The Science Behind E-Beam

Understanding how compact electron beam accelerators transform contaminated water into clean, safe resources.

How E-Beam Technology Works

Electron beam accelerators generate high-energy electrons that break molecular bonds in organic contaminants, converting them into simple, harmless compounds like water, carbon dioxide, and mineral salts.

1

Energy Transfer

High-energy electrons (<10 MeV) are generated by compact industrial accelerators and directed into the treatment medium.

2

Radical Generation

Electrons interact with water molecules to produce hydroxyl radicals and solvated electrons — powerful oxidizing and reducing agents.

3

Bond Destruction

These reactive species attack carbon-fluorine, carbon-carbon, and other molecular bonds, breaking down contaminants at the molecular level in nanoseconds without bulk heating.

4

Mineralization

Complex organic molecules are converted to simple inorganic compounds: CO2, H2O, F-, and mineral salts—completing the destruction process.

Key Advantages

No Secondary Waste, Broad Spectrum

Unlike other emerging solutions, e-beam treatment destroys contaminants rather than just isolating them. Effective against pharmaceuticals, pesticides, VOCs, and recalcitrant compounds including PFAS.

Energy Efficient

Compact e-beam accelerators deliver targeted energy precisely where needed, minimizing operational costs with dispatchable operations that ramp in accordance with demand.

Scalable Design

Modular systems can be configured for flow rates from small-town plants to large metropolitan systems handling hundreds of millions of gallons per day.

In-Situ Operations

e-beam treatment can be integrated directly into GAC systems, obviating media removal for reactivation, reducing CAPEX and OPEX dramatically.

Technical Specifications

Our compact industrial electron beam accelerators are engineered for continuous, reliable operation in critical treatment environments.

Accelerator Parameters

Electron Energy<10 MeV
Beam PowerUp to 1 Mw
Beam CurrentUp to 50 mA
Pulse RateContinuous (CW) operation

System Dimensions

Accelerator Footprint3m x 6m typical
Shielding RequirementsIntegrated, containerized or vault-based
Treatment ChamberCustomized to application
Control SystemsIntegrated Supervisory Control and Data Acquisition (SCADA) Interface

Operational Parameters

Treatment Capacityconfigurable to 100's lbs/minute
Dose RangeKGray to MGray
Uptime>95% availability
Power Efficiency>75% wall-plug efficiency