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Home > Products > Hyulim Robot Range of Products > Hyulim Cartesian Robot
Looking for a Hyulim Cartesian robot in India for pick-and-place, component transfer, dispensing, machine loading, assembly or inspection automation? Orbital Mekatronik supplies Hyulim Cartesian robot systems for controlled linear movement across one or more axes. Available configurations support compact applications, long-stroke movement, clean manufacturing and high-payload industrial handling.
We support machine manufacturers, automation integrators, equipment builders and industrial plants with Cartesian robot selection, axis configuration, payload evaluation and commercial quotations. Hyulim’s official industrial robot portfolio includes DRG and DRGC Cartesian robot families along with additional actuator, linear, transfer, controller and automation products.
Share the required number of axes, X-Y-Z stroke, component weight, end-effector weight, movement speed, repeatability and installation orientation. Our team will help shortlist a suitable Hyulim Cartesian robot configuration for technical evaluation.
Need Hyulim Cartesian robot pricing or help selecting the correct model? Share the movement stroke for each axis,
payload including tooling, required speed, cycle time, repeatability, mounting orientation and project quantity for a suitable quotation.
Get support for single actuators, multi-axis arrangements, clean configurations, controllers and project-based robot requirements.
A Cartesian robot can move a component or tool through programmed linear coordinates.
Depending on the selected axes and end-effector, it can be used for:
A Cartesian robot may be preferred when the application requires:
A SCARA robot may be preferred for high-speed horizontal movement, compact assembly and repetitive pick-and-place within a circular working area.
The decision should be based on the actual movement path, payload, cycle time, installation space and required flexibility.
Stroke and Working Range
Specify the actual travel required for every axis: X-axis stroke, Y-axis stroke, Z-axis stroke, Rotary-axis angle, when required. Allow additional movement for product clearance, acceleration, tooling and machine access.
Payload
The robot payload must include: Product weight, Gripper or end-effector, Tooling, Sensors, Cables and fittings carried by the axis, Any moving fixture. Vertical-axis payload capacity may be lower than horizontal capacity, so the mounting direction must always be stated.
Speed and Cycle Time
Maximum published speed does not automatically represent the achievable production speed. Actual cycle time depends on: Travel distance, Payload, Acceleration, Deceleration, Settling time, Number of stops, Tool operation, Product-handling time.
Repeatability
Repeatability indicates how consistently the robot can return to a programmed position. The required value should be defined according to the actual process. General transfer, precision insertion, inspection and dispensing applications may require different levels of repeatability.
Mounting Orientation
Confirm whether each axis will operate: Horizontally, Vertically, Wall-mounted, Inverted, As an overhead gantry. Payload, stroke and speed must be checked for the intended orientation.
Drive and Motor Configuration
Depending on the selected family and application, the configuration may vary by: Ballscrew lead, Motor capacity, Straight or parallel motor arrangement, Encoder type, Stroke, Speed requirement, Load direction. The complete model code should be confirmed before ordering.
Operating Environment
State whether the robot will operate in: General manufacturing, Clean manufacturing, Dust-controlled equipment, High-cycle production, Laboratory equipment, Enclosed machinery. Cleanroom, dust-protection or special environmental requirements must be confirmed for the exact selected model.
Provide the following details:
Do not select a Cartesian robot only by stroke and maximum payload. Axis orientation, overhang, inertia, tooling weight, acceleration, duty cycle and structural support must also be evaluated.