Grid Reliability Crisis: What Every Business Must Know

Grid reliability has become an increasingly important consideration for commercial and industrial facilities as electricity demand changes and grid operators plan for new generation, transmission, and large loads. 

Recent PJM capacity-market results illustrate the challenge. For the 2027/2028 delivery year, PJM reported that the capacity procured through its Base Residual Auction and Fixed Resource Requirement commitments was below its stated Reliability Requirement. PJM’s subsequent analysis reported a 6,517 MW UCAP shortfall against that requirement. PJM also noted that the shortfall does not necessarily mean the system will be unable to serve load reliably, as other factors may affect the reliability outlook.   

For commercial and industrial organizations with significant electricity requirements, developments like these can make onsite generation, energy storage, microgrids, and other distributed power strategies worth evaluating alongside conventional utility service. 

HiVolt Energy develops, owns, and operates power infrastructure for commercial and industrial applications. Depending on project requirements and system configuration, its solutions can incorporate generation, controls, storage, and distribution infrastructure. 

Why Is the Power Grid Under More Pressure?

Electricity demand and resource adequacy are becoming increasingly important considerations for grid operators. PJM’s 2027/2028 capacity auction procured 145,777 MW of UCAP when combining auction and Fixed Resource Requirement commitments, which was 6,517 MW below the PJM RTO Reliability Requirement. PJM’s reserve-target analysis reported a 14.4% Installed Reserve Margin compared with a 20% target for that delivery year. 

PJM has also identified growing electricity demand as a factor behind the changing supply-and-demand balance. Its planning parameters for the 2027/2028 delivery year forecast peak load of 164,579 MW, an increase of 5,250 MW, or 3.3%, compared with the previous auction’s forecast. 

These figures do not mean widespread outages are inevitable. They do, however, demonstrate why resource adequacy, generation development, transmission infrastructure, and demand forecasting remain important components of grid planning. 

For commercial and industrial operators, the issue is practical: how much exposure does a facility have to utility interruptions, power-quality events, capacity constraints, changing electricity costs, or delays associated with securing additional power? 

What Does the Reliability Gap Mean for Facility Leaders?

A capacity shortfall in a market auction does not automatically translate into an outage at a particular facility. However, it can be an important planning consideration when organizations are evaluating future electricity requirements. 

Facility leaders can consider how grid conditions may affect their operations through: 

  • Reserve availability during periods of high system demand 
  • Electricity demand growth associated with new industrial and large-load development 
  • Transmission and interconnection constraints that may affect new projects 
  • Extreme-weather exposure and other conditions that can affect electricity infrastructure 
  • Recovery requirements for operations where an interruption could affect production or other critical processes 
 

Rather than assuming that utility service will either remain fully available or become unavailable, businesses can evaluate their specific exposure and determine whether additional generation, storage, redundancy, or other infrastructure is appropriate. 

HiVolt Energy focuses on power infrastructure for commercial and industrial applications. Depending on the project, its systems can be designed around the facility’s load profile, operating requirements, and available utility infrastructure. 

What Is Driving Demand Beyond Current Grid Capacity?

Electricity demand is changing as data centers, industrial facilities, electrification, and other large loads require additional power. 

PJM has specifically identified the continued addition of large data-center loads to its load forecast. Its 2027/2028 auction materials also describe a broader trend in which forecasted demand growth has outpaced the addition of new generation resources. 

This does not mean every region is experiencing the same conditions. Electricity markets, transmission systems, generation resources, and demand forecasts vary significantly by location. 

For businesses planning a new facility or expansion, however, the changing demand environment makes power availability an important consideration during project planning. 

Why Can Grid Capacity Planning Lag Behind Demand?

Large generation and transmission projects can require significant planning, permitting, financing, construction, and interconnection work. 

At the same time, large commercial developments and data centers can introduce substantial electricity requirements into a utility’s planning process. 

PJM’s recent capacity-market results illustrate this mismatch. PJM reported that forecasted peak demand continued to grow while new generation resources were not being added at the same pace. 

For facility leaders, this makes early power planning particularly important when evaluating new construction, expansions, or operations with substantial continuous loads.

What Does This Mean for Commercial and Industrial Operators?

Businesses evaluating future power requirements can consider more than the availability of a traditional utility connection. 

Depending on the project, options may include: 

  • Onsite generation 
  • Battery energy storage 
  • Backup or supplemental generation 
  • Demand-management strategies 
  • Grid-connected and island-capable configurations 
  • Combinations of generation, storage, controls, and distribution infrastructure
 

The appropriate approach depends on the facility’s load requirements, utility service, site conditions, applicable regulations, capital requirements, and operating objectives. 

