Overhead High-Speed Press Robot

No ground space occupation · Dual-speed linkage · Single servo high-efficiency cycle time

Overhead High-Speed Press Robot

Hanging-type, high-speed translational stamping loading and unloading automation equipment; the core adopts 'single servo + synchronous belt/gear dual-stage linkage,' with the mother arm and child arm stacked in the same direction. The end-effector speed is the sum of the two stage speeds, shortening time consumption and improving cycle rate under the same stroke compared to traditional single-stage arm solutions, significantly enhancing operational efficiency. The entire machine is fixed above the press or on a beam, occupying no floor space, making it suitable for compact production layouts with multiple presses in series.

drive method Single servo motor + precision timing belt / gear dual-stage linkage
Speed Ratio Principle Two-stage moving modules nested, reducing cycle time by half (depending on process and program)
Typical Cycle Time Efficient cycle time of approximately 2–4 seconds/cycle (thinner sheets and small parts can achieve shorter cycles).
Arm Extension Stroke Common adjustable range approx. 1.5~2.5 m (non-standard expansion available)
repeatability positioning PLC + servo closed-loop, repeat positioning accuracy about ±0.02 mm
End effector Vacuum suction cup (sheet metal) / Pneumatic gripper (irregular parts), supports quick change
Installation Method Mounted above the press or beam
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Product Details

speed ratio mechanism:In a traditional single-segment arm, the full stroke corresponds to one travel time, with the speed limit constrained by the mechanism. The high-speed solution uses nested two-segment modules and single-drive synchronous actuation; when the main arm moves, the sub-arm slides in the same direction, making the end-effector's combined speed the sum of the main and sub-arm speeds. This significantly reduces cycle time for the same transfer distance. Data example: When the extension is approximately 1.7 m, a single pick-and-place can be as low as approximately 2.3 seconds (subject to actual project commissioning).

Structural Composition:The lifting frame bears the entire machine load and aligns with the production line; the drive unit centers on a single servo, balancing energy consumption and cost; the two-stage telescopic arm mostly uses high-strength aluminum alloy, balancing lightweight design and rigidity; the control system collaborates between PLC and servo drives, supporting multi-axis linkage and cycle time optimization. It can replace manual labor for highly repetitive and high-risk tasks such as loading and unloading, while servo closed-loop control helps reduce impact and positioning errors.

Applications and upgrades:Suitable for multi-station connection of 3 to 8 presses or hydraulic presses, covering processes such as 'blank feeding—drawing—forming—cutting off'; also suitable for high-speed continuous stamping of thin plates and small parts (such as battery shells, terminals, etc.); old production lines can directly replace manual labor, reducing manpower investment per shift; the specific payback period depends on production volume and labor costs.

Solution Description:Transfer stroke, rhythm, and gripper form are customized according to product shape, weight, and press center distance; front-end can be connected to coil unwinding, leveling, feeding machine, or other loading forms; supports safety interlock and extended diagnostic interfaces, special specifications can be customized.

Technical parameters and comparison highlights

Drive and Transmission Single servo motor; precision synchronous belt / gear two-stage linkage (mother arm + son arm same-direction superposition)
Operating cycle (reference) Efficient cycle time is approximately 2~4 seconds/cycle; conventional single-stage solutions are typically 5~8 seconds/cycle (related to mold, stroke, and travel, with process evaluation as a reference).
Extended Arm Stroke (Reference) Commonly adjustable about 1.5~2.5 m, can be extended or shortened according to project needs
Repeatability positioning accuracy Approx. ±0.02 mm (servo closed-loop, load and speed related)
End execution Vacuum suction cups / pneumatic grippers, modular interchangeability, suitable for various products
control system PLC + servo drive, adjustable HMI parameters, supports cycle optimization
Installation Layout Mounted above the press or horizontal beam, it does not occupy floor space or large lateral areas of workstations.
Energy Consumption and Maintenance Single-servo routing helps control energy consumption; the structure is relatively simplified with concentrated maintenance points. Specific comparisons depend on the model.
Typical Industries Automated production lines for automotive, home appliance, 3C, and new energy sheet metal and small press parts
Special specifications Customizable stroke, cycle time, gripper, and line interface

Comparison with Traditional Single-Axis Robot (Summary)

comparison item Traditional single-axis press robot Overhead High-Speed Press Robot
drive method Multi-servo or Pneumatic Combination Single servo + synchronous belt dual-section linkage structure
Motion Speed Cycle Time: Approximately 5~8 seconds Doubled speed range approximately 2~4 seconds / cycle
Installation Method Floor-standing or side-hung, occupying floor or side space Hanging Installation, No Floor Space Occupied
Energy Consumption Level Relatively high Material consumption can be reduced by approximately 30% or more compared to traditional solutions (depending on configuration and operating conditions).
Maintenance and Return on Investment Maintenance cost and cycle vary by model Simplified structure, easy maintenance; documentation recovery cycle can be shortened to about 3-4 months (based on production volume and manpower)

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