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RIT’s Colorado Springs Solar Office Shares July Output and Fix Plan

Jonas Muthoni

Published · 3 min read

The solar-powered office in Colorado Springs reported an average of 415 kilowatt-hours per day in July. The team said output was slightly lower than in June because of inverter outages. They expect the issue to be fixed next month and performance to rebound soon after.

Why Inverters Matter

Solar panels make direct current (DC). Buildings and the grid use alternating current (AC). The inverter does that conversion. When an inverter trips or fails, energy can’t reach the load, even if the sun is shining. So, outages hit daily totals right away. That’s why technicians keep a close eye on inverter health. 

Research also shows that downtime in inverters and early start-up issues are common loss factors across solar fleets. Analysts track these losses to improve performance ratio and availability. 

Local Sun Helps the Numbers

Colorado Springs is a sunny place. The area typically sees around 5–6 peak sun hours per day, depending on panel tilt and tracking. That means strong potential for steady production when systems run without interruptions. 

National solar resource data from NREL supports this outlook. The region sits in a favorable solar band for annual energy yield. 

Heat and Efficiency

July heat can lower panel efficiency a bit. Most silicon panels lose about 0.3% to 0.5% per °C above 25°C. That effect is normal physics. It doesn’t mean the system is broken. But it can shave some energy on hot afternoons. 

What 415 kWh/Day Means

The average U.S. home used about 861 kWh per month in 2023, according to the U.S. Energy Information Administration. That’s roughly about 29 kWh per day. So, one day of July output at this site could power around 14 average homes for a day, in simple terms. This is a rough comparison, but it helps readers grasp the scale. 

Key Facts and Sources

TopicFact
July average output415 kWh/day, slightly below June, due to inverter outages; fix expected next month
What inverters doConvert DC from panels to AC for buildings and the grid.
Common loss factorsInverter downtime and start-up issues reduce performance ratio
Peak sun hours, localAbout 5–6 hours/day in Colorado Springs
Heat effect~0.3%–0.5% output drop per °C above 25°C
Average home use861 kWh/month (~29 kWh/day) in 2023

Planned Fix and Monitoring

The maintenance team plans to resolve inverter issues next month. After repairs, they’ll watch the data closely. They’ll check inverter temperature, fault codes, and uptime. They’ll also compare string outputs and track any curtailment. This is standard practice across commercial arrays. 

Simple steps that help keep energy flowing

  • Active monitoring: set alerts for over-temperature and ground faults.
  • Thermal care: keep inverters cool and well-ventilated.
  • String checks: find and fix mismatches early.
  • Firmware updates: apply stable releases, then verify in logs.
  • Spare parts: stock fans, fuses, and keyboards to cut downtime.

Context Tools for Estimating Output

For context and planning, many engineers use the NREL PVWatts® calculator. It estimates energy based on location, system size, tilt, and losses. It’s a trusted baseline for “what should we see” in a normal month. 

Bottom Line

The July result—415 kWh/day—shows that the site stayed productive, even with outages. Inverter trips can drag totals down, but they’re fixable. Colorado Springs offers strong sun, and cooler days ahead will also help panel efficiency. With the planned repairs and careful monitoring, the team expects output to return to normal levels.

Readers who want to learn more about the organization behind the site can visit radimage.com. This report focuses only on solar energy and solar panels, and it keeps the facts straight while staying simple.

Jonas Muthoni

Jonas Muthoni

Jonas Muthoni is Editor-in-Chief of Microgrid Media, where he oversees reporting and analysis on microgrids, energy storage, distributed energy resources, data center power demand, grid modernization, resilience, renewable energy, and electricity policy and markets. His work focuses on the infrastructure, technologies, and regulatory developments reshaping the power system. As Editor-in-Chief, Jonas leads Microgrid Media’s editorial strategy and standards, including story selection, source verification, technical accuracy, and the development of original reporting and analysis. His coverage draws on regulatory filings, government records, utility and company disclosures, technical documentation, and independent industry sources to explain significant developments across the evolving energy system.