The project has been in development for over four years, and it is currently in the process of completing final commissioning. Our pyrolysis technology is scalable and modular by design.
This means:
Creating a flexible technology can lead to a distributed network of pyrolysis reactors capable of processing hard to handle waste materials into a product capable of disrupting existing fertiliser supply chains.
Our integrated process will reduce carbon emissions upstream and downstream, sequestering carbon, producing clean energy and creating a sixth tier to the waste hierarchy – A Conversion Step.
produces heat, and we have already run drying trials.
is robust and resilient, and we have already achieved over 6000 hours of operations.
is currently on Wood Waste, RDF and Difficult to handle waste materials converting them into a range of valuable energy vectors.
is Carbon Capture ready – with the ability to capture carbon pre combustion. It also produces Biochar – an important commodity in Carbon Sequestration.
Read on to learn more about ESS, including what it is, why it is needed, and how Innova are standing at the forefront UK energy storage development.
Solar energy is defined as the energy that is given off by a star – in this instance, energy from the sun. This energy is produced via a process called nuclear fusion, and the energy is released in the form of photons. These photons then travel to earth in the form of sunlight and ultraviolet (UV) rays.
A solar farm is a stretch of farmland where ground-mounted solar photovoltaic (PV) panels are installed, usually in rows.
Solar panels create electricity via the photovoltaic (PV) effect. In short, this is the generation of current and voltage in a material (which, in the case of most solar panels today, is silicone) when it is hit by sunlight. Researchers are continually looking at ways to improve the efficiency of solar panels as more and more solar farms are required.
There are several reasons why we need to build solar developments in the UK:
Currently, the majority of the national grid is powered by greenhouse gas emitting energy producers. By contrast, solar developments do not emit any greenhouse gases, and are therefore classed as a clean energy producer.
The more we can make use of solar power, the less greenhouse gasses that will be emitted, and the greater the chances will be for the planet and population to recover from the negative impacts.
Specifically, the UK government has a legally binding target to achieve Net Zero (the balance between greenhouse gases produced and removed from the earth’s atmosphere) by 2050, and has committed to fully decarbonising the national grid by 2035.
As part of this plan, UK businesses are also required by law to achieve these targets. By switching to solar energy, as opposed to fossil fuels, UK businesses will have a much greater chance of achieving this.
According to Electricity Generation Costs 2023 by the Department for Energy Security and Net Zero, the lifetime cost of solar energy is £41 per megawatt-hours (MWh) produced, compared to gas turbine plants, which are £114 per megawatt-hours produced. As the solar industry develops more, this gap will widen, with solar expected to cost £37/MWh compared to a gas turbine at £139/MWh.
Solar also benefits from a more secure cost in production, as its fuel is free, whereas the cost of gas fluctuates. In summary, by installing more PV solar projects, the cost of energy will reduce.
By using part of a landowner’s land for a solar development, this provides the landowner with a steady and secure income during the operation of the project. Consequently, this gives them the opportunity to reinvest into their farm and help produce food within the UK.
What’s more, solar developments allow for biodiversity enhancements, helping local wildlife to flourish and leaving land in a better state than before the development was built.