As large DAC projects target 2026–2027 operations, developers face energy, permitting, and offtake hurdles. Practical playbook for smaller-scale or co-located installations.
May 16, 2026
The rapid growth of artificial intelligence, cloud computing, and digital infrastructure is creating a new challenge across the United States: powering the next generation of data centers.
Energy demand from large-scale computing facilities is rising faster than many utilities can expand capacity. Developers are now competing for reliable power access, affordable land, transmission infrastructure, water resources, and favorable permitting environments — all at the same time.
At the center of this shift is a growing realization that energy strategy is no longer just an operational issue for data centers. It has become a long-term business and infrastructure strategy.
The Inflation Reduction Act (IRA) introduced a new layer to this conversation by expanding incentives tied to clean energy, carbon management, waste heat recovery, industrial partnerships, and energy infrastructure development.
For developers, industrial operators, municipalities, and infrastructure investors, the biggest opportunities may come not from standalone projects, but from hybrid energy ecosystems where data centers integrate directly with industrial facilities, wastewater systems, and regional energy assets.
For years, data center site selection focused heavily on fiber access, tax incentives, and land availability.
Today, energy availability often determines whether a project moves forward at all.
Large AI-focused facilities can require enormous amounts of electricity — sometimes rivaling the energy consumption of small cities. Utilities across several regions are struggling to keep pace with interconnection requests and infrastructure upgrades.
As a result, developers are increasingly evaluating:
On-site generation
Waste heat reuse
Industrial co-location
Renewable energy procurement
Carbon capture partnerships
Thermal management strategies
Wastewater infrastructure access
Facilities that once operated independently are now being planned as part of broader industrial energy networks.
This shift is changing how developers think about both economics and long-term resilience.
The Inflation Reduction Act created major incentives for energy infrastructure, clean power deployment, industrial emissions reduction, and carbon management.
While the IRA was not written specifically for data centers, many provisions directly affect the economics of powering large digital infrastructure projects.
One of the most important incentives is the 45Q carbon capture tax credit.
The expanded 45Q program provides financial incentives for capturing and storing carbon emissions from industrial facilities and power generation systems. This has increased interest in pairing data center developments with industrial energy projects where captured carbon and thermal infrastructure may create shared operational benefits.
At the same time, clean energy investment tax credits, advanced manufacturing incentives, and waste energy recovery provisions are helping improve project feasibility for supporting infrastructure.
Developers are also paying closer attention to “2026 IRA” timing considerations as future guidance, compliance rules, and political uncertainty may affect how incentives evolve over time.
For organizations planning multi-year infrastructure projects, understanding incentive timing is becoming increasingly important.
One of the biggest emerging trends is the rise of industrial-host partnerships.
Instead of building isolated data centers in remote locations, developers are increasingly exploring partnerships with:
Manufacturing campuses
Wastewater treatment facilities
Industrial parks
Energy-intensive processing plants
District energy systems
Utility-scale thermal infrastructure operators
These partnerships can create several advantages.
Industrial facilities often already possess:
Large utility interconnections
Existing water infrastructure
Thermal energy systems
Waste heat streams
Available land
Permitting history
Skilled maintenance workforces
For data center operators, this can reduce development friction while creating opportunities for shared energy systems.
For industrial hosts, partnerships may unlock new revenue streams, infrastructure upgrades, and access to federal incentive programs.
In some cases, waste heat generated by data centers can be reused for industrial processes, district heating systems, or nearby facilities. In other situations, industrial waste heat can support thermal management strategies for computing infrastructure.
The result is a more integrated energy ecosystem rather than isolated infrastructure assets.
One area receiving growing attention is wastewater infrastructure.
Many large facilities overlook the fact that wastewater systems carry stable thermal energy year-round. Wastewater temperatures often remain between 50°F and 70°F even during colder seasons, making them valuable for heat exchange systems.
