For Rural Healthcare, Energy Resilience is Care Continuity

Why Energy Strategy Belongs in the Rural Healthcare Resilience Plan

In rural healthcare, an outage is not just an inconvenience. It can become a clinical event. Reliable power supports emergency departments, procedure rooms, medication and vaccine refrigeration, HVAC, IT systems, communications, water, and infection control. When those systems are interrupted, the ability to deliver care can be interrupted as well. For critical access hospitals, rural clinics, skilled nursing facilities, and community care hubs, energy resilience is directly tied to patient safety, operational continuity, and community access to care.

Yet rural healthcare leaders often face a difficult reality: the infrastructure needs are real, but the capital and staffing capacity to address them may be limited. Aging buildings, deferred maintenance, generator testing requirements, utility cost volatility, and lean facilities teams all compete with broader financial pressures. Even when modernization is clearly needed, traditional capital-funded projects may be hard to prioritize.

Shift the Conversation from “What Equipment Should We Buy?” to “What Outcomes Do We Need to Protect Care?”

Energy as a Service (EaaS) offers another option. Through an EaaS model, rural healthcare organizations can pursue energy upgrades through a performance-oriented service agreement rather than a large upfront purchase. Solutions may include efficiency improvements, lighting, controls, battery storage, onsite generation, backup power modernization, monitoring, and ongoing operations and maintenance.

Done well, EaaS helps shift the conversation from “What equipment should we buy?” to “What outcomes do we need to protect care?” For rural healthcare, those outcomes include uptime, cost predictability, reduced maintenance burden, and confidence that critical services can continue when the grid is under stress.

Rural realities matter here. The U.S. Government Accountability Office (GAO) has documented that rural hospital closures reduce access to services and can force patients to travel farther for care, making continuity and resilience not just operational issues but access issues. At the same time, rural hospitals face intensified financial pressure; recent analysis from The Chartis Center for Rural Health describes a growing share operating in the red. (U.S. GAO, 2020; Chartis Center for Rural Health, 2026) Even if your facility is stable today, your community’s resilience depends on your ability to stay open tomorrow.

Rural Healthcare Is Uniquely Impacted

The rural grid and the rural facility are both “long-tail” (rare, high-impact events) problems. Rural outages are not only about frequency; they’re about restoration time and resource constraints. The U.S. Energy Information Administration (EIA) tracks reliability using the System Average Interruption Duration Index (SAIDI) and the System Average Interruption Index (SAIFI), and separates “major-event days” from normal operations because a facility’s greatest outage risk may come from a few severe events, exactly when rural hospitals have the least margin for failure. (EIA, n.d.) According to EIA’s Electric Power Annual 2024, U.S. electricity customers experienced an average of 11 hours of power interruptions in 2024, with major events accounting for 80% of the hours without electricity. While this is a systemwide customer average rather than hospital-specific data, it underscores why rural healthcare facilities should plan for long-duration, high-impact outage scenarios rather than relying on typical outage averages. (EIA, 2025)

For rural hospitals and clinics, the operational consequences are amplified by:

• Fewer backup redundancies
• Older electrical infrastructure and deferred maintenance
• Limited onsite engineering coverage
• Supply chain fragility during regional disasters (fuel delivery, parts, contractor availability)

The U.S. Department of Health and Human Services (HHS), Assistant Secretary for Preparedness and Response (ASPR), Technical Resources, Assistance Center, and Information Exchange (TRACIE) and Federal Emergency Management Agency (FEMA) both provide healthcare-specific guidance for power outages, highlighting the need to identify critical systems, plan for fuel and staffing, and coordinate with community partners. (ASPR, n.d.; FEMA, 2020)

Why Energy Is  A Clinical And Financial Issue In Rural Care

Once rural healthcare leaders identify outage risk, the next question is how to reduce the size and cost of the resilience challenge. That starts with understanding the facility’s energy use.

Hospitals are energy-intensive buildings. ENERGY STAR benchmarking shows that hospital energy use intensity varies widely from less than 100 to more than 1,400 kBtu per square foot across hospitals, indicating that many facilities have both high exposure and real efficiency headroom. (EPA, 2015) DOE’s Better Buildings program notes that healthcare accounts for a disproportionate share of commercial energy use, underscoring why energy strategy is now part of core operations. (DOE, n.d.-b)

EaaS is one of the most practical tools for responding, especially for rural organizations with limited capital and bandwidth. Done well, EaaS can convert a complicated bundle of upgrades (efficiency _ onsite power + controls + maintenance) into a performance-backed service with predictable payments.

