ZhilianhaiSMC Corporation: Collaborative Robot Grippers and Vacuum Systems
Company identity and automation scope
The SMC corporate summary identifies SMC Corporation, established in 1959, with its head office in Tokyo, Japan. Its business includes automatic control equipment. For robotics procurement, this profile focuses on end-of-arm tooling and associated control interfaces. A gripper, adapter or regional sales entity is not counted as a separate robot company.
Gripper technologies in the portfolio
The collaborative robot product overview includes pneumatic, electric and vacuum gripping options, elastic fingers, adapters and tool changers. These technologies suit different workpiece requirements. Start with material, geometry, surface condition and acceptable contact marks. Mechanical gripping and suction should be evaluated against the actual part rather than selected solely from a robot manufacturer's name.
Electric vacuum gripping without an air line
The ZXPE5 series integrates a vacuum pump, release valve, pressure monitoring and suction cups, allowing operation without an external compressed-air source. Its product page explicitly conditions workload on cup diameter, mounting orientation and the workpiece. Obtain the selected arrangement's holding assessment: a catalogue maximum is not proof that a porous, oily, flexible or irregular part can be handled reliably.
Robot-specific integration options
The regional web catalogue lists options associated with robot families such as FANUC CRX, MELFA ASSISTA, TM and Universal Robots, alongside the LEHR electric gripper family. Compatibility must be confirmed for the full part number and controller version. Check flange geometry, adapters, electrical supply, communication and the required plug-in. A manufacturer logo on an overview does not establish compatibility with all of that manufacturer's robots.
Evidence available to a buyer
The reviewed sources are product and integration documentation; they do not establish a named customer's production savings or a guaranteed cycle rate for the proposed cell. Request an application demonstration using the actual parts, including tolerance extremes and surface variation. Record failed picks, released parts, detection of incomplete grips and operator intervention. This turns product availability into evidence about the specific handling task without inventing a deployment reference.
Cell integration and acceptance
Include gripper, fingers, adapters and cables when calculating the load carried by the robot. Provide pickup and placement orientations, accelerations, clearances and the expected tool-change sequence. Define how the system confirms a successful grip before moving and how it responds to a failed pick or interrupted supply. The robot, tooling, fixtures and workpiece must be evaluated as one application, including any intended human access and maintenance tasks.
Documentation, service and commercial scope
The LEHR installation and maintenance document is an example of configuration-specific operating information. Obtain the current manual for the ordered hardware and associated robot interface, rather than use a similar model's instructions.
Are fingers, cups, adapters, valves and cables included in the supplied assembly?
Which controller software and integration support are included?
What inspection intervals, replacement items and local parts availability apply?
Who resolves a fault involving both the robot controller and the gripper?
Separate initial tooling cost from compressed air or electrical consumption, consumable cups and changeover work. Ask for sample testing and a written scope before adopting an assumed payback period.
Preparing the tooling enquiry
Compare SMC in Components, Control & AI. Use the Robotics Buyer Brief to attach part drawings, samples, orientation and robot details. The Robotics RFQ guidance helps set common test parts, acceptance measures and responsibilities for a complete end-of-arm tooling proposal.