MicroPower has sharpened its near-term commercial focus to four flagship sectors – the areas where its thermoelectric platform is field-proven and maps most directly to current partner demand: industrial waste heat, bioenergy and biogas, AI datacentre and behind-the-meter power, and thermal-storage discharge. The company's underlying technology and broader application set are unchanged; the focus is on where to engage first.
The decision reflects two practical observations. First, following independent validation of the platform and extended industrial testing – including more than 2,500 hours at a Gerdau steel facility – MicroPower has a clearer view of which sectors can realistically move from pilot to commercial deployment over the next phase. Second, these four sectors share a common profile: a high-grade heat stream, an economic gap that conventional equipment leaves unaddressed, and a solid-state solution that is genuinely differentiated rather than incrementally better.
Industrial waste heat is the most field-proven of the four. Heavy industry – steel, cement, and glass – rejects large quantities of high-grade heat from furnaces and exhaust ducts. MicroPower's solid-state modules convert a share of that heat directly into electricity, with no water, no turbine, and no moving parts. The Gerdau pilot sits in this sector, and it remains the clearest near-term path from validated pilot to commercial deployment.
Bioenergy and biogas is a strong near-term target. A large installed base of biogas plants across Europe loses a substantial share of fuel energy as waste heat, at exhaust temperatures well suited to thermoelectric recovery. Many of these plants are too small for conventional Organic Rankine Cycle turbines to be economic, which is precisely the gap MicroPower's PowerRing form factor was designed to address.
AI datacentre and behind-the-meter power is a fast-emerging opportunity. As computing demand outpaces grid connections, operators are increasingly generating power on site with gas turbines and reciprocating engines. Those engines exhaust heat at temperatures squarely in the platform's range, and wrapping that exhaust with thermoelectric modules adds net electrical output without adding water, steam loops, or parasitic load.
Thermal-storage discharge is the newest of the four and the most forward-looking. A new generation of thermal batteries stores low-cost renewable electricity as high-temperature heat. MicroPower's platform can sit on the discharge side of these systems, converting stored heat back into electricity as a solid-state complement to conventional heat engines.
The broader policy environment, including IRA-era incentives in the United States and decarbonisation mandates in Europe, continues to make waste-heat recovery and on-site power more attractive to industrial and infrastructure operators. MicroPower is positioning to participate in this shift selectively rather than broadly.
The company's patent estate, third-party testing and validation across NREL, the U.S. Army Research Laboratory, NIST, Bechtel-Bettis, and Texas State, and prior pilot work remain the foundation. The sharpened focus is about sequencing: engaging first where the technology, the market need, and the regulatory tailwinds intersect most clearly.
MicroPower engages selectively with qualified industrial and investment partners. Introductions and structured enquiries are welcome via the contact page.