JCZ develops industrial laser control systems for machine builders, automation integrators, and manufacturers that need to coordinate laser sources, galvo scanners, motion axes, I/O, vision, and production data within one processing platform.

The JCZ control system range covers standard 2D laser marking, advanced 3D marking, flying coding, laser cutting, galvanometer welding, deep engraving, additive manufacturing, large-format laser processing, robotic processing, and multi-galvo production.

Which JCZ Laser Control System Fits Your Application?

What Is Included in a Laser Control System?

A complete laser control system is more than a control board. Depending on the machine, the control architecture may coordinate software, controller hardware, laser source, scanner, motion system, sensors, vision, and factory automation.

This distinction is important when comparing systems. A machine builder should evaluate the whole control architecture rather than comparing only controller-card specifications.

EZCAD2 or EZCAD3: Which Control Architecture Should You Choose?

The current JCZ architecture uses EZCAD2 with LMC-series controllers for established general laser processing systems and EZCAD3 with DLC-series controllers for projects requiring more advanced processing, motion, 3D functions, or automation.

Choose EZCAD2 + LMC when the machine primarily requires established 2D marking, engraving, variable data, and standard industrial integration.

Choose EZCAD3  + DLC when the project requires dynamic focus, 3D processing, more advanced motion, Ethernet architecture, higher-level production integration, or a more expandable machine platform.

For an equipment retrofit, do not change systems solely because one platform offers more functions. Existing controller wiring, laser interface, scanner, software files, and machine PLC logic should be reviewed first.

Laser Marking Control Systems

For standard industrial marking, the main decision is whether the machine requires a conventional 2D control architecture or a more expandable automation platform.

EZCAD2 with LMC-series hardware is suitable for general laser marking equipment using common fiber, CO2, UV, YAG, or SPI laser configurations. Functions include vector and bitmap processing, variable text, barcode and QR-code generation, I/O control, scanner calibration, parameter layers, and optional flying marking or secondary development.

EZCAD3 should be evaluated when the machine requires:

• Advanced motion expansion;
• 2.5D or 3D processing;
• Dynamic focus;
• Complex automation;
• Advanced scanner integration;
• Multi-head processing;
• More sophisticated production workflows.

Flying Laser Coding Systems: J2000 or MINI02?

For moving production lines, a dedicated coding system may be more appropriate than configuring a conventional standalone marking workstation.

J2000 should be evaluated when communication, production-line coding, and dedicated industrial coding logic are important. MINI02 provides a Windows-based architecture and additional USB/I/O resources in its current configuration.

For either system, final selection should include conveyor speed, encoder method, product spacing, trigger logic, marking content, and laser type.

Laser Cutting Control System

JCZ’s cutting system combines laser-process control with machine motion rather than treating cutting as a scanner-only operation.

The MCS-F direction should be considered when the machine requires cutting-path control, CAD/CAM functionality, machine axes, and production I/O within the same architecture.

Galvo Laser Welding Control System

JCZ’s galvanometer welding system is designed for medium- and high-power welding applications where the scanner, laser, motion axes, and machine-control logic must operate together.

Depending on the configuration, the control architecture can support graphic-path processing, vision-assisted teaching, multiple graphics files, wobble patterns, gradual power control, power curves, I/O, motion control, and machine-vision positioning.

For dedicated high-power welding, the DLC2PCIE-QCW controller is designed around PCIe communication and can support encoder, digital I/O, waveform-control, and laser-safety functions. Dedicated configurations can also be used for dual-beam power control depending on the laser architecture.

This system direction should be evaluated when the project requires:

• Wobble welding;
• Dual-beam laser control;
• Multi-station welding;
• Vision positioning;
• Automated welding paths;
• Coordinated machine motion.

2.5D Deep Engraving Control System

JCZ’s 2.5D engraving architecture combines EZCAD3 software, suitable DLC control hardware, a digital galvo scanner, and Z-direction motion.

Unlike conventional surface marking, deep engraving requires coordination between repeated layer removal, scanner movement, focus position, and Z-direction processing.

This system is suitable for applications such as:

• Mold engraving;
• Metal relief engraving;
• Hardware components;
• Nameplates;
• Deep text and pattern engraving.

Before configuration, define the material, target engraving depth, processing field, desired surface finish, laser source, scanner configuration, and acceptable processing cycle time.

Laser Additive Manufacturing Control System for SLA, SLM and SLS

JCZ’s DLC-3DP architecture is a control platform designed to coordinate the key components required by a laser additive-manufacturing machine. It is not a complete 3D printer.

The correct system should be selected after confirming the printing process, build area, laser source, scanner, Z/build-platform architecture, auxiliary axes, sensor list, and software-development requirements.

Hercules for Robotic and Complex 3D Laser Processing

Hercules is intended for projects that cannot be solved efficiently with a stationary galvo and a simple motion stage.

The system integrates 3D laser processing + robot control + 3D machine vision and can be used for laser marking, cutting, welding, and other processing tasks on large, irregular, or complex three-dimensional workpieces.

