US Department of Energy invests $155 million in cutting-edge industrial efficiency projects

The Department of Energy has awarded $155 million to a cluster of 16 national-laboratory projects aimed at making energy‑intensive US industries more efficient and competitive, signalling a quiet but consequential federal push to lower industrial energy demand even as national policy rhetoric shifts. According to the Department of Energy, the awards , announced under the ITO FY25–FY27 lab call , target persistent sources of emissions and high energy use including iron and steel, cement, chemicals, forest products and food and beverage manufacturing.

The agency framed the investments in economic terms. “These expanded lab capabilities will drive process and technological innovation, reduce costs, and increase prosperity for American workers and consumers,” the Department said in its announcement. The programme is managed by the Office of Energy Efficiency and Renewable Energy and coordinated with the Office of Critical Minerals and Energy Innovation, reflecting an emphasis on competitiveness as well as waste reduction.

Several of the funded initiatives explicitly pursue electrified and membrane‑based process routes that can displace traditional, heat‑intensive operations. The largest single award in the portfolio went to Lawrence Livermore National Laboratory’s Solutions Center for Commercial Advancement of Large‑Scale Electrochemistry (SCCALE), which received $12.5 million to accelerate electrochemical manufacturing approaches designed to “reduce capital costs and safety risks by avoiding extreme temperatures and pressures.” The Electrochemical Society has argued that electrochemical methods can unlock gains across sectors, noting that electrochemistry “plays a critical role in the future of our planet and the health of those who live on it. Our members are making key discoveries that address global sustainability challenges such as renewable energy, food safety, water sanitation, and medical diagnosis and care.”

Oak Ridge National Laboratory will establish a national membrane technology centre with roughly $12 million in funding to advance separations and recovery systems that can supplant energy‑heavy thermal separations. The Energy Department says membrane systems can “help reduce energy use and costs in industrial processes by reducing or eliminating the need for energy‑intensive thermal separations (distillation, evaporation), recovering useful materials from waste streams, and optimizing heating and cooling by eliminating unnecessary components from air.” Beyond water treatment, membranes are relevant to flow batteries, electrolysis and other modular low‑temperature technologies that industries can deploy to shrink their thermal footprints.

A smaller award , about $2.5 million , went to Lawrence Berkeley National Laboratory to stand up a FOOD centre (Food & Beverage Operational Optimization and Deployment). The centre will pursue efficiency improvements across legacy food processing and post‑harvest handling as well as emerging systems such as controlled environment agriculture, alternative proteins and fermentation‑based products, with the explicit goal of reducing operational energy intensity across the supply chain and enabling follow‑on public and private investment.

Thermal energy storage (TES) and industrial heat integration also feature in the package. Sandia National Laboratories received funding to expand and improve a TES testbed, a recognition that cost‑effective thermal batteries and heat management systems will be central to decarbonising processes that need high‑temperature or dispatchable heat. The department highlighted TES as a technology that can balance diverse onsite and grid resources to deliver either thermal or electrical outputs for industrial sites.

The awards sit alongside other, concurrent DOE efforts aimed at buildings and federal facilities. The department recently announced separate rounds of support for building retrofits and electrification research and for federal facility efficiency projects, under programmes that include targeted R&D and demonstration funding to reduce peak grid demand and improve resilience. According to DOE materials, those complementary investments aim to accelerate near‑term emissions reductions across both end‑use and supply‑side systems.

Industry‑facing startups are already bringing complementary technologies to market. On 23 January, the thermal‑battery company Electrified Thermal Solutions said it had commissioned a commercial‑scale “Joule Hive” at the Southwest Research Institute in Texas, a unit designed to store renewable electricity as heat at temperatures up to 1,800°C and discharge that energy as a process gas for furnaces, boilers or kilns. The firm notes the device could provide an electricity‑to‑heat pathway intended to displace natural gas for high‑temperature industrial uses; the company’s development pathway included early ARPA‑E and Energy Department support.

Taken together, the lab awards and related DOE programmes underscore a shift in emphasis: rather than relying solely on fuel switching or long‑lead industrial retrofits, the department is funding modular, science‑driven options that reduce the energy required per unit of output. For businesses in heavy manufacturing and food processing, those options can translate into lower operating costs and reduced exposure to fuel price volatility , outcomes the DOE repeatedly flagged in its release.

The funding level is modest relative to the scale of industrial emissions, yet the department and laboratory managers contend that targeted early‑stage investments , in pilot facilities, testing infrastructure, modelling and cross‑sector collaboration , can materially shorten the path to deployment. The portfolio also reflects a pragmatic acceptance that electrification, advanced separations and thermal storage will need to operate in concert if the highest energy‑use sectors are to cut emissions without sacrificing throughput or competitiveness.

For industrial energy managers and decarbonisation planners, the lab call creates new avenues for partnership with national labs and for early access to prototype technologies and testbeds. Industry data and DOE statements emphasize that the projects are intended to be catalytic rather than prescriptive, with the expectation that private capital and subsequent public programmes will scale commercial solutions that demonstrate cost and performance benefits in real manufacturing contexts.