Industry News & Research on Plasma-Activated Water

CFANS / University of Minnesota | August 18, 2026
Detailing the commercialization of University of Minnesota-born technology by the startup Plasma Blue, this article highlights the use of chemical-free plasma water across agricultural and environmental sectors. Operating at low temperatures and ambient pressures, the modular system is being utilized to synthesize uniform metal nanoparticles for advanced crop protection. This breakthrough drastically reduces the volume of active chemical pesticides required in agricultural fields, while also offering scalable solutions for sanitizing farm settings and destroying “forever chemicals” (PFAS) in wastewater.

Dainikshiksha / University News | September 17, 2026
A newly published report outlines findings from a research team at Rajshahi University (RU) demonstrating the significant agricultural impacts of plasma technology. The researchers found that treating seeds and applying plasma-activated water stimulates root development and increases overall crop yields. Additionally, the treatment activates antioxidant defense mechanisms in plants, improving their tolerance to abiotic stressors like salinity, drought, and extreme temperatures, while also decontaminating harvested produce to extend shelf life.

TIBD Global | September 7, 2026
A team known as Plasma Innovation was recently awarded the Grand Winner prize at TECH PLANTER Thailand 2026 for their commercialization of plasma-activated water technology across agriculture and food safety sectors. The system creates cold plasma from atmospheric pressure, dissolving reactive species into water to alter its pH and oxidation-reduction potential. In agriculture, the resulting PAW is being used to soak seeds—reducing seed-borne organisms while stimulating germination—and as a point-of-use wash to extend the shelf life of fresh produce without hazardous chemical residues.

National Taiwan University of Science and Technology | August 24, 2026
Researchers at Taiwan Tech have successfully developed a circular carbon utilization framework utilizing a microalgae carbon fixation platform driven by plasma-activated water. The team demonstrated that under specific conditions, PAW can effectively promote the growth of microalgae. Powered by solar modules to reduce energy consumption, this platform simulates industrial carbon capture. The ultimate goal is for agricultural industries to adopt these microalgal technologies to replace synthetic chemical fertilizers with sustainable alternatives.