ON-SITE PROCUREMENT
Solving Microgrid Complexity Through On-Site Energy Optimization
20+
Developers engaged
2+ MW
Additional solar capacity installed
$10+
Positive expected net present value per MWh produced
Industry
Manufacturing
Country
USA
FOcus
On-Site Procurement
Client Type
Leading Automotive Manufacturer
Existing infrastructure does not always guarantee optimal performance
As distributed energy systems become more complex, organizations increasingly face challenges that extend beyond adding generation capacity.
Microgrids often evolve over time through multiple technologies, vendors, and operational priorities. As additional assets are introduced, interactions across systems can create unintended inefficiencies and operational uncertainty.
In these environments, optimization can become just as important as expansion.
The challenge
A leading automotive manufacturer had previously deployed fuel cells and on-site solar generation at its California headquarters, creating a highly customized microgrid environment.
As the organization explored additional solar capacity, interactions between existing systems introduced growing complexity.
Questions emerged around system performance, available site capacity, and whether existing infrastructure was being fully utilized.
The challenge was not simply identifying additional generation opportunities. It involved understanding how multiple technologies could work together within a constrained operating environment.
Key considerations:
Existing fuel cell infrastructure
Solar and system interaction complexity
Site capacity limitations
Long-term operational efficiency
Customized microgrid architecture
Reliability requirements
Polar's approach
Polar analyzed multiple pathways for expanding on-site generation while evaluating technical interactions across existing and proposed systems.
Rather than treating new capacity as a standalone addition, the engagement focused on understanding how infrastructure decisions would influence overall system performance.
The team worked closely with technical partners and engaged developers to create customized configurations tailored to the client’s operating environment.
From infrastructure analysis to procurement strategy
The engagement expanded beyond technical evaluation into a structured procurement process.
Polar engaged more than twenty developers and conducted a robust RFP process designed to identify optimized pathways for system expansion.
This approach allowed multiple design alternatives to be assessed across technical performance, reliability, and implementation feasibility.
Five-phase competitive solicitation process:
Key elements of the solution:
Assessment of multiple infrastructure configurations
Technical evaluation across system interactions
Developer engagement and market participation
Structured procurement process
Customized microgrid designs
Control system recommendations supporting reliability
Results
20+
Developers
Engaged
Expanded visibility across multiple infrastructure pathways.
2+ MW
Additional Solar capacity installed
Created additional generation capacity within the existing site environment.
$10+
Positive expected net present value per MWh produced
Improved long-term value generation and economic performance.
Following technical analysis and procurement activities, the client selected an approach that expanded generation capacity while introducing additional control systems designed to improve performance and reliability.
Outcomes achieved:
Expanded on-site generation capacity
Improved microgrid reliability and efficiency
Increased utilization of available infrastructure
Evaluated multiple configuration pathways
Supported long-term operational performance
Created stronger economic outcomes
Optimizing existing infrastructure before expanding it
Adding new energy assets does not always solve underlying system challenges.
In increasingly interconnected environments, infrastructure performance often depends on how technologies work together rather than how they operate independently.
Key takeaway:
Microgrid complexity often grows faster than infrastructure planning.
As organizations continue adding distributed energy assets, system interactions become increasingly important.
Long-term value frequently depends not only on capacity expansion, but on understanding how infrastructure components perform together.
Evaluating opportunities to improve on-site energy performance?
Connect with our team to explore approaches designed for complex distributed energy environments and long-term infrastructure optimization.
