Accelerating Speed to Power/Winning the Artificial Intelligence Race: Federal Action to Rapidly Expand Grid Capacity and Enable Electricity Demand Growth

The GridWise Alliance advocates for a coordinated strategy to expand the electric grid capacity by focusing on transmission, distribution, and integrating local resources. They propose that increasing existing infrastructure capacity through technologies like Grid-Enhancing Technologies (GETs), reconductoring, strategic storage deployment, and load flexibility should be prioritized alongside building new transmission lines, rather than pursuing an either/or approach. The alliance emphasizes that deploying advanced grid solutions can increase the capacity of the existing system while waiting for large-scale generation expansion.
The distribution system and local resources are seen as critical complements to transmission upgrades. Demand Response (DR) and aggregated Distributed Energy Resources (DERs), including solar, storage, and electric vehicles, offer a fast and cost-competitive way to meet peak demand and provide flexibility. Harnessing these local resources, alongside distribution-level storage and microgrids, can alleviate the need for immediate new transmission builds while building resilience and affordability for consumers.
The Alliance also stresses the need for systemic changes in how infrastructure is developed, including streamlining permitting processes, ensuring cost allocation analysis reflects benefits to ratepayers, reducing interconnection timelines, and adopting integrated planning that accounts for both distribution and transmission systems. They recommend that federal funding streamline administrative processes and support public-private partnerships to accelerate project development, while also focusing on upgrading foundational assets like transformers and system digitization alongside new infrastructure.

* GridWise members developed a statement called Vision for an Integrated Grid detailing investment prioritization across transmission and distribution systems.
* The strategy involves expanding capacity by deploying new technologies on existing lines and investing in local distribution systems.
* Capacity expansion requires increasing the capacity of the existing transmission system, improving integration between transmission and distribution, increasing distribution system capacity, and maximizing grid-edge resources.
* Grid-Enhancing Technologies (GETs) include dynamic line rating (DLR), advanced power flow control (APFL), and topology optimization.
* Reconductoring with advanced conductors is estimated to cost less than half the price of new transmission lines.
* Strategic storage deployment can relieve transmission constraints and provide peak power, mitigating the need for new transmission lines.
* Load flexibility involves coordinating with large energy users to modulate usage to support grid reliability.
* Demand Response (DR) and Aggregated Distributed Energy Resources (DERs) can meet peak demand quickly, providing flexibility to distribution and transmission systems.
* Grid technologies fall into five categories: Advanced Transmission Technologies, Situational Awareness and System Automation Solutions, Grid Enhancing Technologies, Technologies to Enhance Flexibility, and Foundational Systems.
* Deploying these solutions could expand capacity to support 20 to 100 gigawatts of incremental peak demand while improving reliability and affordability.
* The Alliance suggests reducing minimum load requirements in DOE projects to adopt tiered screening categories for faster project identification.
* Priorities for transmission investment include regional interconnections, permitting reform, cost allocation analysis, reducing interconnection timeframes, integrated planning, and transmission investment optimization.

The narrative balances a technical roadmap for grid modernization with structural critiques of the current investment process. The core tension lies between the immediate need to expand capacity through technological innovation (GETs, DERs) and the protracted, slow timeline associated with traditional infrastructure buildouts and regulatory processes. This creates a framework where flexibility and localized solutions are presented as fast alternatives to massive capital expenditure, yet they are tethered to an overarching necessity for large-scale transmission expansion.
The pattern of prioritizing low-cost, rapid technological fixes (like GETs) over long-term, multi-year infrastructure projects (new lines) suggests a reactive stance against systemic inertia. The acknowledgment that grid assets require 30-50 year investment cycles while energy demand changes rapidly highlights a fundamental misalignment between regulatory timelines and physical realities. This dynamic supports the call for flexibility—using software and distributed resources to manage existing constraints immediately—while simultaneously demanding that federal policy reform address the legacy bottlenecks in permitting and cost allocation that slow down all necessary large-scale action.
The most significant implication is the friction between centralized, long-term planning (necessary for major transmission) and decentralized, rapid deployment (necessary for demand response and DER integration). The uncertainty surrounding federal support—specifically the risk premium associated with regulatory changes mid-project—acts as a powerful constraint, potentially pushing developers toward less risky but less optimal paths. The challenge for future policy lies in creating certainty that allows both immediate grid relief via distributed assets and necessary long-term transmission buildout to proceed without being paralyzed by regulatory ambiguity.
Bridge Questions: If the emphasis is placed on achieving rapid load growth through DER aggregation, what specific governance structures are needed to ensure local resource integration supersedes centralized transmission planning when reliability is at stake? How can federal funding mechanisms be redesigned to reward integrated solutions where distribution and transmission goals are solved simultaneously rather than in silos? What concrete regulatory steps could eliminate the time lag between identifying necessary infrastructure upgrades and their physical realization?