TS-074248 — Nitrogen oxides (NOx) emissions remain a major regulatory and environmental challenge for power generation, industrial combustion, and waste incineration. The dominant abatement technology, selective catalytic reduction (SCR), relies on ammonia or urea, introducing safety, cost, and operational co…

TS-073930 — Many industrial gas–solid reactions, such as ironmaking, chemical looping, and other redox-based processes, are fundamentally constrained by thermodynamic equilibrium in conventional reactor designs. Single-inlet/single-outlet reactors force tradeoffs between gas conversion and solid conversion,…

TS-073646 — Industrial chemical and physical processes consume large quantities of thermal energy and steam, yet most facilities still rely on external power generation or low‑efficiency Rankine‑cycle systems to meet their electricity demand. This leads to significant energy losses, high operating costs, …

TS-073219 — Global demand for low‑carbon hydrogen is rising, yet current methods carry efficiency penalties, complex gas clean‑up, and cost and footprint burdens. These drawbacks are amplified when upgrading dilute or variable‑quality feedstocks such as biogas and waste‑derived fuels. Industry needs a…

TS-072583 — The Need The ammonia industry is a major contributor to global CO₂ emissions, primarily due to its reliance on fossil fuels for hydrogen production and the energy-intensive air separation process for nitrogen. With over 500 million tons of CO₂ emitted annually from ammonia synthesis, there is a …

TS-072580 — The Need Rising atmospheric CO₂ levels from fossil fuel combustion pose urgent climate and regulatory challenges. Existing carbon capture and sequestration technologies are often costly, energy-intensive, or limited in scalability. There is a critical need for economically viable solutions that no…

TS-072579 — The Need Industrial processes that utilize syngas (hydrogen and carbon monoxide) often generate tail gas streams rich in CO₂ and other byproducts. Conventional carbon capture methods, such as acid gas removal units, are highly energy-intensive and reduce overall plant efficiency. There is a critic…

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…