Latest Trends in Supercritical Fluid Technology: Next-Generation Processes Driving Decarbonization, Environmental Purification, and Material Innovation

Key facts

  • Latest Trends in Supercritical Fluid Technology: Next-Generation Processes Driving Decarbonization, Environmental Purification, and Material Innovation
  • Astamuse analyzed patent and paper trends in supercritical fluid technology using its proprietary database. The report summarizes technical maturity and future focal points in decarbonization and PFAS countermeasures.
  • Source: PR Times
  • Date: June 11, 2026

Direct answer

Astamuse analyzed patent and paper trends in supercritical fluid technology using its proprietary database. The report summarizes technical maturity and future focal points in decarbonization and PFAS countermeasures.

Citation
Latest Trends in Supercritical Fluid Technology: Next-Generation Processes Driving Decarbonization, Environmental Purification, and Material Innovation (June 11, 2026), PR Times
Source
PR Times
Date
June 11, 2026
Astamuse analyzed patent and paper trends in supercritical fluid technology using its proprietary database. The report summarizes technical maturity and future focal points in decarbonization and PFAS countermeasures.
調査NQ 85/100出典:PR Times

📋 Article Processing Timeline

  • 📰 Published: June 11, 2026 at 19:17
  • 🔍 Collected: June 11, 2026 at 10:36
  • 🤖 AI Analyzed: June 11, 2026 at 10:37 (1 min after Collected)
Astamuse Inc. (Headquarters: Chiyoda-ku, Tokyo; Representative Director and President: Ayumu Nagai) has comprehensively analyzed the technology domain of supercritical fluids using its proprietary innovation database (covering innovation and R&D information such as academic papers, patents, startups, and grants) and summarized the trends in a report.

What are supercritical fluid, supercritical water, and subcritical fluid technologies?
A supercritical fluid is a state of matter where both temperature and pressure are maintained above the "critical point." It loses the distinction between liquid and gas, possessing density close to a liquid and diffusivity/low viscosity close to a gas. The critical point for carbon dioxide (CO₂) is 31.1°C at 7.38 MPa, and for water, it is 374°C at 22.1 MPa.

Supercritical CO₂ is a clean solvent that reaches a supercritical state at relatively low temperature and pressure, already commercially established in food and pharmaceutical sectors for caffeine-free coffee production and hop aroma extraction. Supercritical water has powerful oxidation capacity and can completely detoxify persistent pollutants such as PFAS (perfluoroalkyl compounds). Subcritical water (approx. 150-374°C, high-pressure liquid water) is easier to handle due to milder conditions, utilized for extracting useful components from plants/waste and chemical resource recovery (chemical recycling) of biomass.

Meanwhile, in processes handling supercritical water, equipment corrosion under high-temperature and high-pressure conditions affects equipment lifespan. For supercritical CO₂ power generation, establishing materials for high-efficiency turbines and heat exchangers is key to commercialization, and technical challenges such as well drilling technology and corrosion-resistant materials remain for supercritical geothermal power generation.

In this report, we utilized Astamuse's proprietary database to analyze technological trends regarding "supercritical fluid, supercritical water, and subcritical fluid" in patents, academic papers, and grants. By grasping the evolution of keywords, it is possible to quantitatively evaluate technologies that have passed their peak popularity and those predicted to attract attention in the future.

FAQ

超臨界流体とはどのような状態か?

物質の温度と圧力が「臨界点」を超えた状態であり、液体に近い密度と気体に近い拡散性・低粘性を併せ持つ流体です。

超臨界CO₂の主な産業利用は?

カフェインレスコーヒーの製造やホップ香気の抽出など、食品・医薬品分野で商業利用されています。

超臨界水酸化(SCWO)技術で何が可能になるか?

PFASなどの難分解性汚染物質を、強力な酸化力により完全に無害化することが可能です。

アスタミューゼはどのように技術動向を分析したか?

独自の特許・論文・グラントデータベースから関連文献24,725件を抽出し、キーワードの出現頻度の年次推移を分析する「未来推定」手法を用いています。

超臨界流体技術の今後の課題は?

装置腐食による設備寿命への影響や、超臨界CO₂発電におけるタービン・熱交換器の耐腐食材料の確立などが課題として挙げられています。