From 2023 to 2026, AI-driven demand has pushed data center loads from 23 GW (gigawatts) to 42 GW – and it’s expected to continue to grow. According to the Lawrence Berkeley National Lab forecast, data center demand could reach as high as 132 GW by 2028, though most research institutions have predicted a demand in the range of 72 to 96 GW by 2030.
Though a current hot topic, data centers have been in operation for decades. They house thousands of computers and servers and the essential operational systems to keep them running. The steady rise in cloud computing, the increasing digitization of our lives, and the growing demand for AI tools in both personal and professional spheres are driving not only an increase in the number of data centers but also a significant expansion in their size.
Hyperscale data centers, operated by major technology companies like Google, Amazon, and Black Rock and primarily supporting AI development, are increasingly moving to rural areas. While smaller data centers prioritize proximity to end-users for lower latency, these large facilities seek rural locations with ample land, an accessible power infrastructure, a robust fiber-optic network, and water availability.
This shift means rural electric cooperatives are now ground zero for hyperscale data center development. It presents both a generational opportunity for growth and a significant risk to the grid, member rates, and the cooperative’s core member-owned mission. This article will provide the insight needed to master that queue, focusing on the single critical factor that determines success and speed: data integrity.
To navigate this process, cooperatives must understand that the primary bottleneck for data center construction isn’t hardware, it’s the utility queue. In the race to power the AI boom, data centers prioritize speed to market above almost all else, and they will ultimately go where they can get power the fastest. This pits the data center’s aggressive ramp-up schedules against the reality of legacy utility systems and an industry that traditionally moves at a slower pace.
Cooperatives with digitized, high-accuracy GIS records can process interconnection requests months faster than those relying on legacy records, manual field audits, or obsolete records. This kind of speed requires confidence: when a co-op can pull up a 100% accurate, GNSS-verified inventory of their substations and feeders, they can make decisions with authority and provide definitive answers.
For electric cooperatives facing rapid hyperscale growth, data integrity is the strongest defense against risk. Today’s developers use sophisticated GIS platforms, overlaying utility network models with parcel data to pinpoint power-ready sites before even contacting a cooperative. With this in mind, the most valuable asset a cooperative owns is its data accuracy. A data center’s “site ready” map is only as good as the cooperative’s actual field data – even a small error of 5% can delay projects by months or even years.
A cooperative possessing verified, accurate records of its inventory is significantly more appealing to developers than one relying on obsolete methods. Developers seek confirmed capacity, not just land, making data accuracy a cooperative’s most valuable asset.
Achieving this required level of confidence demands more than just standard staking equipment. It requires specialized tools that can transform raw field data into a secure and powerful asset. Tri-Global Technologies meets this critical need by providing a complete, high-accuracy GNSS foundation, seamlessly integrated with a robust, intuitive field-to-office workflow. This approach ensures that the vital information gathered by utility crews is not a vulnerability but a powerful tool for negotiation, planning, and regulatory compliance.
At the core of Tri-Global’s offering is the Asteri GNSS, engineered to withstand the reality of utility fieldwork while delivering uncompromising precision, even in areas with heavy canopy or urban canyons. Every Asteri GNSS is designed for:
To ensure the highest possible positional accuracy for mission-critical utility data, we recommend pairing the Asteri with Orbitas Correct, powered by Point One Navigation. This RTK (Real-Time Kinematic) correction service guarantees that your collected coordinates meet the stringent requirements for engineering, legal, and operational purposes.
One of the most significant advantages of the Asteri and Orbitas ecosystem is our commitment to interoperability. Tri-Global Technologies understands that utility companies operate with a diverse suite of software applications for GIS (Geographic Information Systems), asset management, and CAD (Computer-Aided Design). We also understand the hassle of migrating from one service to another. With that in mind, the Asteri and Orbitas ecosystem is designed to integrate seamlessly with all leading industry software.
This open approach ensures that utility providers can leverage their existing technology investments while immediately benefiting from the superior accuracy and efficiency of the Asteri GNSS and Orbitas solution. Our integration capability is the key to maintaining a smooth, uninterrupted workflow from the field capture to the final documentation and deployment stages of utility expansion projects.
