S2G and the Canada Growth Fund split up to $100 million behind Kanin's waste-heat turbines

The buyer here is a cement, steel or gas plant that already has the heat and no appetite for becoming a project developer. Kanin's offer to that plant is Energy-as-a-Service: the company finances, develops, constructs and operates the project, and the industrial customer uses the resulting power infrastructure without financing it ^[11][12]. "Kanin was built on the belief that industrial facilities already hold the solution to their own energy challenges, they just need the right partner to execute," said Janice Tran, Kanin's CEO ^[15].

So the thing being bought is a power contract with a counterparty that will own equipment inside the fence line for years. A plant's finance team will want contract lengths, project capital costs and how many industrial customers Kanin has signed. The report has none of that ^[20].

Both commitments are written as "up to": up to $50 million from S2G Investments and up to $50 million from the Canada Growth Fund ^[2]. That makes $100 million a ceiling on the two investors' exposure, not cash sitting in an account ^[1]. Set the ceiling against a commercial portfolio of about 50MW operating or under construction and it works out to roughly $2 million of equity per megawatt already built or building ^[9][19]. How many new megawatts that buys depends on how much debt sits alongside the equity.

The turbine is the settled part. Organic Rankine cycle machines have been deployed for more than four decades, using process heat to vaporise an organic working fluid whose vapour drives a turbine and generator ^[5][6], and nothing is burned to do it ^[7]. What varies is the host site: how hot the exhaust stream is, how dirty, and whether it runs without stopping. Kanin says its systems are designed to produce baseload electricity supplied directly to industrial facilities or local power buyers ^[13].

The company's headline number is that as much as 58% of the energy consumed by industrial processes can be lost as waste heat ^[4]. That is Kanin's own figure, and the "as much as" is a top of range, not a typical plant. It also describes heat leaving the process, not electricity arriving at the switchboard, since a recovery system converts part of that energy ^[21].

For an operator weighing an offer, two axes decide it. The first is heat continuity, meaning whether the process runs around the clock or in batches with cold gaps, because baseload output needs heat that does not stop ^[13]. The second is grid position: what power costs at the meter and whether a larger connection can be had at all, which is where on-site generation reduces the volume a facility has to draw ^[17]. Continuous heat plus expensive or constrained supply is where the economics work. Batch heat plus cheap, available grid power buys a machine that idles whenever the process stops.

"Waste heat has largely been an underused solution, but as these constraints persist, there's a clear and growing incentive to capture it and put it to productive use," said Marisa Sweeney, a principal at S2G ^[14]. A plant that wants to check the claim before signing has two named references to visit: the operating project supplying electricity to the University of Dayton ^[8], and the Mewbourn WHP Power Project under development in Weld County, Colorado ^[10].