The Big Questions

Renewable energy sources, such as wind, solar, and hydro, are the best alternatives to fossil fuels because they are clean, sustainable, and environmentally friendly. Unlike fossil fuels, which release harmful greenhouse gases and contribute to climate change, renewables produce little to no emissions, helping to reduce our carbon footprint and combat global warming. Additionally, renewable resources are abundant and can be replenished naturally, making them a long-term solution for reducing reliance on finite fossil fuels and promoting energy security.
Battery Energy Storage Systems (BESS) play a crucial role as supporting infrastructure by storing excess energy generated from renewable sources and delivering it when demand is high or generation is low, ensuring a stable and reliable energy supply.
Renewables are often considered better than nuclear and hydrogen because they are more widely available, have lower upfront costs, and pose fewer long-term environmental and safety risks, whereas nuclear energy generates radioactive waste and hydrogen production can still rely on fossil fuels, limiting its sustainability.

Rooftop, brownfield, and greyfield sites may not always be ideal for renewable energy projects due to several factors such as limited space, structural limitations, or environmental contamination. Rooftop installations might lack sufficient area or structural integrity to support large-scale systems, while brownfield and greyfield sites may also require extensive remediation efforts due to contamination, adding additional costs and complexities. However, when suitable, these sites can still offer valuable opportunities for smaller or specialised renewable energy solutions. Whenever we can incorporate these sites into our projects, we make every effort to do so, as they can provide valuable space for renewable energy generation while contributing to the revitalisation of underutilised areas.

We carefully select each site based on a range of factors, including environmental impact, grid connectivity, resource availability, and regulatory requirements. While other locations may seem more appropriate at first glance, this particular site offers the best combination of technical feasibility, community support, and sustainability, ensuring that the project can be developed efficiently and responsibly for long-term success. Additionally, we consider the need for balanced energy generation to ensure the grid can manage supply and demand effectively, maintaining a stable and reliable energy system. The site is thoroughly scrutinised for viability through detailed environmental assessments, feasibility studies, and consultations with local authorities to ensure it meets all technical, regulatory, and community requirements.

Through responsible planning, site restoration, and the use of eco-friendly practices, the land can be returned to its original use or improved after the project’s life cycle. This may involve soil remediation, replanting vegetation, or restoring natural habitats to promote biodiversity and enhance land quality. At the planning stage, the end of the project is taken into account and plans for decommissioning are made decades before they will be implemented. Such approaches ensure that renewable energy projects can support both energy generation and long-term agricultural sustainability. Typically, only around 5-10% of the total land area is directly affected by infrastructure such as solar panels or wind turbines, leaving much of the area undisturbed for the lifespan of the project.