HiVolt Energy develops, owns, and operates power infrastructure intended for commercial and industrial applications. Its role can include coordinating generation, controls, storage, and distribution as part of an integrated project. 

Why Do Renewables Add Complexity to Grid Reliability Planning?

Renewable and other inverter-based resources introduce different technical characteristics that grid planners and operators must account for. 

FERC describes inverter-based resources as including technologies such as solar photovoltaic, wind, fuel cells, and battery storage. Unlike traditional synchronous generators, these resources rely on power electronics and may respond differently to certain grid disturbances. 

This does not mean renewable generation is inherently unreliable. Instead, it means that grid operators and regulators need appropriate technical standards, modeling, controls, and operating requirements as the generation mix changes. 

FERC has taken several actions in response to these considerations. In July 2025, FERC approved reliability standards addressing frequency and voltage protection settings and ride-through requirements for inverter-based resources. The standards are intended to help covered resources remain connected during certain voltage and frequency disturbances. 

Does Renewable Variability Increase Risk for Industrial Facilities?

Renewable generation can introduce additional planning considerations because wind and solar output can vary with weather and operating conditions. 

However, it would be inaccurate to suggest that renewable variability automatically causes outages or creates the same level of risk for every facility. 

For an industrial or commercial operator, the more useful question is whether the facility’s overall power architecture provides the generation, storage, controls, and redundancy appropriate for its operational requirements. 

A properly engineered system may combine multiple technologies rather than relying on a single generation source. 

HiVolt Energy works with technology and equipment partners as part of its approach to developing power infrastructure. Specific system performance depends on the equipment selected, system design, operating conditions, maintenance, and other project-specific factors. 

How Do Regulatory and Infrastructure Constraints Affect Grid Reliability?

Grid reliability is influenced by multiple factors, including generation availability, transmission capacity, demand growth, weather, equipment performance, interconnection processes, and regulatory requirements. 

PJM’s recent capacity-market results provide one example of the challenges associated with changing demand and resource development. PJM reported that its 2027/2028 auction fell below its Reliability Requirement and subsequently conducted a review of the causes and potential corrective actions. 

Federal regulators are also continuing to update reliability requirements as the electricity system changes. 

For example, FERC approved additional standards addressing inverter-based resource performance in 2025 and approved additional IBR-related modeling and data standards in 2026. 

For commercial and industrial facilities, regulatory requirements can affect project timelines, interconnection, equipment selection, system design, and ongoing operations. 

What Can Facility Leaders Do to Reduce Power-Supply Exposure?

Businesses do not need to assume that the grid will fail to justify evaluating alternative power strategies. 

Instead, facility leaders can: 

  • Identify critical electrical loads 
  • Evaluate the operational consequences of an interruption 
  • Review existing utility capacity and service requirements 
  • Assess future electricity demand before expansion 
  • Examine onsite generation and storage options 
  • Understand permitting and interconnection requirements 
  • Evaluate redundancy and backup requirements 
  • Compare capital and operating costs 
  • Review maintenance and long-term operating responsibilities

 

For facilities with substantial electricity requirements, early evaluation can help identify potential infrastructure constraints before they become a project-planning issue. 

How Can Businesses Evaluate More Resilient Power Options?

A resilient power strategy begins with understanding the facility’s actual electrical requirements rather than selecting technology based solely on a general reliability objective. 

Depending on the application, a power infrastructure project may incorporate generation, energy storage, controls, distribution equipment, or multiple technologies working together. 

HiVolt Energy develops, owns, and operates power infrastructure for commercial and industrial customers. Its approach can incorporate these components into an integrated system, with the final configuration determined by the customer’s load requirements, site conditions, utility environment, regulatory requirements, and project objectives. 

An onsite or microgrid system should not automatically be viewed as a replacement for utility service. In many applications, the objective may instead be to supplement utility power, provide additional flexibility, support critical loads, or provide an alternative operating configuration when conditions require it. 

What Makes a Power Solution "Long-Term" Rather Than Temporary?

A long-term power strategy is generally designed around the facility’s expected operating requirements over an extended period rather than addressing only an immediate temporary need. 

The distinction can involve: 

  • Expected load profile 
  • Equipment life and maintenance requirements 
  • Fuel or energy-source availability 
  • System controls and monitoring 
  • Utility interconnection 
  • Regulatory requirements 
  • Expansion plans 
  • Capital and operating costs 
 

Temporary generation may address a short-term need, while a permanent power infrastructure project requires broader consideration of how the system will operate and be maintained over its expected service life. 

What Should Businesses Look for in a Power Infrastructure Provider?

Businesses evaluating a provider should look beyond general reliability claims and examine the provider’s actual capabilities and relevant experience. 

