top of page

LOFC Stadium Case Study

WhatsApp Image 2024-08-02 at 21.48.01 (3).jpeg

LOFC 350Kw Solar Panel Installation

Leyton Orient Football Club, based in East London, sought to reduce their carbon footprint and energy costs by installing a 350kW solar photovoltaic (PV) system on their stadium's roof. The installation took place during the off-season to minimise disruption to club activities and match-day operations. Scope was chosen for our expertise in large-scale solar installations and our track record with commercial projects.

What Did We Want To Accomplish?

  • Reduce Energy Costs: Offset a significant portion of the club's electricity usage with renewable energy.

  • Promote Sustainability: Demonstrate Leyton Orient's commitment to environmental responsibility.

  • Utilise Unused Space: Efficiently use the large roof area of the stadium.

How Did LOFC Benefit?

Energy Savings: The system is projected to generate approximately 300,000 kWh annually, significantly reducing the club’s energy bills and reliance on non-renewable energy sources.

 

Environmental Impact: The installation offsets around 150 tonnes of CO2 annually, contributing to the club’s sustainability goals and enhancing their green credentials.

​

Community Engagement: Leyton Orient leveraged the installation as a cornerstone of their community outreach, educating fans and the local community about renewable energy and sustainability.

 

Brand Enhancement: The project has positively impacted the club’s brand, showcasing their commitment to innovation and environmental stewardship.

WhatsApp Image 2024-08-02 at 21.57.10.jpeg
WhatsApp Image 2024-08-02 at 21.48.02.jpeg

Project Planning and Design

​       1. Feasibility Study:

       The initial phase involved an all-encompassing feasibility study,               including:

  • Roof Assessment: Structural analysis of the stadium's roof to ensure it could support the weight of the solar panels and associated equipment. This involved detailed load calculations and coordination with structural engineers.

  • Energy Audit: Assessment of the club's historical electricity consumption to size the system appropriately.

  • Shading Analysis: Use of solar irradiance data and 3D modelling to determine the optimal placement of panels, avoiding shading from nearby structures and natural features.

       2. System Design:

       The design phase included:

  • Selection of Panels and Inverters: Chosen for their efficiency, durability, and warranty terms. High-efficiency monocrystalline panels were selected, paired with central inverters to maximise energy conversion.

  • Electrical Design: electrical schematics, including cable runs, junction boxes, and connection to the stadium’s electrical infrastructure.

  • Monitoring System: Integration of a state-of-the-art monitoring system for real-time performance tracking and maintenance.

Installation Process

       1. Permitting and Approvals:

       All necessary permits and approvals were obtained, including                     planning permission from the local council and grid connection                   agreements with the distribution network operator (DNO).

       2. Site Preparation:

       During the off-season, preparatory work included:

  • Scaffolding and Safety Measures: Erecting scaffolding and implementing safety protocols, ensuring compliance with health and safety regulations.

  • Roof Reinforcement: Minor reinforcements were made to the stadium’s roof to accommodate the additional load.

       3. Solar Panel Installation:

       The installation was executed in several stages:

  • Mounting System Installation: The racking system was securely fixed to the roof. This system supports the solar panels and allows for optimal tilt angles.

  • Electrical Work: Inverters and electrical components were installed, followed by the wiring of panels. This phase required meticulous attention to ensure safety and compliance with electrical standards.

       4. Testing and Commissioning:

       Post-installation, the system underwent thorough testing:

  • Electrical Safety Tests: Verification of proper grounding, insulation, and system integrity.

  • Performance Testing: Ensuring the system met expected output levels, with adjustments made as necessary.

  • Grid Connection: Finalisation of the grid connection, allowing excess energy to be fed back into the grid under the terms of a Power Purchase Agreement (PPA).

Untitled design (43).png
bottom of page