| NEW BUILD
Construction on the double
Systems engineering is at the heart of the modular construction that will be applied to SMRs, says Andrew Robb and in future a digital twin will keep it current
Andrew Robb
Principal engineer and lead for the Assystem Systems Engineering team
SYSTEMS ENGINEERING IS NOT A new approach. It is widely adopted in the mass-production practices of the aerospace and automotive industries, where it is used to model the complex real-world problems of modular vehicle construction. Now the UK nuclear industry is utilising the methodology as part of its Small Modular Reactor (SMR) programme. The UKSMR Consortium is working with partners and
the UK government to secure a commitment for a fleet of factory built 440MWe nuclear power stations, to be operational within a decade. The consortium members are Assystem, Atkins, BAM
Nuttall, Jacobs, Laing O’Rourke, National Nuclear Laboratory, Nuclear Advanced Manufacturing Research Centre, Rolls- Royce and TWI. The current phase of the programme has been jointly funded by all consortium members and UK Research and Innovation.
engineering manages data and breaks down the complexities of the project, or product, the purpose of which is to reduce the risk of what you are trying to deliver. When risk is reduced, the likelihood of a successful outcome is increased.” Eventually, a ‘Digital Twin’ will be created that will
present all systems in a digital form, with all associated data linked to that element. Paramount to future SMR production, a Digital Twin makes available all the data and records that accompany a product makes it possible to interrogate any part of the design in the form of a 3D model. Should a design change be required, having that information attached to a 3D CAD model allows for greater understanding of the original rationale behind design choices. Assystem is pairing its digital and systems engineering
expertise to bring a version of model-based systems engineering (MBSE) to the SMR programme. This systems engineering methodology, focuses on creating and exploiting domain models as the primary means of information exchange between engineers. This in turn improves the economics of series production, shortens construction times and streamlines project-related communications. In this way, designs for the next power station will have
a traceable and logically structured data set that matches the visible product and lives with it throughout its full life cycle. This is a huge advantage in a very competitive market. The project moves into a new phase in May 2021. The aim
is to deploy first-of-a-kind UK SMRs in the UK in the early 2030s. ■
Above: Assystem is pairing its digital and systems engineering expertise to bring a version of model- based systems engineering to the SMR programme
The planned fleet of up to 16 reactors will use modular
technology designed for factory fabrication, easier transportation and on-site assembly. The modular design is central to the power station, not
only for the reactor components but for the construction of the entire plant. The approach aims to reduce costs by reducing on-site build time. Joining the Consortium in 2019, Assystem brought its
expertise in systems engineering to the programme’s turbine island, cooling water island and balance of plant projects. It is in these areas that the rigours and methodology of systems engineering can break down the complexities of the project and make a much quicker outcome more likely. Andrew Robb is principal engineer and lead for the
Assystem Systems Engineering team currently undertaking the concept design of the UK SMR. He says, “Systems
Estonia considers SMR design In March Rolls-Royce and Fermi Energia signed a Memorandum of Understanding to study the potential to deploy SMRs in Estonia. Kalev Kallemets, CEO and co-founder of Estonia’s Fermi Energia, said: “Fermi Energia will consider Rolls-Royce SMR as one of the credible SMR designs in its national designated spatial planning procedure.” The power stations would be built by the UK SMR consortium, before being handed over to be operated by power generation companies. The study will cover all aspects of deployment including grid suitability, cooling, emergency planning, human resources, licensing feasibility, economics and supply chain. ■
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