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The strongest site is the one that can receive the required power, be built and expanded on usable land, connect to suitable high-capacity networks, and obtain approvals within the project schedule. Compare those conditions together for the intended workload rather than declaring a universal winner among power, land, or connectivity.
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Start with feasibility gates, not a land-price ranking
Screen each candidate through linked gates. A site that fails a hard gate should normally be removed before detailed financial scoring.
- Power: Can the utility deliver the required load, with the necessary substations, transformers, transmission or distribution work, and a credible in-service date?
- Land: How much acreage remains buildable after terrain, setbacks, flood or environmental constraints, access roads, easements, rights-of-way, and utility areas are deducted?
- Connectivity: Can suitable high-capacity telecommunications reach the parcel with the route and service diversity the workload requires?
- Delivery: Can permits, site preparation, cooling and water systems, utility works, and network construction be completed in the same sequence as the buildings?
- Resilience and community fit: Do climate, water, storm, environmental, land-use, and stakeholder conditions support the operating and expansion plan?
ASHRAE’s AI Data Center Energy Performance Framework treats site planning as a determinant of performance, cost, scalability, and deployment outcomes. Its recommendations are professional guidance, not a binding standard for every project.
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Define the workload before asking for a site
Utilities, network providers, designers, and permitting authorities cannot evaluate an undefined facility. Write a site brief that states the assumptions behind every request.
Power and density assumptions
- Initial IT load and the target load at full build-out.
- Rack-density range and the proportion of high-density or accelerator equipment.
- Required redundancy and any separate utility feeds or backup generation strategy.
- Phased energization dates, commissioning sequence, and expansion milestones.
Cooling and resource assumptions
- Air, liquid, or hybrid cooling approach.
- Expected heat rejection, water source and quality requirements, and drought or discharge constraints.
- Temperature, humidity, flood, wildfire, storm, seismic, and other environmental design conditions.
Network assumptions
- Traffic volumes and the locations of users, cloud regions, storage, and other facilities.
- Latency, jitter, availability, encryption, and service-level requirements.
- Whether physically diverse routes, carriers, entry points, or dark-fiber options are necessary.
These inputs turn “power nearby” or “fiber in the county” into questions that a utility and network engineer can answer for the actual parcel.
Power availability: verify deliverable capacity and timing
ASHRAE says power availability and grid constraints shape where data centers can be built and calls for early coordination with utilities. Begin utility diligence before acquiring land or relying on a purchase option.
What to request from the utility
- Provide the parcel boundary, requested load profile, voltage, phasing, redundancy expectations, and energization dates.
- Ask for the utility’s assessment of firm or otherwise contractually usable capacity for that specific load, not a regional planning figure.
- Request the required interconnection, transmission, distribution, substation, transformer, switchyard, and protection upgrades.
- Obtain equipment lead times, study milestones, construction dependencies, outage requirements, and a credible in-service schedule.
- Ask which assumptions are preliminary, which are committed, and what conditions could change the result.
- Document who pays for each upgrade, the utility’s responsibilities, customer-owned facilities, deposits, and the conditions for maintaining the requested capacity.
A visible line or nearby substation is only a geographic observation. It does not establish spare capacity, available fault level, deliverable voltage, interconnection rights, or a date when the facility can be energized.
Evaluate schedule risk as carefully as megawatts
Power can be technically possible yet unusable for the project if transformers, switchgear, protection equipment, or network upgrades arrive after the building. Put every utility milestone on the master schedule and identify the critical path. Treat an uncommitted date as a risk range rather than a guaranteed energization date.
Use evidence at the right level
Ask for parcel-specific studies, written utility correspondence, interconnection agreements or offers where available, and assumptions behind capacity statements. A public hosting-capacity map or a planning document can support screening, but it cannot replace a study for the proposed load and connection point.
Land cost is meaningful only after you map usable acreage
Compare the land that can actually host buildings and infrastructure, not gross acreage or purchase price alone. EPA site-feasibility guidance identifies terrain, obstacles between a site and the interconnection, and nearby infrastructure as factors affecting cost and timing. Its suggestion that a renewable-energy site be ideally less than one mile from the nearest electricity line applies to that renewable-project context; it is not a data-center threshold or proof of capacity.
Deduct constraints from the parcel
- Steep slopes, unstable soils, rock, wetlands, floodplains, drainage corridors, and contaminated areas.
- Setbacks, height limits, environmental buffers, archaeological or habitat restrictions, and stormwater requirements.
- Public roads, turning radii, bridge limits, construction access, and permanent logistics routes.
- Transmission corridors, pipeline or railroad easements, aviation restrictions, and other rights-of-way.
- Space for substations, generators, fuel systems, cooling plants, water treatment, fire access, security setbacks, and maintenance yards.