Important areas to evaluate include: 

  • Experience with comparable commercial or industrial loads 
  • Generation and storage technology expertise 
  • Engineering and system-integration capabilities 
  • Utility interconnection experience 
  • Permitting and regulatory knowledge 
  • Operations and maintenance capabilities 
  • Equipment and technology partners 
  • Project references and documented performance 
  • Long-term ownership or operating responsibilities 
 

Companies should request appropriate documentation and references before making decisions about a major power infrastructure investment. 

A Practical Approach to Grid Reliability Planning

As electricity demand changes and grid operators continue adapting to new generation and large-load requirements, commercial and industrial organizations have more reason to evaluate their power infrastructure strategically. 

PJM’s recent capacity-market results demonstrate that resource adequacy and demand growth are active planning issues, while FERC’s continuing development of reliability standards illustrates how technical requirements are evolving alongside the generation mix. 

For businesses, the takeaway is not that utility power is guaranteed to fail or that one technology can eliminate every reliability risk. 

Instead, facility leaders can assess their own exposure, identify critical loads, understand future electricity requirements, and determine whether onsite generation, storage, microgrids, or other infrastructure could complement their existing power strategy. 

HiVolt Energy provides commercial and industrial power infrastructure solutions that can incorporate generation, controls, storage, and distribution components. The appropriate system depends on the individual facility, its operating requirements, and the applicable technical and regulatory environment. 

Frequently Asked Questions

Why Is Grid Reliability an Important Business Planning Issue?

Electricity is fundamental to many commercial and industrial operations. Changes in demand, resource availability, transmission infrastructure, and regulatory requirements can therefore affect how businesses plan for current and future power requirements. 

PJM’s 2027/2028 capacity auction fell below its stated Reliability Requirement, although PJM has noted that this result does not by itself mean the system will be unable to reliably serve load. 

What Power Solutions Can Businesses Evaluate?

Depending on their requirements, businesses can evaluate onsite generation, battery energy storage, microgrids, backup generation, demand-management strategies, or combinations of these technologies. 

The appropriate solution depends on factors such as load requirements, utility service, site conditions, regulations, economics, and operational priorities. 

What Is Driving Electricity Demand?

Electricity demand is being affected by multiple factors, including data centers, industrial development, electrification, and other large loads. 

PJM has specifically identified the continued growth of large data-center loads in its demand forecasts and has reported that forecasted demand growth has outpaced new generation resources in recent capacity-market results.

Do Renewable Energy Sources Create Grid Reliability Problems?

Renewable and other inverter-based resources introduce technical characteristics that grid operators need to account for. FERC has established and continues to develop reliability standards addressing areas such as inverter-based resource performance, modeling, data sharing, and ride-through capabilities. 

This does not mean renewable energy is inherently unreliable. It means system planning and technical requirements need to account for the characteristics of different generation technologies. 

Can a Microgrid Operate During a Utility Outage?

Some microgrid configurations can operate in an islanded mode and continue supplying designated loads when utility service is unavailable. Whether this is possible depends on the system’s design, generation capacity, controls, protection equipment, interconnection configuration, and the loads being served. 

Businesses should therefore evaluate the specific capabilities of a proposed system rather than assume that every microgrid provides the same level of backup or islanding capability. 

What Should Businesses Consider Before Investing in Power Infrastructure?

Businesses should evaluate: 

  • Current and projected electrical loads 
  • Critical and non-critical operations 
  • Utility capacity and interconnection requirements 
  • Generation and storage technologies 
  • System redundancy 
  • Permitting and regulatory requirements 
  • Capital and operating costs 
  • Fuel or energy availability 
  • Maintenance requirements 
  • Provider experience with comparable projects 

 

A detailed engineering and financial assessment can help determine whether additional power infrastructure is appropriate for a particular facility. 

What Does HiVolt Energy Provide?

HiVolt Energy develops, owns, and operates power infrastructure for commercial and industrial applications. Depending on project requirements, its solutions can incorporate generation, controls, storage, and distribution infrastructure. 

The specific configuration, operating capability, and expected performance of each system depend on project design, equipment, site conditions, utility requirements, and applicable regulations. 

About HiVolt Energy

Founded in 2019, HiVolt Energy was created for customers who need more than a temporary power solution but don’t have the luxury of time to wait for the grid to arrive. HiVolt offers prime-power solutions focused on industrial and commercial businesses with long-term base-load power needs, delivering systems that are highly reliable, regulatory compliant, environmentally conscious, efficient, and tailored to meet end-user load demands. Designed and operated by an experienced, solution-focused team, HiVolt works directly with equipment manufacturers and technology partners to build systems capable of continuous, prime-power operations. For more information, visit hivoltenergy.com.