For cooperatives facing data center proposals, the most important factors to consider are grid capacity, resource strain, and risk mitigation – all while simultaneously managing developer expectations and schedules. It’s no easy task, and it’s not just about selling more power – it’s about protecting the community’s reliability, rates, and the mission of the cooperative. Below you’ll find common concerns and the recommended actions offered by electric cooperative leaders that have integrated data centers into their grid.
| CONCERN | SOLUTION |
| Grid Reliability: Data centers consume massive amounts of energy – sometimes enough to power a medium sized city. This can create instability on the grid, demanding complex planning for worst-case scenarios. | Improving the ability to model the behavior of data centers during events such as transmission faults will be the key to reliability planning for issues surrounding load balancing, frequency stability, and voltage stability. Poor models can result in sub-optimal planning and operating practices being implemented. |
| Infrastructure Updates: Data centers demand massive amounts of power. In order to ensure distribution, it’s often necessary to update legacy grid systems to be able to handle the increased power consumption. This is expensive and has a long lead time. | Enforce the data center to pay 100% of their own interconnection and new transmission costs. This is often done with CIAC (contribution in aid of construction): the data center pays for the substation and line upgrades, enhancing the overall reliability and capacity of the grid for the entire membership.
It’s also recommended that data centers pay for any site studies that need to be conducted prior to development. Not only does this protect the cooperative, but it helps cooperatives filter the speculative developers from the serious offers. |
| Stranded Assets: If a data center project falls through due to supply chain issues or interconnection delays, or if the tech bubble shifts, cooperatives need to make sure that remaining co-op members aren’t stuck paying for the stranded infrastructure. | Cooperatives should implement rigorous contract, rate, and planning safeguards to ensure that costs are borne by the data center, not cooperative members. This could include requiring up-front payments for infrastructure studies, implementing minimum demand charges, and securing performance assurances.
Some cooperatives also require data centers to pay fees if they exit contracts early or fail to materialize, covering the risk and giving the utility a chance to find new loads. |
| Member Rates: Many community members in areas with proposed and established data centers have concerns about increased utility bills. | Fixed cost dilution. The presence of a massive, consistent load for the grid means that a cooperative can distribute its fixed operational costs over a much larger volume of kilowatt hours, leading to lower rates for residential and agricultural members. |
| Transparency: In many areas, data centers are not perceived as desirable neighbors due to the potential for increased rates, environmental and noise pollution, water consumption, and confidentiality issues such as NDAs that restrict the information that can be shared with local communities. | Cooperative members deserve to know how a data center will not only affect their rates, but their community as a whole. There needs to be transparency between the data centers, the member co-ops, and with the public. It’s strongly encouraged for data centers to take part in community activities to build trust, address concerns, align projects, and demonstrate their commitment to being good neighbors. |
Beyond the frequently cited worries detailed above, experienced cooperative leaders have shared the following recommendations:
The cooperative commitment to member protection is where the cooperative model truly diverges from its investor-owned counterparts. Consider the cautionary tale of Northern Virginia’s ‘Data Center Alley,’ primarily served by Dominion Energy, an investor-owned utility. Despite official contentions, local residents have reported experiencing decreased property values and increased electric bills. The risk of growth without a foundational commitment to member safety and transparency is the perception of not protecting the community, which is the risk a cooperative must avoid.
According to records from the Virginia State Corporation Commission (SCC), Dominion Energy did not systematically require data centers to pay for the major infrastructure upgrades required for their operation. They have also been criticized for not being transparent with environmental groups, community advocates, and analysts regarding their data center dealings.
Data Center Alley serves as a powerful illustration of what happens when the priority is not visibly and measurably protecting the community through proactive measures, such as demanding CIAC and securing contracts built on 100% accurate, verified grid data. Without that confidence, the utility is forced to act reactively, and the customers/members bear the brunt of the risk.
The unprecedented demand for AI-driven data center capacity has positioned rural electric cooperatives at a critical juncture. The influx of hyperscale development represents a generational opportunity to grow load and distribute fixed costs, potentially leading to lower rates for residential and agricultural members.
However, capitalizing on this opportunity hinges entirely on the cooperative’s ability to act with speed and confidence. As the utility queue becomes the primary constraint for data center developers, the single most critical factor for success is data integrity. A highly accurate, verified digital twin of the cooperative’s grid is the only way to meet aggressive developer timelines, accurately assess risk, and enforce necessary safeguards.
Cooperatives must protect their members and their mission by proactively managing the process: demanding CIAC, securing rigorous contracts, and ensuring full transparency with the community.
By investing in tools like the Tri-Global Technologies’ Asteri GNSS and Orbitas with Orbitas Correct, cooperatives are not just acquiring advanced staking equipment but building the data-backed confidence required to negotiate from a position of strength.
The path forward for electric cooperatives facing the data center frontier can be summarized in three steps:
Ready to take the next step? Upload your resume and share any relevant work or project links. If there’s a role for you now, or in the future, we’ll be in touch.
