SmartHubs SLES

The SmartHubs smart local energy systems project starts with the premise that "you can't buy a Smart Grid". The plan is not only to procure a Smart Local Energy System in West Sussex, but also to develop a new procurement approach for local Smart Grids that can be replicated elsewhere and be financeable.

The SmartHubs project will deploy multi-scalar, multi-vector open-architecture smart local energy systems across heat, power & transport with interoperable Internet of Things layers as part of a blueprint for future local energy Smart Grids.

Although a marine source heat pump will be the backbone of a new district heat network, it is recognised that to achieve the UK's carbon targets "heat is only half of the problem".

SmartHubs SLES

The Electrification of Heat

The electrification of heat opens up opportunities not only to balance the national grid, but also to use demand side response techniques at the local level to balance local energy supply and demand.

The SmartHubs Project brings together cross-sector supply chains to deliver integrated energy solutions at different scales to meet the energy systems challenges of achieving a low-carbon economy: secure, affordable, sustainable energy.

The heart of the network is the efficient use of renewable energy based on the recycling of solar heat in the sea (transferred from the Caribbean by the Gulf Stream) to heat buildings on the network in winter.

Heat pumps are used to transfer heat to buildings in winter instead of generating heat afresh when needed by burning fossil fuels. ICAX has developed heat pumps which can deliver high temperatures so that they can be used at the heart of a Fourth Generation Heat Network to deliver heat to buildings on the network. ICAX will also examine the feasibility of incorporating a fifth generation heat network into the SmartHubs project.

Balancing the supply and demand for heat through the seasons is mirrored by balancing the supply and demand for electric power by shifting some of the demand from times of peak consumption (by day) to times of excess supply (by night).

Demand Response

Demand side response can be used to shift the timing of electric demand from hours of peak demand to times of surplus supply. DSR requires a bi-directional energy grid to signal when prices are low to trigger additional use (and to signal when prices are high to inhibit use).

Electrification of Transport

Vehicles can be free from emitting CO2 and NO2 if propulsion is based on an electic drive train. Battery electric vehicles need time to charge and electric charge points which will be installed in Shoreham. Fuel cell electric vehicles can be charged quickly at hydrogen charging points, which will also be installed at Shoreham.

Air Quality

SmartHubs is also addressing the growing problem of air pollution in Shoreham: the marine source heat pumps and air source heat pumps will provide heating without employing combustion or releasing any gasses on site.

Energy Trilemma

SmartHubs Consortium

The SmartHubs SLES project is part funded by UK Research and Innovation. The SmartHubs Consortium consists of:

  • Connected Energy which is installing recycled electric vehicle batteries to provide electrical storage services to help balance the local grid capacity.
  • ICAX which has developed Interseasonal Heat Transfer to enable buildings to be heated in winter with solar energy captured in the previous summer. ICAX is providing the marine source heat pumps at the heart of the heat network and designing the abstraction and rejection systems for heat exchange with the sea.
  • Moixa is creating a Virtual Power Plant (VPP) to link solar panels, batteries and electric vehicles and use demand side management to balance the generation, storage and use of electricity including providing Vehicle to Grid (V2G) services to enable electric vehicles to be charged using off peak electricity, and using electric batteries in EVs to be used as a source of energy at times of peak demand.
  • PassivSystems is installing 250 air source heat pumps in existing housing association properties linked in to the existing gas replacement cycle to establish a significant electrical load that can be used to balance the local grid capacity.
  • Mesh networks grid reinforcement is being installed to boost the local electrical infrastructure and increase its resilience by balancing supply and demand at the local substation level at the grid edge. This is designed to help move from the current pattern of radial network balancing toward a mesh balancing system which also allows balancing at the local level as well.
  • ITM Power is providing local hydrogen refuelling stations for electric vehicles. Its 'Power-to-Gas' stations use off peak electricity to generate hydrogen from electrolysis and store this for refuelling fuel cell electric vehicles (FCEVs) that use hydrogen fuel cells to produce electricity for their drive trains. Its refuelling stations will also provide electricity for battery electric vehicles (BEVs).
  • Newcastle University is modelling simulations of the multiple energy vectors to be employed in the local energy Smart Grid, both individually and as an energy systems integration. The modelling will cover both energy efficiency and a full cost benefit analysis.
  • West Sussex County Council will establish a multi-vector local smart grid in Shoreham-by-Sea and develop a new procurement approach for smart grids that can be replicated elsewhere and be financeable.
Energy Trilemma

The Energy Trilemma

The SmartHubs Project is accepting the challenge from government and Innovate UK to resolve the Energy Policy Trilemma:

  • by using heat networks
  • by using heat transfer instead of combustion
  • by accelerating the electrification of heat
  • by accelerating the electrification of transport
  • and by employing "demand response" to focus on using off-peak electricity and reduce peak electric demand.




  Connected Energy    ICAX       Moixa     Passiv Systems



                  ITM Power     Newcastle University        WSCC