A Special Purpose Machine (SPM) is engineered specifically for your manufacturing process, not adapted from a standard design. It is developed based on your product configuration, process flow, required cycle time, and production volume. As a result, critical operations like insertion, crimping, and testing are precisely controlled, enabling consistent cycle times, reduced reliance on manual skills, and stable, repeatable production across shifts.
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A Special Purpose Machine (SPM) is a custom-built automation system designed for a specific manufacturing process such as assembly, testing, insertion, or inspection. It is required when manual processes become inefficient, inconsistent, or unable to meet production volume and quality targets.
Yes. SPMs are fully customized based on your component design, process flow, cycle time targets, and production volume. Each system is engineered to match your exact manufacturing requirement.
SPMs can automate a wide range of operations including connector assembly, terminal insertion, wire harness processing, testing, inspection, material handling, and robotic pick-and-place tasks.
SPMs reduce manual intervention, stabilize cycle time, and ensure repeatable output. This increases throughput per operator, reduces downtime, and improves overall production efficiency.
Yes. SPMs are widely used in EV, automotive, aerospace, and electronics industries where precision, repeatability, and process control are critical for production quality.
Yes. SPMs can be designed with modular tooling, programmable controls, and quick-change mechanisms to handle multiple product variants with minimal changeover time.
SPMs ensure controlled operations such as insertion force, positioning, and testing. This eliminates operator variation and reduces defects such as misalignment, loose connections, and incorrect assembly.
Yes. SPMs can be integrated as standalone stations or into existing production lines with conveyors, robotic systems, and testing stations for seamless workflow.
Lead time depends on complexity and customization level. It typically includes design, manufacturing, assembly, testing (FAT), and commissioning stages, ranging from a few weeks to several months.
SPMs reduce manpower dependency, improve production speed, minimize rework, and ensure consistent quality. This leads to lower cost per unit and faster return on investment, especially in high-volume manufacturing.