operate the reactor systems in which our catalyst runs, and carry the process engineering discipline that ensures what works at gram scale can be defended at world scale. This is a role for someone who wants to use their skills to bring cutting-edge research into the real world, contributing directly to global decarbonisation and sustainable industrial development. As Facet Amtech grows, this role is expected to play a key part in building and leading the future of our process and pilot plant engineering capabilities. Working with the science and engineering team, you will contribute across the design, construction and commissioning of bench-scale and continuous pilot-scale reactor systems; mass and energy balances, reaction engineering and process modelling; gas and liquid handling, instrumentation, control and data acquisition; and process safety, hazard identification and safe operating procedures. The role is deliberately hands-on — in the near term you will be in the laboratory building, instrumenting and troubleshooting your own systems, working alongside the R&D team on equipment that has never been built before, before transitioning into the design authority for our pilot and demonstration plants as the technology and company mature. It's a unique opportunity to work on complex technical problems that demands a high level of attention to detail and the tenacity to identify and resolve unexpected system behaviours. We're based in Newcastle, one of Australia's fastest-growing energy transition hubs, having recently moved into an independent facility to accelerate lab-based R&D, catalyst manufacturing scale-up and pilot work. The region combines a strong industrial and research base with a coastal lifestyle, easy access to the Hunter Valley, and a cost of living well below Australia's capital cities. Key Responsibilities Process and System Design • Develop process designs for experimental, pilot and demonstration scale systems, including process flow diagrams, P&IDs, equipment sizing and materials selection. • Establish and maintain mass and energy balances for the process, and keep them current as experimental understanding evolves. • Translate catalyst performance requirements into reactor geometry, operating conditions, feed conditioning and product recovery strategies. • Specify instrumentation, control and data acquisition to ensure experiments produce data of sufficient quality to support engineering decisions. • Select and procure equipment, and manage external fabricators, suppliers and contractors. • Drive a culture of critical thinking, evidence-based decision making and engineering rigor across the technical team. • Ensure designs comply with relevant Australian standards and workplace health and safety obligations. • Undertake hazard identification, risk assessment and the development of safe operating and emergency procedures. Build, Commissioning and Operation • Build, assemble and commission bench-scale and continuous flow systems, including gas and liquid handling, heating, pressure control and sealing. • Operate experimental systems and support the R&D team in the execution of test programs. • Diagnose and resolve unexpected system behaviours, distinguishing instrument artefacts and mechanical faults from genuine process phenomena. • Develop reliable, repeatable operating procedures, commissioning protocols and quality control practices. • Ensure designs, modifications, data and decisions are appropriately documented and traceable. • Develop technical reports, design summaries and strategic recommendations for internal and investor audiences. Scale-Up and Industrial Translation • Define and continually refine the scale-up pathway from laboratory apparatus to industrial plant, identifying the scaling risks that must be retired at each stage. • Apply reaction engineering, thermodynamics, heat and mass transfer to understand which phenomena govern performance at each scale. • Identify the engineering constraints that will ultimately determine commercial viability, and feed them back into experimental priorities early rather than late. • Contribute to techno-economic analysis, utility and energy demand estimates, and equipment cost models. • Contribute to intellectual property generation covering process and reactor innovations. Essential Qualifications & Experience • Degree in Chemical Engineering, Process Engineering or a closely related discipline. • Demonstrated process design capability, including mass and energy balances, equipment sizing and selection, and materials of construction. • Hands-on experience building, commissioning and troubleshooting experimental, prototype or pilot-scale systems. • Strong grounding in thermodynamics, reaction engineering and heat and mass transfer, with the ability to reason from first principles in unfamiliar systems. • Demonstrated ability to translate scientific results into engineering requirements, and engineering constraints back into experimental design. • Sound process safety judgement and a rigorous approach to hazard identification. • Comfort operating with ambiguity and incomplete information, where the underlying science is still being estab

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