Episode Summary
Executive Summary: The episode explores Energy Web’s effort to build an open, blockchain-anchored operating system for distributed energy resources (DERs) so utilities, aggregators, and markets can finally identify, trust, coordinate, and value devices behind the meter. CEO Jesse Morris argues that visibility and standardized identity are prerequisites for unlocking DER flexibility, reducing grid risk, and enabling new local and wholesale market designs.
Main Topics: What counts as distributed energy resources (Priority: 5/5): Morris defines DERs broadly as any electricity-using, storing, or generating device—solar, batteries, EVs, smart appliances, heat pumps, and flexible loads—and explains why their rapid growth changes grid operations. The visibility and coordination problem (Priority: 5/5): Because DERs sit behind the meter, utilities and market operators cannot easily see or manage them, creating uncertainty in demand forecasting, grid stability, and asset utilization. Energy Web’s identity-and-protocol approach (Priority: 5/5): Energy Web aims to give every DER, utility, and aggregator a digital identity anchored on blockchain, creating a trusted, interoperable layer for coordination across markets and programs. Why blockchain is used (Priority: 4/5): Blockchain is presented not as speculation but as a trust anchor for identities and metadata, supporting verification, decentralization, and potentially distributed matching/scheduling functions. Market and regulatory adoption (Priority: 4/5): The discussion covers FERC Order 2222, local utility programs, Australia’s market reforms, and the mismatch between regulatory ambition and current technology/infrastructure. Real-world deployments and use cases (Priority: 4/5): Energy Web describes live deployments in Australia, California, Western Europe, and other contexts, including FlexAlert, EV participation, renewables certificates, and 24/7 carbon matching. Broader implications for the energy transition (Priority: 5/5): Morris argues that better data and coordination could reduce peak demand, avoid wasted DER capacity, and eventually support a more distributed, resilient grid architecture.
Key Arguments: DERs are growing fast and include far more than solar and batteries; any controllable load or storage device can be a grid resource. Utilities cannot reliably coordinate DERs if they cannot identify them or see what they are doing behind the meter. Most current DER programs are bespoke and uncoordinated; in California, there are at least eight programs but zero shared underlying protocols. A universal identity layer is a prerequisite to scaling DER participation across utility, distribution, and wholesale market use cases. Blockchain is useful here primarily as a tamper-resistant anchor for identities and credentials, not as a cryptocurrency gimmick. The main bottleneck is no longer just policy; software and interoperability are essential to make DERs trusted and dispatchable. Many DER assets, especially batteries, are severely underutilized because they lack access to multiple markets and services. Australia is a leading proving ground because high solar penetration and rising electrification are forcing grid operators to adopt more flexible coordination tools. Open source is the right model because one centralized utility IT stack is unlikely to fit diverse markets; Energy Web monetizes through enterprise support and membership rather than proprietary lock-in. Improved tracking can also strengthen REC, 24/7 carbon matching, and other energy-transition supply chains by reducing double counting and opacity.
Data Points: Year Energy Web was started: 2017 - Morris says the organization spun out of RMI in 2017 after recognizing the software gap. Length of RMI tenure: about 10 years - Morris describes his prior work at Rocky Mountain Institute before founding Energy Web. California DER programs cited: at least 8 - Roberts notes Energy Web counted at least eight programs for DER service provision in California. Shared protocol among California programs: 0 - Morris says none of those California programs are coordinated by a common underlying protocol or technology. Battery underutilization: 95% of the year unused - Morris cites analysis showing many commercial and industrial batteries sit idle most of the time. Australian renewable penetration: about half of homes with rooftop solar - Morris cites Australia as a leading example of DER saturation and grid pressure. Frequency of data sharing in some applications: 5 to 15 minute intervals - Morris says most time-sensitive applications are currently built around these intervals. Grid operator scale challenge: 100 million DERs in California (hypothetical example) - He uses this as a scalability thought experiment for frequent data exchange. DER market stress in Australia: 100% renewable by 2025 goal - Morris references the Australian Energy Market Operator’s challenge to manage a highly renewable system quickly. Flexibility potential: 20 to 25 percent off peak moments - Morris speculates that coordinated DERs could shave substantial peak demand. Workforce/market structure: open source / Red Hat-style services - Energy Web’s business model is described as service-and-membership based, not proprietary licensing.
Pivotal Quotes: "we need to be able to manage a regularly 100% renewable by 2025" — Jesse Morris: Morris cites Australia’s urgency as a reason to rapidly build coordination infrastructure for DERs. "if we are in a situation where there are hundreds of bespoke, centralized information technology setups to basically perform the same function in every energy market around the world, wow, we have missed a huge opportunity" — Jesse Morris: He argues for a shared, open protocol rather than fragmented proprietary systems. "If we are in a situation where you or me or our parents have to do anything to get paid a few bucks a day for your assets to provide services to the grid, we have failed" — Jesse Morris: He describes the ideal future where DER participation is automatic and low-friction for consumers.
Implications: If Energy Web’s model scales, DERs could become a coordinated, trusted grid asset rather than an opaque swarm of isolated devices. That could cut peaks, improve reliability, expand market participation, and enable new local energy markets and carbon-tracking systems.