3 ENERGY USE IN THE HEALTHCARE INDUSTRY



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3 ENERGY USE IN THE HEALTHCARE INDUSTRY Energy is a critical element essential to the delivery of quality healthcare services. According to the EPA, healthcare organizations spend over $6 billion on energy each year to meet patient needs. The upsurge in the use of technology in healthcare has increased energy demand within hospitals. At the same time, energy costs have been on the rise, due to increased demand, aging energy infrastructure, and deregulation of energy markets. Typical Energy Use for Hospitals In a typical hospital, water heating, space heating, and lighting account for 61 79 percent of total energy use, depending on the climate relative to the number of cooling- and heatingdegree days. Figure 3-1 shows the estimated annual energy consumption of all U.S. healthcare buildings, including inpatient and outpatient facilities and nursing homes. Figure 3-1: Estimated Annual Energy Use in Healthcare Buildings Other 27% Water Heating 28% Office Equipment 6% Lighting 16% Space Heating 23% Source: Energy Information Administration, U.S. Department of Energy, July 1998. H EALTHCARE E NERGY P ROJECT 3-1

Table 3-1 lists average energy usage data for healthcare buildings as established by the Commercial Buildings Energy Consumption Survey released in 1998 by the U.S. Department of Energy, Energy Information Administration. Table 3-1: Average Annual Energy Usage of Healthcare Buildings End Energy Use Consumption (Total Btu) Space Heating 153.98 Space Cooling 29.98 Ventilation 18.18 Water Heating 189.64 Lighting 107.42 Cooking 34.56 Office Equipment 39.06 Refrigeration 13.09 Miscellaneous 86.98 Total 672.89 Source: Energy Information Administration, U.S. Department of Energy, July 1998. Strategies for Energy Cost Controls Energy is a significant factor in the growing percentage of healthcare operating costs, which are increasing at a rate that cannot be offset by increases in reimbursement rates. In order to survive, healthcare facilities must aggressively control costs. Strategies for energy cost controls have led to a trend of dealing with energy supply costs, reliability, and quality as managed risks. Approaches to handling ever-increasing energy requirements can include: Demand-side management A management approach that involves ways to reduce the need for energy. Supply-side management A management approach that seeks the most cost-effective ways to procure and distribute the needed energy supply. Other considerations for energy use in the healthcare industry include: Power Sources Deregulation Outsourcing Energy Management H EALTHCARE E NERGY P ROJECT 3-2

Demand-Side Management The key in demand-side management is conservation through system-wide energy conservation programs. These types of programs identify cost-effective procedures that reduce energy consumption and develop systematic programs of energy system efficiency improvements. Healthcare facilities examine and analyze energy use to determine where it could be possible to cut back. When planning new construction, the most energy-efficient systems are considered. Older buildings are targeted for energy use reductions including: Modification of light fixtures Alteration of heating and cooling systems from constant volume to variable drive applications Addition or upgrade of process instrumentation Changeover of equipment Controls improvements Supply-Side Management Supply-side management focuses on cost-effectiveness in the procurement and distribution of energy. Supply-side management typically includes: Load profiling or understanding existing loads Load aggregation, which combines the loads of multiple buildings, campuses, or companies On-site generation alternatives such as cogeneration New procurement strategies such as purchasing energy from suppliers other than the local utility company Electrical system upgrades to remove old, inefficient equipment Peak shaving opportunities where alternate energy sources are used to reduce the maximum amount of energy used and the demand charges on invoices Power Sources Healthcare facilities must be designed to ensure that secure sources of power are available at all times. Regulations mandate emergency power supplies to ensure that critical functions will remain operational during power interruptions. Hospitals typically employ several approaches to meeting this requirement including: Diesel-fueled emergency generators Electricity distribution systems Diversified power sources H EALTHCARE E NERGY P ROJECT 3-3

Diesel-Fueled Emergency Generators Diesel-fueled emergency generators are frequently installed on site to maintain the power supply during an outage. Drawbacks include air quality issues related to burning diesel fuel, and the time constraints defined by the amount of fuel available to keep these generators operating. Distribution Systems Distribution systems employ two separate utility feeds into the facility so that one automatically takes over the power feed if the other one goes out of service. Local utility companies determine the availability of a second service. Each utility feed should be isolated to a separate sub-station for improved reliability. Diversified Power Sources An example of diversified power sources is using natural gas to generate electricity on site. Cogeneration, or using the waste energy from the generation process to supplement or take over load requirements also falls under this category. Diversified power sources often make good sense economically since the facility does not have to pay for the energy that would have been required to address load requirements, which significantly reduces operating costs. On-site generation and cogeneration enable hospital facilities to maintain greater control of energy supplies and can provide revenue opportunities if excess power is generated that can be sold back to the grid. Deregulation Deregulation has split energy companies into generation, transmission and distribution, and services. Transmission and distribution is still regulated, while generation and services are deregulated in many states. Service providers might be independents or spin-offs of an existing energy utility. Energy Service Companies (ESCOs) from other territories can now enter an existing utility s area and offer services. The deregulated electricity market enables healthcare facilities to select services from a wide range of energy suppliers. Facilities can hold competitive bidding for energy supply contracts, which can cut costs by as much as five percent. Another alternative is to establish long-term supply contracts with energy service providers (ESPs), which function as energy brokers by operating power plants on their own and/or accessing groups of other generators. As brokers for a large number of customers, ESPs have leverage to negotiate for better prices. ESP power supply contracts secure certain amounts of energy at fixed rates over specific periods of time, which guarantees savings. H EALTHCARE E NERGY P ROJECT 3-4

Outsourcing Energy Management An increasing number of hospitals today outsource energy management and procurement. Outsourcing means that energy issues are handled by organizations that specialize in energy management. While outsourcing operations, a facility can sell any normal power generating capability, boiler capacity, chilled water capacity, emergency power generating capacity, and other generated power sources to a facilities management company that takes over operations and sells the power back to the facility. Another outsourcing alternative is to contract with a firm that funds conservation measures and new generating capacity needed for expansion. The hospital can have a power plant designed, built, and operated by a third-party company and then can directly purchase the power generated. H EALTHCARE E NERGY P ROJECT 3-5