Identifying potential green energy sources such as solar, wind, hydro, geothermal, or biomass.

Assessing the technical, economic, and environmental viability of the project. This includes resource availability, site selection, and potential energy output.

Involving local communities, government agencies, investors, and other stakeholders to gather support and input.

Obtaining necessary permits and regulatory approvals. This involves environmental and social impact assessments, zoning permissions, and compliance with local, provincial and national regulations.

Developing a financial plan that includes cost estimation, budgeting, and securing funding.

Creating detailed engineering designs and plans including site layout, technology specifications, and infrastructure requirements.

Choosing the appropriate technologies and equipment, such as solar panels, wind turbines, or bioenergy systems, based on efficiency, cost, and site conditions.

Developing detailed financial models to project revenues, expenses, and cash flows over the project's life.

Analysing the impact of various risks (e.g., changes in energy prices, interest rates, operational costs) on the project's financial performance.

Ensuring that projected cash flows are sufficient to cover debt repayment.

Assessing risks such as construction delays, operational issues, market volatility, and regulatory changes.

Using strategies such as fixed-price contracts, performance guarantees, and insurance to mitigate identified risks.

Employing financial derivatives to hedge against interest rate fluctuations, currency exchange rate changes, and commodity price volatility.

Continuously monitoring the project’s performance to ensure it meets financial and operational expectations.

Regularly reporting to stakeholders, including lenders, investors, and regulatory bodies

Sourcing and purchasing necessary materials, equipment, and services. This includes negotiating contracts with suppliers and contractors.

Building the physical infrastructure, such as installing solar panels, or erecting wind turbines. This phase requires careful project management to ensure timely and on-budget completion.

Ensuring all components are properly integrated and connected to the grid or energy distribution system.

Conducting rigorous testing to ensure the system operates as intended and meets performance standards. This includes safety checks, efficiency tests, and troubleshooting.

Overseeing the day-to-day operations of solar an wind power plants, ensuring optimal performance and efficiency.

Regular maintenance and inspections to keep the system in good working order. This includes routine checks, repairs, and upgrades as necessary.

Continuously monitoring the system’s performance using data analytics and control systems to track energy output, efficiency, and environmental impact.

A key differentiator in our approach to Asset Management is our preoccupation with ensuring that all our operating power plants perform above their base case.

Continuous evaluation of the project’s success in terms of energy production, financial performance, and environmental benefits. Reporting results to stakeholders and regulatory bodies to ensure full compliance with all obligations to our clients and the community in which our power plants reside in.

Planning for the eventual decommissioning of the power plants, including dismantling equipment, recycling materials, and restoring the site.

Exploring opportunities to repurpose existing infrastructure for new technologies or upgrading the system to extend its lifespan.