Funded jointly by Siemens Energy Automation Division and the University, the £2m Smart Grid Laboratory will allow experts to test future worst case scenarios in real-time without any risk to customers.
By simulating changes in energy across the grid – both on a day to day basis as well as in extreme cases such as when part of the network is damaged following a storm – the aim is to further understand the demands on the system.
The technology will also be used to test how the anticipated electrification of the UK’s heat and transport networks will affect the grid. The rise in heat pumps and electric vehicles, together with the growing importance of solar panels for energy generation, will mean increased energy flows through the electricity grid which could push the ageing system towards its limits.
Dr Pádraig Lyons, Senior Smart Grids Researcher at Newcastle University, explains: “This new lab will allow us to push the system to these limits without putting the network and customers’ supply at risk.
“Computer models are good to a point, but they lack the realism to mimic constantly changing energy flows across the grid and state-of-the-art intelligent network control systems. With this new technology we are virtually linked up to the grid so the second by second fluctuations across the real network are also happening in real-time in our lab.
“We will be able to test a really tough day in a future scenario and then run it again and again under different conditions and with different energy demands to understand how the existing grid and a future intelligent grid would react and how we can overcome any problems before they happen in the real world.”
Smart Grid Laboratory
The lab at the University’s campus is part of a larger Smart Grid project which includes a grid-scale energy storage test bed being developed on Science Central - a major regeneration project being led by Newcastle University and Newcastle City Council and a centre of excellence on urban innovation and sustainability.
Experts from the University, in collaboration with Siemens and Northern Powergrid, will be trialling new technologies for energy storage to efficiently and sustainably manage delivery of energy across the UK electricity grid.
Commenting on Siemens’ support for this initiative, Dr Bernd Koch, Director of Siemens Microgrids, said: “With energy demand increasing, and new forms of energy generation like renewables becoming more widely used in the UK, it is obvious that we need to make sure that the corresponding energy infrastructure is able to cope.
“The partnership we have established with Newcastle University, and the research that will be carried out in this new facility, will help us to do just that. What we learn can then be used to help in the development of new technologies and solutions to energy management, which will have the potential to benefit us all in the future.”
Decarbonising the grid
Once a luxury, the smart grid is now critical to the future of energy. The existing UK infrastructure is inefficient, costly and unreliable and will struggle to cope with the substantial additional demands likely to be placed on it over the coming decades, such as decarbonisation, the electrification of transport and increased heat demand.
But replacing it is not an option - put end to end, it would stretch twice the distance from the earth to the moon.
Professor Phil Taylor, Director of the Newcastle University Institute for Sustainability and academic lead for the UK’s largest £54million Smart Grid project the CLNR (Customer-Led Network Revolution) explains: “In the past, electrical networks were operated in a passive manner, electricity flowing from high voltage networks down towards the customer at low voltages.
“But as low carbon technologies have come along all that has changed. Distributed generation such as wind farms right down to heat pumps and solar panels in the home means power is now flowing in both directions and in a relatively unpredictable way.
“We need to find a way of managing that power in real time such that the low carbon transition can be achieved at reasonable cost and without degrading power system reliability.
“That’s why this new lab is so important. By understanding fully the demands on the system we can start to make the grid more intelligent - matching supply to demand in real time and within network constraints.
“In addition, we need to find ways to store energy efficiently and effectively when it is in plentiful supply from a low carbon source so it can be released during periods of high demand – to keep the lights on after major storms have damaged the network or when everyone puts the kettle on before sitting down to the Great British Bake Off!”
As well as the real time simulator technology, the lab is also kitted out with the latest energy-saving technology for the home, such as smart washing machines, EV charging points and solar panels.
The team will also be evaluating the pros and cons of using DC as well as AC supplies within homes.
“The UK grid is AC but most consumer items are fundamentally DC devices,” explains Dr Lyons. “Between 20-30% of energy is wasted converting from one form to the other as soon as we switch on our computers or charge our mobiles phones. We are looking to reduce this waste by taking a fresh look at the delivery of energy to devices within the home.”