This creates potential opportunities for:
Cooling support
District energy systems
Heat recovery integration
Industrial thermal balancing
Combined infrastructure development
Some projects may qualify for waste heat recovery credits or related energy recovery incentives under existing federal frameworks.
For example, a data center located near a municipal wastewater facility may potentially integrate heat exchange systems that reduce cooling demand while supporting broader municipal energy goals.
Similarly, industrial facilities generating excess thermal energy may provide opportunities for adjacent data centers to improve efficiency and reduce operating costs.
These hybrid strategies are still evolving, but they are becoming increasingly attractive as energy constraints intensify.
Another major trend is the expansion of corporate energy offtake agreements.
Rather than relying entirely on traditional utility supply, many operators are securing long-term power agreements tied to:
Solar projects
Wind developments
Battery storage systems
Natural gas infrastructure
Carbon-managed generation
Industrial co-generation assets
These agreements help stabilize long-term energy pricing while improving project bankability for developers and investors.
For some operators, the goal is not necessarily achieving fully renewable operations immediately. Instead, the focus is often on securing predictable, scalable, and resilient energy access that aligns with future emissions targets and investor expectations.
The IRA improved the economics of many of these energy projects by expanding investment tax credits, domestic manufacturing incentives, and financing support tied to clean infrastructure deployment.
Modern data center site selection now involves far more variables than it did just a few years ago.
Operators increasingly evaluate:
Grid reliability
Power availability timelines
Water access
Wastewater infrastructure
Transmission congestion
Energy pricing
Climate risk
Regulatory stability
Labor availability
Incentive environments
In many regions, available power capacity has become so constrained that developers are moving farther from traditional hyperscale markets in search of faster deployment opportunities.
However, remote development can introduce new infrastructure costs and permitting complexity.
Industrial co-location strategies are gaining traction partly because they may help solve several of these problems simultaneously.
Sites with existing industrial infrastructure often already possess the utility-scale systems needed to support large energy-intensive projects.
One of the biggest misconceptions in the market is the assumption that energy infrastructure can scale as quickly as computing demand.
In reality, large projects often face:
Multi-year utility interconnection timelines
Transformer shortages
Permitting delays
Environmental reviews
Transmission bottlenecks
Labor shortages
Equipment procurement challenges
Even facilities with strong financing may face deployment delays tied to infrastructure constraints outside their control.
This is why early-stage planning has become critically important.
Organizations evaluating projects tied to “2026 IRA” opportunities should understand that engineering, permitting, financing, and procurement processes can easily consume several years before a facility becomes operational.
Developers who move earlier may have significant advantages in securing infrastructure access, incentive positioning, and strategic partnerships.
The next phase of data center development is unlikely to revolve around standalone facilities operating independently from surrounding infrastructure.
Instead, the market is moving toward integrated ecosystems where:
Data centers
Industrial operators
Utilities
Municipal infrastructure
Energy developers
Carbon management systems
Waste heat recovery networks
work together within shared energy and infrastructure frameworks.
These partnerships can create more resilient operations, improve energy efficiency, reduce emissions intensity, and unlock access to incentives that may not be available through isolated development models.
For operators willing to think beyond traditional infrastructure silos, the opportunity may extend far beyond energy savings alone.
As computing demand accelerates, access to reliable and scalable energy infrastructure may become one of the defining competitive advantages in the digital economy.
Organizations that understand how to combine clean energy incentives, industrial partnerships, wastewater infrastructure, waste heat recovery credits, and long-term energy sourcing strategies may be better positioned to navigate the next decade of infrastructure expansion.
Climate Capital Systems helps organizations evaluate infrastructure incentive pathways, industrial partnership opportunities, waste heat recovery strategies, and energy-related eligibility tied to evolving IRA programs.
Use our free infrastructure eligibility diagnostic to explore potential opportunities related to energy sourcing, industrial integration, waste heat recovery credits, and 2026 IRA incentive pathways tailored to your project goals.