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Plasma Technology

Advanced Thermal Technology

High-Temperature Matter Transformation for Waste Management

Plasma Illustration

Our Technology

Our advanced indigenous technology uses superheated thermal energy, similar to the intense heat found in nature's most powerful phenomena.

At temperatures exceeding 3000°C, ordinary matter transforms, creating an environment where complex molecular structures break down into their basic elements. This ultra-high temperature state allows for complete decomposition of waste materials without traditional combustion.

Unlike ordinary combustion, this process operates in an oxygen-starved environment, making it an incredibly powerful tool for waste processing. The extreme heat enables us to break down even the most complex and hazardous waste materials safely and completely.

Advanced Gasification Process

Our gasification is a non-incineration thermal process which uses extremely high temperatures in an oxygen starved environment to completely decompose waste material into very simple molecules.

Minimal Segregation Required

A VERY SMALL AMOUNT OF SEGREGATION OF (WET / DRY PLASTICS) IS REQUIRED IN THIS PROCESS.

Clean & Commercial Outputs

The process produces a clean combustible gas and a non-toxic, inert slag, both of which have commercial value. The project produces Electricity and Hydrogen which can be used in many ways.

Gasification Process Flow

Waste Input

MSW, Plastic, Biomedical, Hazardous Waste

Reaction Chamber

3000°C+ Temperature
Oxygen-Starved Environment

From Waste to Energy

Follow the complete transformation process

01
Waste Input Stage

Waste Input

MSW, plastic, biomedical, and hazardous waste received and sorted

02
Reaction Chamber

Reaction Chamber

Waste gasified at 3000°C+ in oxygen-starved environment

03
Syngas Production

Syngas Output

Clean, hydrogen-rich syngas produced

04
Energy Generation

Energy Generation

Electricity produced and distributed to grid

95% Waste Conversion
3000°C Operating Temperature
-31 kg CO₂ per Ton MSW
Zero Harmful Emissions

Benefits of the Project

Electricity from Syngas

Clean, renewable energy generation from waste-derived syngas with net positive energy output

Decomposition of Waste into Hydrogen-Rich Fuel Gas

Complete breakdown of complex waste materials into simple, valuable hydrogen-rich syngas

Eco-Friendly Disposal of Waste

Zero harmful emissions, no dioxins, no furans - the cleanest waste disposal technology available

Large Volume Reduction

The slag is 1/250th of the volume of the processed solid waste - massive reduction in residue

Slag (Usable as Construction Material)

Vitrified, inert slag can be used as road/building material - complete waste-to-value conversion

Heat Recovery Options

Additional energy capture through heat recovery systems for maximum efficiency

Reduction of Landfill Waste

95% waste diversion eliminates landfill dependency and associated environmental hazards

Green Energy Contribution

Contributing to India's renewable energy targets and Green Hydrogen Mission

Sustainability and Circular Economy Approach

Complete waste-to-value transformation supporting circular economy principles

Reduces Greenhouse Gas Emissions

-31 kg CO₂ per ton of MSW processed - negative environmental impact proves exceptional eco-friendliness

Eliminates Harmful Dioxins & Furans

Zero carcinogenic compounds released - protecting public health

Creates Local Jobs & Green Economy Opportunities

Employment generation with 50% women workforce target under Nari Shakti Mission 2047

Emission Standards Compliance

Emission Standards Chart Compliance Metrics

All emissions meet or exceed government standards (CPCB guidelines)

Advantages of Advanced Thermal System

01

High Diversion Rate: 95%

Industry-leading waste conversion efficiency

02

Vitrified Slag Production

Non-toxic, inert slag for construction use

03

No Segregation Required

Minimal waste sorting - processes mixed waste streams

04

Safe Disposal Of Hazardous Waste

Can safely process dangerous materials

05

Dioxin And Furan Mitigation

Zero carcinogenic compounds released

06

Clean Air Emissions

Meets all CPCB emission standards

07

Low Carbon Footprint

Negative CO₂ impact per ton processed

08

Biomass Gasification

Handles diverse organic waste streams

09

Industrial Waste Utilization

Processes complex industrial waste

10

Hazardous Waste Treatment

Complete destruction of toxic materials

11

Environmental Sustainability

Contributing to SDG goals and green missions

12

Versatile Industrial Application

Scalable for various capacities (10TPD)

Safety Measures

Our Advanced Gasifiers use extremely high temperatures to convert waste into syngas and by-products like slag. Ensuring safety during their operation is critical due to the hazardous materials and high-energy processes involved.

Temperature Control and Monitoring

Thermal Emitters: The gasifiers operate at temperatures exceeding 3,000°C, requiring robust control systems to avoid overheating or malfunction of the heating elements.

Thermal Insulation: Proper insulation and cooling systems prevent heat from damaging the plant infrastructure.

Air Quality and Emission Control

Gas Filtration: Advanced filtration systems, including scrubbers and filters, capture pollutants like particulate matter, sulfur dioxide, and heavy metals from the syngas.

Real-time Monitoring: Continuous emission monitoring systems (CEMS) ensure pollutants are within safe limits.

Pressure Control

Sealed Systems: Gasifiers operate in a sealed environment to maintain specific pressures. Overpressure can cause explosions.

Pressure Relief Systems: Sensors and relief valves ensure safe venting in case of pressure build-up.

Key Challenges & Solutions

High Energy Demand

Advanced thermal systems require significant electrical power to maintain 3000°C+ temperatures.

Our Solution

Discussion is being done with Purvanchal Vidyut Vitran Nigam Ltd, Uttar Pradesh for making the availability of input power supply at a subsidised rate. Net energy output (2.4 kWe per kg plastic) ensures positive energy balance.

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Syngas Cleaning Requirements

Requires careful syngas cleaning to avoid toxins and ensure clean energy output.

Our Solution

As part of start-up project, the manpower hiring will be done on the basis of suitable qualification and needful experience related to plant operation. Training provided by CSIR-CMERI guidelines ensures proper operation and maintenance.

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Dioxins & Furans: The Cancer Solution

The dioxins and furans generated in case of waste disposal is the major source of human cancer, and unlike others our advanced technology is the solution to avoid cancerous growth and other animal/human diseases.

Impact

This ROI is measured by nobody which has to be taken care of. Based on this current technology we can improve AQI and control air pollution in Varanasi and protect public health.

Output Products

Syngas

Hydrogen-Rich Syngas

Clean fuel for electricity generation and future hydrogen production

Electricity

Electricity

Immediate power generation with net positive energy output (2.4 kWe per kg plastic)

Slag

Vitrified Slag

Inert, non-toxic material usable in construction industry - 1/250th of original waste volume