Equipment · Facility · Process Technology

Our advanced recycling equipment and engineering environment

North Volt Cycle develops integrated photovoltaic recycling systems combining robotics, automation, precision dismantling, and intelligent material recovery — engineered from process validation through industrial pilot infrastructure.

Our integrated recycling platform combines automated dismantling systems, robotic handling, modular process engineering, and intelligent material recovery technologies designed for next-generation photovoltaic recycling infrastructure.

Robotics
Automation
Material Recovery
Sustainability
Engineering Systems
Industrial Operations

Inside the engineering environment

An integrated photovoltaic recycling line combining automated physical treatment and high-temperature decomposition — engineered for high recovery yield and stable industrial operation.

North Volt Cycle solar panel recycling process flow — 22-step industrial line with recovered materials
System 01

PV Panel Physical Treatment Equipment

Automated dismantling and material separation system designed for high-efficiency recovery of aluminum, glass, silicon, and valuable photovoltaic materials through controlled mechanical processing.

System 02

PV Panel High-Temperature Decomposition Equipment

Thermal decomposition and purification system engineered for advanced photovoltaic material recovery under environmentally controlled processing conditions with integrated off-gas treatment.

CANADIAN TECHNOLOGY
Engineered for a sustainable future
  • Fully Automated
    Robotics and intelligent control for stable, continuous operation.
  • High Recovery Rate
    Engineered for efficient photovoltaic material recovery.
  • Modular Engineering
    Flexible, scalable industrial architecture.
  • Industrial Safety
    Integrated safety and environmental control systems.
  • Sustainable Processing
    Low-emission and circular-economy focused operations.
  • Canadian Technology
    Engineered for international clean-tech deployment.
Facility & Process

Industrial infrastructure for advanced photovoltaic recycling

Integrated industrial infrastructure and advanced process systems engineered for scalable photovoltaic recycling and material recovery.

North Volt Cycle integrated PV panel recycling facility — physical treatment and high-temperature decomposition lines

North Volt Cycle's facility and process systems integrate intelligent automation, modular engineering and advanced material recovery technologies designed to support scalable photovoltaic recycling operations and sustainable industrial processing.

Integrated Process Systems

Seamless coordination between dismantling, sorting and recovery operations.

Industrial Automation

Advanced handling and process-control systems designed for operational efficiency.

Scalable Infrastructure

Modular engineering architecture supporting future industrial expansion.

Sustainable Processing

Environmentally responsible processing systems supporting circular-economy objectives.

Engineering Narrative

From engineering environment to industrial deployment

The path from a process concept to a deployable industrial recycling line runs through disciplined development, instrumented validation, and integrated automation. Each stage below describes how North Volt Cycle structures that path.

Engineering Environment

Engineering Development Environment

Our engineering environment is structured around the disciplined development of industrial recycling equipment — mechanical design, electrical integration, control systems, and process instrumentation are advanced together rather than in isolated silos.

Cross-functional engineering teams iterate on equipment modules through CAD design, sub-system prototyping, and bench validation before each module progresses to integrated pilot testing. The environment is designed to support staged industrialization, not single-shot demonstration.

Process Validation

Process Validation

Every process module — mechanical separation, robotic dismantling, sorting, recovery — is validated against defined throughput, recovery yield, energy intensity, and reliability targets. Test campaigns are instrumented to quantify performance, not narrated.

Validation campaigns evaluate variation across module makes, generations, and field conditions, ensuring the process is robust against the heterogeneous feedstock characteristic of real end-of-life PV streams.

Pilot Infrastructure

Industrial Pilot Infrastructure

The pilot infrastructure bridges bench prototypes and full industrial deployment. Pilot-scale lines integrate intake, dismantling, separation, and recovery modules under industrial duty cycles to surface integration, safety, and reliability questions before commercial scale-up.

Pilot operation also produces representative recovered material — glass cullet, aluminum profiles, copper concentrate, silicon/silver-bearing concentrate — for qualification with downstream refiners and secondary-material buyers along the commercialization pathway.

Manufacturing Research

Applied Manufacturing Research

Applied manufacturing research focuses on the questions that determine whether a process will scale: cycle-time stability, tooling life, maintenance accessibility, supply-chain manufacturability of sub-assemblies, and the cost trajectory of recovered materials at industrial volume.

Findings feed directly back into equipment engineering, closing the loop between process research and the equipment portfolio.

Automation Integration

Integrated Automation Systems

Mechanical, electrical, and control sub-systems are integrated under a unified industrial automation architecture — PLC-based equipment control, SCADA-level supervisory control, and a data layer for analytics and reporting.

AI-assisted models for sorting, predictive maintenance, and yield optimization run on top of this automation backbone, supporting continuous performance improvement across the line.

CANADIAN TECHNOLOGY
|
CIRCULAR ECONOMY
|
ADVANCED ENGINEERING
|
INDUSTRIAL AUTOMATION
|
GLOBAL CLEAN-TECH SOLUTIONS