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America's Energy Problem: We Need A New Grid

U.S. per capita energy usage peaked in 1973. Since then? Flat. Meanwhile, China’s per capita energy use has grown 9x. Today, AI, EVs, manufacturing, and data centers are driving demand for more electricity than ever—and our grid can’t keep up. In this episode, a16z general partners David Ulevitch and Erin Price-Wright, along with investing partner Ryan McEntush from the American Dynamism team, join us to unpack: – How America’s grid fell behind – Why we "forgot how to build" power infrastructure – The role of batteries, solar, nuclear, and software in reshaping the grid – How AI is both stressing and helping the system – What it’ll take to build a more resilient, decentralized, and dynamic energy future Whether you’re a founder, policymaker, or just someone who wants their lights to stay on, this conversation covers what’s broken—and how to fix it. Timestamps: 00:00 The Future of the Energy Grid 01:09 Historical Context and Current State of the Grid 03:08 Decentralization and New Technologies 07:31 Policy and Workforce Issues 10:45 The Role of Solar and Batteries 15:07 Diverse Energy Sources and Demand 24:24 Challenges in Grid Monitoring and Communication 25:55 Load Forecasting and Energy Markets 27:40 The State of Nuclear Energy 31:08 Advancements in Small Modular Reactors (SMRs) 35:56 The Role of Technology in Mega Projects 38:20 Opportunities in Grid Management and Monitoring 43:08 The Future of Energy Infrastructure and Policy Resources: Find David on X: https://x.com/davidu Find Erin on X: https://x.com/espricewright Find Ryan on X: https://x.com/rmcentush Stay Updated: Let us know what you think: https://ratethispodcast.com/a16z Find a16z on Twitter: https://twitter.com/a16z Find a16z on LinkedIn: https://www.linkedin.com/company/a16z Subscribe on your favorite podcast app: https://a16z.simplecast.com/ Follow our host: https://x.com/eriktorenberg Please note that the content here is for informational purposes only; should NOT be taken as legal, business, tax, or investment advice or be used to evaluate any investment or security; and is not directed at any investors or potential investors in any a16z fund. a16z and its affiliates may maintain investments in the companies discussed. For more details please see a16z.com/disclosures.

David UlevitchguestRyan McEntushguestErin Price-WrightguestErik Torenberghost
Jul 16, 202549mWatch on YouTube ↗

CHAPTERS

  1. What the “grid of the future” actually is: beyond generation vs. transmission

    The discussion opens by reframing the grid as more than a simple pipeline from generation to transmission to storage. The speakers set up the central thesis: future reliability and growth will require new architectures, including decentralized resources and smarter coordination.

  2. How the U.S. grid stagnated: from rapid buildout to “ossification”

    Ryan provides historical context for how the U.S. built fast through the 20th century, then slowed dramatically in the 80s–2000s. Offshoring of heavy industry and reduced new-build experience left operators and supply chains less capable of executing large projects quickly.

  3. Forgetting how to build: workforce decay and project execution gaps

    The panel explores whether the U.S. “wasn’t allowed” to build or simply lost capability. They argue the bottlenecks are increasingly human and institutional: aging skilled trades, fewer experienced project builders, and slower organizational learning.

  4. Delivery costs, interconnection backlogs, and the transformer bottleneck

    Erin highlights how a century-old grid is at capacity and slow to add new projects. Interconnection queues, transformer lead times, and fragile domestic manufacturing capacity drive delays and rising delivery costs even as generation gets cheaper.

  5. Leapfrogging the grid: co-locating power with load (data centers as catalyst)

    The conversation shifts to bypass strategies: putting generation and storage next to demand to avoid waiting for interconnection. Data centers are a key driver, increasingly building on-site power and creating opportunities for local optimization with software and AI.

  6. Policy models and grid-enhancing technologies: “connect and manage” vs. long studies

    They contrast permissive approaches (e.g., Texas) with states that require extensive feasibility studies before interconnection. Grid-enhancing technologies—sensors and dynamic line ratings—could increase utilization of existing infrastructure and reduce delays.

  7. Texas as a live experiment: solar + batteries for resiliency and peak management

    Texas is presented as a proof point after high-profile failures: rapid solar additions and large battery deployments improved performance during heat waves. The panel argues storage should be non-controversial and calls out U.S. dependence on foreign battery supply chains.

  8. A “yes-and” energy mix: balancing cheap renewables with firm, dispatchable power

    The speakers argue the U.S. needs every tool: solar and batteries for speed and cost, plus firm resources like gas, nuclear, geothermal, and hydro. They emphasize that high renewable penetration brings a “long tail” reliability cost without enough firm capacity.

  9. Demand is changing: AI/data centers, EVs, electrification, and peak variability

    They break down load growth and its shape: data centers are largely baseload, while EVs, HVAC, and industrial electrification expand peaks and troughs. The grid must be designed around both rising baseload and increasingly volatile demand patterns.

  10. Demand response reality check: flexible compute vs. controlling consumers

    The panel debates demand response—reducing load instead of building peaker plants. They agree consumer thermostat control is politically untenable in the U.S., but see promise in flexible industrial/compute loads (e.g., data centers, crypto) shifting work to off-peak periods.

  11. Grid visibility and communications: the missing control plane

    A major constraint is that the grid lacks internet-like observability and messaging. Operators have limited distribution-level visibility, making interconnection and bidirectional flows (net metering, home batteries) hard to manage without better sensing and communications layers.

  12. Forecasting, markets, and the “weather premium”: better telemetry as an unlock

    Load forecasting and day-ahead markets depend heavily on weather models due to sparse operational data. More device-level telemetry from EV chargers, solar, and storage could improve forecasting, market efficiency, and investment decisions—reducing crisis-driven price spikes.

  13. The state of nuclear: shifting sentiment, regulatory drag, and the SMR/microreactor push

    Nuclear tailwinds are improving as it’s increasingly accepted as clean, firm power—yet politics and permitting remain major obstacles. The panel spotlights SMRs and microreactors (e.g., truckable units) as a resilience and defense advantage, especially for military bases and disaster recovery.

  14. Building at scale again: mega-project execution, autonomy, and “software for the grid” opportunities

    They close on what needs to exist: the U.S. must improve mega-project delivery and rebuild skilled labor pipelines, while deploying software to manage grid complexity. Venture opportunities include a “Splunk/Looker/Palo Alto for the grid,” AI for permitting and project delivery, and business models that bring generation/storage closer to load.

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