Clinical risk often begins with non-obvious loads, such as HVAC, IT, and refrigeration. Energy planning isn’t just “keeping the lights on”; it’s protecting care pathways. If energy fails, care pathways fail, so energy strategy belongs on the same dashboard as quality, finance, and emergency preparedness. (FEMA, 2020)

Emergency preparedness isn’t optional. CMMS requires emergency planning, policies, communication, and training. If generators are part of the plan, backup power must support operational needs, including HVAC where required. (CMS, n.d.; ASPR, 2019)

Outage Duration: Conditions vs Major Events

Exhibit A: Major events accounted for most average outage duration in 2024, underscoring the need to plan for long-duration scenarios.

Source: U.S. Energy Information Administration, Electric Power Annual 2024 / Today in Energy, Dec. 1, 2025. Represents U.S. utility-customer average; not healthcare-specific.

What is Energy as a Service

EaaS is a contract model in which an energy partner or Energy Services Organization (ESCO) designs, finances through a financial partner, installs, operates, and maintains energy improvements. The healthcare organization pays for the service over time, often based on agreed-upon outcomes such as savings, availability, resilience, or performance.

The American Council for an Energy-Efficient Economy (ACEEE) describes service-based models in which customers repay through periodic fees tied directly or indirectly to realized savings, often with the provider taking on performance risk. (ACEEE, 2019)

Many EaaS deals resemble a family of “as-a-service” structures:

• Energy Service Agreements (ESAs) for efficiency (provider may own equipment during term) (DOE, n.d.-a)
• Power Purchase Agreements (PPAs) for on-site generation (pay per kWh)
• Availability/resilience contracts (pay to keep backup power ready and reliable), so your critical services can keep running during an outage. You are not paying for the electricity you use. You are paying for readiness and performance.

In practice, rural healthcare often benefits from bundling: efficiency, controls, backup modernization, onsite generation, storage, microgrid controls, and operations and maintenance (O&M).

Five Outcomes to Demand from EaaS

EaaS should be evaluated by the outcomes it delivers, not by the equipment included in the package. For rural healthcare, those outcomes are practical: keep care running, preserve capital, reduce maintenance burden, improve cost predictability, and support community resilience. Solar, storage, backup generation, controls, indoor air quality improvements, and O&M services are not standalone goals; they are tools that should be combined only where they support measurable care-continuity and financial objectives.

This outcomes-based view is especially important for rural hospitals and clinics because capital, staffing, and outage-response resources are often limited. A strong EaaS program should define what critical loads must remain available, what performance commitments are required, who is responsible for maintenance and monitoring, and how savings or uptime will be measured. When structured well, EaaS can help rural providers modernize infrastructure while keeping the focus where it belongs: reliable care, predictable cost, and community access.

More than 40% of rural hospitals operate in the red; 417 are vulnerable to closure. (Chartis Center for Rural Health, 2026)

Exhibit B: EaaS is best understood as contracting for energy outcomes, such as uptime, cost savings, and operational performance, rather than purchasing individual assets. Instead of buying equipment, customers procure a performance-guarantee portfolio that may include generation, storage, controls, and ongoing support.

What an EaaS Project Includes

The most resilient load is the one you do not need to back up.

Shrink, Shape, Supply, and Secure

EaaS isn’t a single technology; it’s an engineered service built from four buckets.

Hospitals should approach energy resilience by starting with clinical need, not equipment selection. The goal is not to back up every square foot of a facility equally; it is to identify the services that must continue during an outage and the electrical, mechanical, IT, and environmental systems that support them. That distinction is especially important for rural healthcare organizations, where capital is limited, facilities teams are lean, and prolonged outages can quickly become care-continuity events.

The Shrink, Shape, Supply, and Secure model provides a practical sequence. First, reduce avoidable energy use. Then prioritize and manage loads based on clinical importance. Next, size generation, storage, and backup systems around the remaining needs. Finally, secure performance through controls, monitoring, testing, cybersecurity, and O&M. Following this order helps hospitals avoid overbuilding, reduce cost, and focus resilience investments on the loads that matter most to patient care.

