Hospital Microgrids Become an Integral Part of the Energy Value Chain
In this week’s Industry Perspectives, Schneider Electric’s Mark Feasel explains how hospital microgrids are becoming an integral part of the “energy value chain.”
Hospitals are often pillars of the communities they serve. And, while the welfare of patients, safety of staff and comfort of visitors remain top priorities, today, leadership extends beyond healthcare to environmental sustainability. The evolution in microgrid technology is making it possible to produce reliable, critical power, more efficiently and for less money.
A microgrid manages distributed energy assets on a campus to optimize usage; joining traditional generators, renewable energy sources, energy storage and load. These local interconnected energy systems have evolved from mainly being used for backup to becoming an interactive component of the energy value chain.
Traditionally, backup power systems were passive assets. They operated in standby mode until a power incident occurred, so the site would still experience an outage. Next generation microgrids operate in concert with the larger grid. They actively predict the possibility of interruption via weather and power quality analytics to proactively isolate the microgrid and provide seamless, uninterrupted power to the facility. Furthermore, they can generate incremental revenue streams by actively providing key services to the grid without undermining the core resiliency requirement.
Sustainability drivers
What’s driving the microgrid evolution? The proliferation of the Internet of Things (IoT) and ubiquity of communication technologies along with embedded technology, means the cost of connecting and automating distributed energy resources s has come down.
Plus, regulatory policy and subsidies are empowering those who want to become a more active part of the energy value chain and use sustainable energy. In turn, end users can leverage financial vehicles such as purchase power agreements to achieve their reliability, sustainability and cost benefits without any capital outlay.
Implementing a hospital microgrid starts with mapping out your energy objectives and asking questions like: “Is my energy reliable enough to support my healthcare operation? Are we properly leading in sustainability?” “How exposed are we to increases in the cost of traditional fuels?” “How can alternative energy sources improve our long-term bottom line?” “How will my facility perform during extreme weather events?”
[clickToTweet tweet=”Implementing a microgrid starts with mapping out your energy objectives. ” quote=”Implementing a microgrid starts with mapping out your energy objectives. “]
Once you have the answers, you’ll be closer to defining your hospital’s energy vision for the future through leveraging microgrids. Next steps, would be a high-level study to connect business objectives to technological solutions and then a detailed audit to define the specific approach and business model for hospital microgrids.
Microgrids are about co-optimizing your core mission and energy usage — keeping people comfortable and providing a safe environment; while lowering operational costs and increasing sustainability.
What opportunities do hospitals and other critical healthcare and life science facilities have to optimize energy spend and increase capabilities of their energy systems? Learn more about this topic in a recent study and webinar from Schneider Electric: “Intelligent Healthcare Energy Partnerships: Microgrid Energy Systems, Emerging Technologies & Business Models for the US Healthcare Industry.”
Mark Feasel is vice president of Schneider Electric’s Electric Utility segment and Smart Grid business in the U.S. Learn more about Schneider Electric’s microgrid solutions. See microgrids in action by in these case studies.