Hercules is especially relevant when the workpiece has:

• Complex curved surfaces;
• Multiple processing angles;
• Large physical dimensions;
• Frequent product variation;
• Processing areas that a stationary scan head cannot reach.

Large-Format Laser Processing with ZEUS

ZEUS  combines galvanometer control with machine-platform motion for processing areas larger than a conventional single scanner field.

This architecture is suitable for large-format processing where the workpiece exceeds the practical single-field scanner area or where scanner speed must be combined with longer-range platform motion.

Typical applications include PCB, glass, display, metal, and other large-format laser processing.

Multi-Galvo Processing for Higher Throughput

Multi-galvo processing is relevant when production capacity cannot be achieved efficiently with one scanner head.

Single Laser + Multiple Galvos
A beam-splitting architecture can divide one laser source into multiple optical paths so several scanner heads process simultaneously. This direction can be useful when multiple identical products or processing areas must run at the same time.

Multiple Lasers + Multiple Galvos
Each scanner head can use its own laser configuration, while multiple controllers are coordinated from one control system. This is better suited to high-throughput production where each processing station needs independent laser power.

Vision Positioning for Automated Laser Processing

For products that cannot be positioned reliably with fixed fixtures, JCZ laser control systems can be combined with machine vision for recognition, positioning, and automated processing.

Current JCZ solution directions include:

• Large-field coaxial vision;
• Coaxial vision;
• Paraxial single-camera vision;
• Paraxial dual-camera vision;
• Barcode recognition;
• Edge detection;
• Processing inspection.

Vision positioning is useful when product position or orientation varies, when small components require high-precision alignment, or when recognition and laser processing must operate in the same automated workflow.

SDK and Software Integration for OEM Equipment

Machine builders do not always want operators to work directly inside the standard EZCAD interface.

The EZCAD SDK allows compatible JCZ control functions to be integrated into proprietary machine software and industrial automation applications.

Typical development projects include:

• Custom machine HMI;
• Automated serial-number marking;
• MES-connected manufacturing;
• PLC-triggered processing workflows;
• Database-driven marking;
• Vision integration;
• Multi-station control;
• Automatic job loading and production-data exchange.

JCZ Laser Control System FAQ

What is the difference between a laser controller and a laser control system?
A laser controller is one hardware component. A complete laser control system can include software, controller hardware, laser interface, galvo control, motion axes, I/O, encoders, vision, and automation communication. For a machine project, determine the system architecture first and then select the controller.

Should I use EZCAD2 or EZCAD3 for a new machine?
EZCAD2 is suitable for many standard 2D industrial marking machines. EZCAD3 is the stronger direction when a project requires 3D or dynamic-focus processing, expanded motion, Ethernet architecture, or more complex automation. Existing-machine compatibility should still be checked before changing platforms.

Can one JCZ system control different laser types?
Different JCZ platforms can support multiple laser types, but compatibility depends on the controller, interface, and exact laser model. Provide the laser manufacturer, model, wavelength, power, and interface before configuration.

Which system should I choose for a conveyor production line?
For dedicated flying coding, compare J2000 and MINI02. For a more customized automated marking system, an EZCAD2 or EZCAD3 controller architecture may be appropriate. Conveyor speed, encoder, trigger method, product spacing, marking content, and laser type determine the final selection.

Which JCZ system is suitable for laser welding?
For galvanometer welding, evaluate the JCZ welding-control architecture, including dedicated DLC2PCIE-QCW and compatible welding configurations. Laser type, beam architecture, wobble pattern, vision, motion axes, and number of production stations should be defined first.

Can JCZ control robotic laser processing?
The Hercules architecture combines robot control, 3D machine vision, and laser processing for applications such as marking, cutting, and welding on complex three-dimensional parts.

Does JCZ provide a control system for SLM, SLA, or SLS machines?
Yes. DLC-3DP is designed for SLA, SLM, and SLS control architectures and coordinates software, laser, galvo, motion, I/O, and sensor-related functions. It is a control platform rather than a complete 3D printer.

Can I integrate JCZ control functions into my own software?
JCZ provides EZCAD SDK options for compatible hardware. The exact controller, EZCAD version, programming environment, API requirements, and optional libraries should be confirmed before development.

Can JCZ support vision positioning?
JCZ provides multiple vision-positioning architectures, including coaxial and paraxial solutions. Selection depends on workpiece dimensions, positioning accuracy, visible features, field of view, and production speed.

Build the Control System Around Your Laser Process

The correct laser control system is the one that coordinates the processing task, laser source, beam delivery, motion, machine I/O, vision, and production workflow without adding unnecessary complexity.

For a conventional marking station, EZCAD2 with an LMC controller may be sufficient. For 3D processing, automation, high-power welding, additive manufacturing, large-format processing, multi-galvo production, or robotic processing, a dedicated JCZ architecture should be evaluated as a complete system.

Contact JCZ for Laser Control System Selection & Quotation