Exhibit C: Efficiency and controls reduce the size (and cost)) of the resilience problem. The cheapest resilience is the resilience you don’t need; reduce and prioritize loads before adding supply.

Three Pathways to Modernize Rural Healthcare Energy Systems

Table 1: EaaS shifts more performance and maintenance responsibility to the provider but requires stronger contract discipline. EaaS is not “better” than EPC or capex by default, but it can be uniquely well-suited to rural constraints when structured with clear performance and exit options.

The right choice depends on capital constraints, risk tolerance, and internal O&M capacity.

What to Demand Contractually

Archetypes and the Critical-Load “Minimum Viable Microgrid”

Start with what must stay on, then build outward

Table 2: The smallest viable resilience package is often storage + controls + targeted circuits, not a full campus rebuild. The best rural EaaS scopes are “clinical load first” and avoid overbuilding. 

Use Cases: Right-Sizing EaaS for Different Rural Healthcare Settings

The table above shows the planning logic. The examples below translate that logic into common rural healthcare settings

Economics and Contracting

Measurement and Verification (M&V)

If payments depend on savings, define:

• Baseline period (e.g., 24-36 months)
• Adjust factors (eather, occupancy, service line changes)
• What counts as savings (kWh, kW demand, fuel, maintenance, avoided rentals)
• Independent verification and audit rights

EPA’s ESPC overview underscores the centrality of guaranteed savings and performance accountability. (EPA, n.d.-b)

Service Level Agreements (SLAs) / uptime guarantee (resilience is a service, so specify it)

For rural healthcare, a serious EaaS contract should define:

• Critical circuits and kW served
• Minimum runtime under defined scenarios
• Response time for faults
• Maintenance/testing schedule
• Penalties or remedies for non-performance

Use FEMA and ASPR TRACIE outage-planning guidance as your “requirements backbone” to translate planning needs into contract specifications. (ASPR, n.d.; FEMA, 2020)

Pricing structures

• Fixed service fee (bundled, predictable)
• Shared savings (provider paid from verified savings)
• Availability payment (pay for guaranteed capacity and uptime)
• Hybrid (often best: efficiency supports resilience economics)

In performance-based models, pricing is structured to align payments with the value delivered. The U.S. EPA notes that energy savings performance contracting is designed to deliver savings “at least equal to the amount of the payments needed to finance the improvement(s),” and may use a “shared savings” approach. Likewise, FERC explains that capacity markets pay not for energy produced, but for “the ability to produce power when needed,” a useful parallel to EaaS contracts that pay for guaranteed uptime and standby capability. (EPA, n.d.-b; FERC, 2025)

Annual Cost & Outage Risk Exposure

Exhibit D: EaaS can reduce utility costs and reactive maintenance while adding a service fee that buys defined resilience outcomes (coverage, uptime, response time). The economic case is often risk-adjusted: fewer emergency rentals, fewer spoiled medications, fewer canceled procedures, and less risky labor.

Illustrative scenario only; actual economics vary by facility, utility tariff, scope, incentives, and contract structure.

Evaluate EaaS in 8 Steps

Move from clinical priorities to technical scope, then to economics, procurement, and governance.

Exhibit E: A repeatable process that works for a CAH, clinic network, or LTC facility. The first decision is not vendor selection; it’s defining critical loads and acceptable downtime.

This order helps avoid overbuilding and weak contracts.

Conclusion and Action Plan

Next 30 Days

1. Build a one-page critical load list and downtime tolerance map.
2. Convene a 60-minute cross-functional meeting (CFO, Facilities, IT, Clinical, Compliance).
3. Pull 24 months of utility bills and any interval data.
4. Inventory generators, ATS, switchgear age/condition, and last test outcomes.
5. Choose your procurement lane (capex, EPC/ESPC, EaaS) and draft an evaluation rubric.
6. Shortlist partners and request concept proposals that include resilience SLAs and M&V plans.
7. Identify complementary funding sources and assign someone to verify current eligibility.

Final key takeaway: Rural healthcare organizations do not need to solve every infrastructure challenge at once. But they do need to know which clinical loads must remain available, for how long, and under what outage conditions. Energy resilience is not a facilities side project; it is part of the care-continuity plan. EaaS can be one credible pathway when the contract is built around measurable outcomes, operational accountability, and governance.