EQUIPMENT
FULGUR - Integrated Nitrosylation System for Cosmetics, Medicine, and Agriculture
FULGUR is an innovative, commercially ready nitrosylation system that combines atmospheric plasma with controlled air delivery for liquid treatment. Designed for multi-sector applications, it enables safe, efficient, and scalable modification of biological, cosmetic, and agricultural substrates.
Technological Foundation
• Atmospheric plasma: generated without the need for specialty gases, reducing operational costs and simplifying integration
• Controlled air delivery: ensures stable generation of the active form of nitric oxide (NO)
• Liquid treatment capability: optimized for use with aqueous solutions, gels, emulsions, and biological media
• Modular architecture: allows customization for specific industry needs, from sterilization to functionalization
S40 - Gliding Arc Plasma Reformer for Syngas Cleaning, 40 kW
S40 is a high-temperature plasma-chemical system based on gliding arc plasma technology, designed for up to 40 kW of power. It is purpose-built for the reforming and purification of synthesis gas (syngas). Thanks to its unique gliding arc configuration, the system enables efficient breakdown of tars, volatile organic compounds, and other contaminants, enhancing gas quality for downstream use in energy production, chemical synthesis, and agricultural technologies.
Technological Foundation
• Gliding Arc Plasma - Generates stable, non-thermal plasma with high energy density, allowing effective treatment of gas streams without complete combustion.
• Power Capacity: 40 kW - Optimized for pilot-scale installations, mobile platforms, and laboratory-scale deployment.
• Multi-Point Inlet Reactor - Ensures uniform syngas treatment, reducing tar concentration and improving calorific value.
• Integrated Sensor Control System - Enables real-time monitoring of temperature, gas composition, pressure, and electrical parameters.
Rutgers & North Carolina University Food Science
Designed specifically for advanced research and production applications, this innovative system generates Plasma-Activated Water (PAW) with precision and efficiency. The compact unit integrates a high-performance power source (up to 1 kW) and supports PAW production of up to 3 liters per hour, making it ideal for laboratory and pilot-scale operations. Engineered for reliability, scalability, and ease of use, it empowers researchers in food science to explore sustainable solutions and cutting-edge applications for plasma technology.
Rutgers University Food Science
High-Capacity Plasma-Activated Water Production System for Agricultural Research
This advanced Plasma-Activated Water (PAW) system is designed for large-scale experimental applications, providing reliable and efficient plasma treatment for agricultural studies. Equipped with a power source of up to 3 kW, it enables the production of PAW in higher volumes, making it ideal for extensive field trials and greenhouse experiments. This system was successfully utilized for irrigation of research plants in controlled greenhouse environments, demonstrating its potential for enhancing sustainable agriculture and optimizing plant health through innovative plasma technology.
Drexel Plasma Institute
Plasma-Activated Water System for Produce Disinfection, designed for advanced food safety research, this integrated PAW system was developed to explore innovative methods for disinfecting fruits and vegetables. Combining plasma technology with a streamlined PAW generation unit, the system provides efficient and chemical-free disinfection, ensuring enhanced microbiological safety for fresh produce. Tailored for controlled laboratory experiments, it enables researchers to investigate the efficacy of plasma treatment in reducing contaminants while preserving food quality.
Rutgers University Food Science
This Dielectric Barrier Discharge (DBD) plasma system is designed for fog treatment applications, utilizing up to 1 kW power to generate reactive plasma species. The treated gas is then applied to plant foliage, enhancing disinfection and insect protection without the need for chemical pesticides. Engineered for precision and scalability, the system supports advanced agricultural research aimed at improving crop resilience and sustainable farming practices through plasma-based interventions.
Dielectric Barrier Discharge (DBD)
High-Capacity Dielectric Barrier Discharge (DBD) Plasma Reactor for Ozone Generation
This advanced DBD plasma reactor is engineered for large-scale ozone production, utilizing a high-power discharge system to generate significant quantities of reactive oxygen species. Designed for industrial and research applications, it offers efficient ozone synthesis with precise control over plasma conditions, ensuring optimal performance for disinfection, air purification, and chemical processing.
Drexel Plasma Institute
This DBD plasma-based purification system offers an advanced method for regenerating activated carbon, enabling its reuse instead of disposal. By leveraging high-energy plasma reactions, the system efficiently removes contaminants, restoring carbon’s adsorption capacity for secondary applications. This sustainable approach reduces waste and supports environmental conservation, demonstrating the potential of plasma technology in circular economy solutions.
Prototype Breathing System
Prototype Breathing System with UV Disposal for Infection Prevention
This innovative respiratory protection system integrates ultraviolet (UV) disposal technology to actively prevent bacterial and viral transmission. Designed for laboratory biological helmets, it functions bidirectionally - ensuring that healthy users remain protected from airborne pathogens while preventing contagious individuals from spreading bacteria. By utilizing UV sterilization, the system offers an advanced, chemical-free method for maintaining clean air pathways, making it ideal for research, healthcare, and high-containment environments.