OKR Example: Reducing AC-to-DC Conversions for a Smarter Campus

Objective (Sample)

Reduce AC-to-DC conversions across campus to improve energy efficiency, lower costs, and enable smart infrastructure.

Why This Matters

Every AC-to-DC conversion introduces energy losses (5–20%) and heat, increasing HVAC loads and operational costs. By minimizing conversions and moving toward direct DC distribution, schools can:

• Save energy and reduce carbon footprint.
• Simplify infrastructure for IoT and smart devices.
• Improve resilience and safety with modern DC systems.

Key Results

1. Energy Efficiency
   • Achieve 8–13% reduction in ICT-related electricity use by eliminating redundant AC/DC conversions.
   • Reduce HVAC load in network closets by 10–15% through lower heat output.
2. Operational Savings
   • Consolidate UPS systems to centralized DC architecture, cutting UPS maintenance costs by 70–78%.
   • Free up at least 2 network closets for repurposing by removing excess conversion equipment.
3. Sustainability
   • Lower lighting energy consumption by 15–30% using PoE/DC-powered LED systems.
   • Reduce campus carbon emissions by 20 metric tons annually through improved efficiency.
4. Resilience
   • Enable 2–4 days of critical load support during outages with integrated DC storage and solar PV.
   • Implement Fault Managed Power Systems (FMPS) for safe high-voltage DC distribution.

Initiatives

• Deploy DC microgrid pilot in one building.
• Transition PoE lighting and IoT sensors to DC power.
• Integrate solar PV and battery storage without inverter losses.
• Train facilities team on DC safety standards (UL 9540A, NFPA 855).

Metrics Dashboard