- Land reserved for future buildings, electrical yards, water systems, and safe separation between phases.
Create a survey-based developable-area plan and show the first phase and ultimate build-out on the same drawing. A parcel can be cheap per acre but expensive per usable megawatt once preparation and infrastructure areas are included.
Check expansion and control of adjacent land
Ask whether additional phases can be built on the same parcel, through options, or on contiguous land. Confirm that zoning, road capacity, utility corridors, and community conditions will still permit expansion. Losing the only practical expansion area can force a second site, a new interconnection, or an inefficient redesign.
Connectivity is a physical site requirement
The January 14, 2025 U.S. executive order on advancing artificial-intelligence leadership lists “ready access to high-capacity telecommunications networks” among federal AI-infrastructure siting criteria. That phrase is a policy criterion, not a universal fiber count or latency specification. Define the network design for the workload and have specialists verify that it can be delivered.
Questions for carriers and route engineers
- Which carrier facilities and backbone routes can reach the parcel?
- Where are the nearest diverse entry points, and do routes share a conduit, bridge, pole line, or other common failure point?
- Can the site receive the required wavelengths, lit services, dark fiber, or other service type on the commissioning date?
- What construction, easements, permitting, and make-ready work are required from the carrier boundary to the data hall?
- Are lead times, recurring charges, construction costs, and service-level terms documented?
For a latency-sensitive workload, model the complete path to users and dependencies rather than measuring distance to the nearest fiber marker. For a high-throughput training or storage workload, verify sustained capacity and route diversity. The appropriate design is workload-specific.
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Compare delivered cost and schedule, not sticker prices
General siting guidance does not provide a universal comparative cost model or parcel-specific quotes. Build one for each candidate using the same scope and assumptions.
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| Cost or schedule element | What to document | Typical decision question |
|---|---|---|
| Land acquisition and control | Purchase or lease price, option period, taxes, surveys, title, and adjacent expansion rights | What is the cost of land that remains buildable and expandable? |
| Utility connection | Studies, deposits, customer-owned equipment, line work, substation or transformer work, and outage requirements | What must be paid before firm capacity and energization are secured? |
| Site preparation | Grading, soil improvement, drainage, roads, bridges, environmental remediation, and construction access | How much time and contingency are needed before foundations can start? |
| Cooling and water | Plant, treatment, supply, discharge, storage, and drought or seasonal restrictions | Can the cooling design operate reliably through expected conditions? |
| Telecommunications | Extension, conduit, easements, diverse routes, construction, recurring service, and lead time | Can the required network be live with adequate physical diversity at launch? |
| Approvals and mitigation | Zoning, environmental reviews, permits, hearings, mitigation, and legal work | Which approvals control the critical path, and what could trigger redesign? |
| Expansion | Future land, utility capacity, roads, cooling and water headroom, and network provisions | Can later phases use the original infrastructure or require a new project? |
Present costs as delivered totals by phase, with recurring and one-time amounts separated. Show schedule ranges, dependencies, and contingencies beside the costs; a cheaper parcel with an uncertain connection date may be economically inferior to a costlier site that can be energized on the required date.
Include cooling, water, climate, and resilience in the first screen
ASHRAE recommends addressing sustainability, water, cooling, workload density, and expansion during planning. EPA’s feasibility guidance likewise treats physical site conditions as cost and timing drivers.
- Water: Confirm source, seasonal reliability, treatment, discharge rights, drought restrictions, and whether a non-potable alternative is permitted.
- Climate: Test temperature and humidity extremes against the selected cooling equipment and operating envelope.
- Flood and stormwater: Establish finished-floor elevations, drainage routes, detention requirements, and access during severe weather.
- Fire, wildfire, seismic, and wind: Account for code requirements, insurance conditions, fuel storage, and emergency response.
- Resilience: Coordinate utility redundancy, generator logistics, fuel replenishment, network diversity, and physical security.
Do not defer these questions until after land selection. A site that cannot support the cooling or resilience concept may require a different building design, water system, or operating strategy.
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Permitting, rights-of-way, and community constraints can control the schedule
The January 2025 U.S. federal AI-infrastructure criteria include transmission access, telecommunications access, land-use restrictions, rights-of-way, and road suitability. They describe a federal policy framework; they do not guarantee that a private parcel has power, connectivity, or approval.
A July 23, 2025 U.S. executive order on accelerating federal permitting defines covered data-center projects and associated infrastructure, including transmission lines, substations, switchyards, transformers, switchgear, and backup supply. It signals policy attention to supporting infrastructure but does not establish a general permitting timeline or assure access to power.
In the UK, the 2025 EN-5 National Policy Statement explains that electricity-network siting depends on infrastructure locations and system capacity or resilience needs. It also requires route choices to account for engineering, environmental, and community constraints. Use it as UK network-planning context, not as a universal data-center rule.
