EGB-Compact Electric Finger

Replacement for Pneumatic Fingers

Compact Size with High Output Force

Drop Detection

EGB Electric Finger
EGB Electric Finger

Product Specifications

Item Parameters
Model Model RM-EGB-06-6-ITG RM-EGB-06H-16D RM-EGB-06L-20D
Size Code 06 06H 06L
Weight (kg) 0.22 0.22 0.32
Dimensions (mm) 98*38*23.5 98*38*23.5 108*50*27.6
Performance Stroke (mm) 6 6 10
Gripping Force1 (N) 10/20/30/40
(Four levels are optional, and I/O combination triggering requires no parameter adjustment.)
10/15/35/60
(Four levels are optional, and I/O combination triggering requires no parameter adjustment.)
16/30/60/80
(Four levels are optional, and I/O combination triggering requires no parameter adjustment.)
Absolute Position (mm) 0/2/4
(Three levels are optional, and I/O combination triggering requires no parameter adjustment.)
0/2/4
(Three levels are optional, and I/O combination triggering requires no parameter adjustment.)
0/4/8
(Three levels are optional, and I/O combination triggering requires no parameter adjustment.)
Repeat Positioning Accuracy (mm) ±0.02 ±0.02 ±0.02
Max. Opening/Closing Time (s) 0.3/0.3 0.1/0.1 0.18/0.18
Permissible Load Torque (N.m) MR: 1.36, MP: 0.8, MY: 0.68 MR: 1.36, MP: 0.8, MY: 0.68 MR: 2.65, MP: 2.35, MY: 1.65
Control Mode Controller Controller Built-in Controller Built-in Controller Built-in
"-ITG" Series or "-/" Series I/O (NPN) Input 3 Points, Output 3 Points I/O (NPN) Input 3 Points, Output 3 Points I/O (NPN) Input 3 Points, Output 3 Points
"-P" Series / / /
"-RTU" Series I/O (NPN) Input 3 Points, Output 3 Points
Modbus RTU
I/O (NPN) Input 3 Points, Output 3 Points
Modbus RTU
I/O (NPN) Input 3 Points, Output 3 Points
Modbus RTU
"-PRTU" Series / I/O (PNP) Input 3 Points, Output 3 Points Modbus RTU I/O (PNP) Input 3 Points, Output 3 Points Modbus RTU
Operating Environment Rated Voltage (V) DC24±10% DC24±10% DC24±10%
Rated Current (A) 0.3 0.3 0.4
Peak Current (A) 0.6 0.6 0.8
Usage Environment 0~40°C, <85%RH (Without condensation)
Protection Class IP IP40 IP40 IP40
Notes :
1. Please refer to the gripping force within ±15% of the provided value, and the actual clamping performance may vary depending on factors such as the material, surface condition, and clamping point position of the workpiece. The data is based on test results obtained in a 25°C laboratory.
2. The drawings provided in this Catalogue are for the default standard models. If you require other models with different motor directions, outlet directions, or outlet methods, please contact your local sales representative to obtain the drawings for the optional models.

Dimension Drawings

RM-EGB-06-6-1-D0200-ITG-06H-16D-1-D0200
PDF
RM-EGB-06H-16D-2-D0200
PDF
RM-EGB-06L-20D-1-D0200
PDF

3D Model Files

RM-EGB-06-6-1-D0200-ITG
STEP
RM-EGB-06H-16D-1-D0200
STEP
RM-EGB-06H-16D-2-D0200
STEP
RM-EGB-06L-20D-1-D0200
STEP

User'Manual

RobustMotion RM-EGB Product User Manual
User Manual

Frequently Asked Questions

Q1: What are the main features of the RM-EGB Comapct Electric Finger?

RM-EGB compact electric finger is a highly integrated unit with a built-in controller, featuring four preset force levels and three preset stroke levels. Installation and commissioning are simple and require no parameter settings, making it ideal for directly replacing pneumatic grippers of the same compact size.

Q2: What communication/control methods does the RM-EGB Comapct Electric Finger support?

The EGB supports two control methods: I/O and Modbus RTU.

  • For the I/O control method, it provides 3 inputs and 3 outputs, supports NPN or PNP, and offers a wide range of I/O control combinations. Users can directly trigger I/O signals to change preset force, stroke. For example, four preset force levels can be selected directly through I/O, minimizing both learning cost and usage cost.
  • RM-EGB also supports Modbus RTU (485), allowing users to modify the gripper's motion parameters through an upper computer via Modbus RTU communication.

If other communication methods are required, please refer to RobustMotion's other intelligent electric actuator series.

Q3: What does "four force levels available" mean for the RM-EGB Comapct Electric Finger?

Taking RM-EGB-06 as an example, its maximum force is 40 N.

  • In I/O control mode, force can be set to four levels—10 N, 20 N, 30 N, or 40 N—by triggering different I/O combinations.
  • When controlled via Modbus RTU, the adjustable force range is 10–40 N.

Q4: What is the opening and closing speed of the RM-EGB Comapct Electric Finger?

RM-EGB is available in different motion speed specifications. RM-EGB-06H-16D is the high-speed version. Its maximum opening and closing speed is 0.1 s for opening and 0.1 s for closing, which is theoretically faster than pneumatic grippers of the same specification.

Q5: What is the allowable load for the RM-EGB?

The allowable load of the gripper depends on the length of the tooling or fixtures and the weight of the load. Please refer to the product catalog for detailed specifications.

Q6: What kind of motor does the RM-EGB adopt?

Servo motor.

Q7: Does the RM-EGB have a braking function?

No. It does not include a mechanical self-locking (brake) mechanism.

Q8: In the automation equipment industry, can the RM-EGB provide high gripping force in a compact size to reduce equipment footprint?

Yes. RM-EGB delivers high force output in a compact size, making it suitable for applications with space limitations.

Q9: What other advantages does the RM-EGB offer besides high-speed opening and closing?

RM-EGB Comapct Electric Finger not only serves as a direct replacement for pneumatic grippers but also incorporates a drop-detection function that conventional pneumatic grippers do not have. It provides immediate signal feedback whenever a workpiece is not gripped or is dropped.

Q10: What are the main application scenarios for RM-EGB Comapct Electric Finger?

RM-EGB Comapct Electric Finger is used in a wide range of automation applications across industries such as 3C, optics, and medical aesthetics. It is ideal for tasks like synchronized gripping and transferring of electronic components in compact spaces during processes such as loading and unloading.

Applications