TS-076593 — Light olefins are essential feedstocks for polymers and other high-value chemicals, but conventional alkane dehydrogenation is energy-intensive and constrained by reaction equilibrium. High operating temperatures can reduce selectivity, accelerate catalyst degradation, and promote unwanted byprodu…

TS-074441 — Chemical looping gasification and combustion are promising pathways for low‑carbon energy conversion, CO₂ capture, and syngas production, but their commercial deployment is constrained by the performance of available oxygen carrier materials. Existing metal oxide oxygen carriers often suffer f…

TS-071809 — The Need Syngas is an essential intermediate for producing high-value chemicals such as gasoline, methanol, and dimethyl ether. Current industrial methods (steam reforming, autothermal reforming, and partial oxidation) are energy-intensive, costly, and environmentally burdensome. Moreover, these met…

TS-071808 — The Need Industrial syngas and hydrogen production processes are highly energy-intensive and contribute significantly to carbon emissions due to reliance on fossil fuel combustion. Existing methods require multiple unit operations, resulting in low efficiency and high operational costs. There is a c…

TS-071806 — The Need Current syngas production from methane relies on energy-intensive air separation units (ASUs) to supply molecular oxygen, driving up capital and operating costs. Conventional catalysts also suffer from carbon deposition at low oxidant concentrations, limiting process flexibility and efficie…