Build an approvals register
- Identify the planning authority, zoning category, conditional-use requirements, height and noise limits, and public-hearing steps.
- List environmental, water, road, building, electrical, fuel, emissions, and telecommunications permits.
- Map every off-site right-of-way for utility and fiber construction and identify the landowner or authority controlling it.
- Record consultation, mitigation, community-benefit, traffic, and construction-hour requirements.
- Assign an owner and decision date to each approval, with a fallback if it is denied or delayed.
A practical candidate-screening method
Use a two-stage process so a cheap but impossible site does not win a spreadsheet contest.
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Stage 1: pass/fail feasibility
- Reject any site without a credible path to the required initial load and expansion load.
- Reject any site whose buildable area cannot fit the first phase, support systems, setbacks, and planned expansion.
- Reject any site where required network services or route diversity cannot be delivered by launch.
- Reject any site with an unresolvable cooling, water, flood, environmental, zoning, or access constraint.
- Reject any site whose critical approvals or utility works cannot align with the commissioning date.
Stage 2: compare the survivors
For each surviving site, use the same workload, phasing, contingency rules, and accounting treatment. Score or rank power certainty, schedule confidence, usable acreage, delivered infrastructure cost, connectivity fit, resilience, and community or permitting risk. Keep the underlying evidence beside each score so an optimistic assumption cannot look like a committed fact.
Due-diligence sequence from shortlist to commitment
- Write the site brief. State load, density, cooling, water, redundancy, network, launch, and expansion requirements.
- Open utility discussions. Submit the parcel and load profile; request capacity, upgrades, equipment, milestones, assumptions, and commercial responsibilities.
- Map the physical site. Survey terrain, soils, drainage, access, rights-of-way, environmental constraints, buildable area, and expansion land.
- Verify telecommunications. Obtain route maps and construction requirements from network specialists; define diversity and service requirements from the workload.
- Develop the infrastructure concept. Place buildings, substations, cooling and water systems, generators, roads, security, and future phases on the usable-area plan.
- Open the approvals register. Confirm zoning, environmental, water, road, electrical, fuel, and telecommunications requirements with the relevant authorities.
- Price and schedule the delivered project. Include utility works, equipment, land preparation, cooling, water, network extension, permits, mitigation, and contingencies.
- Validate critical assumptions. Replace maps and verbal indications with studies, written utility responses, route commitments, surveys, and permit determinations.
- Set decision gates. Tie land acquisition or final investment approval to defined evidence, such as an acceptable utility path, approved site plan, and executable network design.
Common failure modes and how to correct them
Choosing the lowest price per acre
Why it fails: Gross acreage hides unusable terrain, easements, access work, and space needed for electrical and cooling infrastructure.
Correction: Compare cost per buildable phase and include preparation, roads, utility areas, and expansion land.
Assuming a nearby line means power is available
Why it fails: The line may lack spare capacity or require upgrades, studies, equipment, and rights-of-way.
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Counting a single fiber route as connectivity
Why it fails: A route can share a conduit or crossing with another route and fail at the same physical point.
Correction: Verify service type, capacity, entry points, physical diversity, construction, and launch date.
Leaving water and cooling until design
Why it fails: Water rights, discharge, drought, climate, and plant space can force a different site or cooling architecture.
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Treating policy language as a project guarantee
Why it fails: Federal or UK policy criteria describe planning priorities, not a private parcel’s capacity, approval, or delivery date.
Correction: Use policy documents to identify issues, then obtain local studies, permits, and contractual commitments.
How the answer changes by workload and market
High-density AI or accelerated computing
Prioritize deliverable electrical capacity, cooling and water feasibility, equipment lead times, and expansion headroom. Network design must support the actual data movement and service topology; a generic “fiber nearby” claim is insufficient.
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Connectivity and physical route design may be the dominant gate. Evaluate end-to-end paths, diverse entrances, and the location of users and dependencies alongside power and land.
Large phased campus
Power expansion rights, transmission and substation space, contiguous land, roads, water, and permitting capacity become as important as the first building. A site that works for phase one but cannot support later phases is not a complete campus solution.
Constrained or remote markets
Land may be inexpensive while utility upgrades, fiber extension, access roads, and construction logistics dominate delivered cost and schedule. Require written evidence for each off-site dependency before assigning the parcel a low-risk rating.
Final decision rule
Choose the site with the most credible path to the required workload, not the lowest land price or the closest visible utility asset. Power must be deliverable on schedule; land must be genuinely buildable and expandable; connectivity must meet the workload’s capacity and diversity needs; and cooling, water, approvals, access, and resilience must fit the same plan. Rank candidates only after those conditions are evidenced at parcel level.
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