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Last edited 31 Mar 2022
In a speech in November 2017, the UK Energy Secretary Greg Clark set out an apparently ambitious vision of UK energy policy in general, and for battery energy storage in particular. What's more, the UK’s Faraday Challenge comes with a promise of £246 million to boost expertise in battery technology.
While the UK has generally been one of the leading advocates of a greener, more sustainable energy policy over the past few decades, it has always been more ambivalent when it comes to committing significant sums of hard public cash. While just under a quarter of a billion pounds is still modest compared to the R&D budgets of some of the world’s leading corporations (Amazon alone is set to invest roughly 50 times that sum in overall R&D in 2017), it nonetheless represents an important step forward.
Battery storage matters of course because, based on current knowledge, it offers the most efficient and practicable way of converting energy into a form where it can be stored safely, and in a limited space (an important factor for buildings, especially for homes), and then be available for instant use ‘on demand’. Given that the key renewable energies, wind and solar, are inherently irregular, this form of storage is crucial to their development.
Clark’s stated aim is no less than “to ensure that the UK is the place in the world where new battery technology especially in combination with the auto sector is not just developed but is commercialised.”
Experience suggests that individual countries can indeed emerge as leaders in innovative green technology in a way that not only helps the environment but makes a major contribution to their economy. Denmark, for example, has emerged as a global giant in wind-power technology, helped not just by an abundance of wind – which many countries enjoy – but by leadership in the development of the requisite technology.
In 2016, over 32,000 people were employed in the Danish Wind Power industry – which would be proportionately equivalent to over 350,000 jobs in the UK. The industry also generated €5.98 billion in product exports, which equates to over 1,000 euros for every man, woman and child in Denmark.
Looked at today, the UK has its work cut out to become a global leader in battery storage. In a list of '43 Battery Storage Companies To Watch' compiled by cleantechnica in early 2015, only one company (res) was headquartered in the UK, and fewer than one in 5 were European headquartered – with Germany, perhaps not surprisingly having the strongest European base. Two thirds were based in North America and about 1 in 6 in Asia (that is in Japan, China or South Korea).
Bloomberg has projected that China’s share of global lithium-ion battery production will rise from an estimated 55% today, to as much 65% in 2021. The UK, like the rest of Europe, has some reason to be concerned that, with energy storage as with so many other disruptive new technologies, so much of the main action is taking place in other parts of the world, with Europe and the UK potentially sidelined to the ranks of spectators and followers.
However, two important caveats should be applied here. The first is that there is a well-established global pattern of R&D being focused in the leading developed economies (such as North America, Western Europe, Japan and South Korea), with mass production being outsourced to countries such as the BRICS economies, especially China, India and Brazil.
The second is, of course, that an economy that optimises use of energy storage will be about much more than the design and manufacture of ever more efficient batteries, important though this is. The creation of an energy grid which can make optimal decisions about when to store energy (at national, local and community level), and from which courses will also be critical, as will be the development and implementation of building energy management solutions which can ensure that each building manages its energy, including energy storage in an efficient way.
The UK government’s approach, including promoting initiatives from universities, also makes a lot of sense, given that many of the world’s energy storage leaders started life as offshoots of university research programs.
All of this may or may not propel the UK to the kind of leading role that it aspires to. It is, however, a timely and much needed move to become more proactive in one of the technologies that will be vital in creating a safer and more sustainable future.
NB Energy Storage in Buildings, A Technology Overview (BG 73/2018), written by John Piggott and published by BSRIA in March 2018, sates: ‘The storage of electrical energy is primarily (but not exclusively) concerned with the storage of electrical charge in a battery. This is achieved by combining two chemicals with different properties that, when brought into contact with each other, create an electric current…. Although batteries can take different physical forms and use a variety of different chemical combinations, they share many of the same fundamental properties...’
- BSRIA articles on Designing Buildings Wiki.
- Battery energy storage systems with grid-connected solar photovoltaics BR 514.
- DC isolators for photovoltaic systems (FB 68).
- Domestic micro-generation.
- Energy price crisis: ECA calls for energy levy reform.
- Energy storage - the missing piece?
- Energy storage for buildings.
- Energy storage in buildings - a technology overview BG73 2018.
- Flow battery.
- Fly wheel.
- Fuel cell.
- Graphene batteries.
- Lead-acid battery.
- Lithium-ion battery.
- The use of batteries to store electricity for buildings.
- Why the UK needs to support emerging tech like energy storage.
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