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Optimized Performance
Lightweight and resilient robotic tooling improves movement speed, positioning accuracy and repeatability while reducing the load placed on the robot.
Speed and precision
Robotics and Additive Manufacturing
Advanced End-of-Arm Tooling Solutions
Rheologist Gaze and Solutions develops lightweight, resilient and application-specific EOAT systems that enhance robotic handling, automation and advanced 3D printing processes.
Lightweight EOAT
Improved robot speed, precision and payload utilization
Application-Specific
Designed for the actual production environment
EOAT Engineering
Connecting robotic systems with the manufacturing environment
End-of-Arm Tooling is the interface between a robotic arm and the component, machine, fixture or process with which the robot must interact.
At Rheologist Gaze and Solutions, we design EOAT systems using lightweight structures, resilient materials, mechanical components, sensors, electrical systems and advanced 3D printed fabrication techniques.
Reduced EOAT weight
Lightweight designs reduce robotic payload demand
and improve acceleration, speed and energy efficiency.
Reliable component handling
Grippers and contact surfaces are designed for
accurate, repeatable and damage-free product handling.
Integrated engineering support
Mechanical design, electrical integration and
additive manufacturing are managed as one solution.
Key Features
EOAT systems engineered for performance and flexibility
Our solutions are designed to improve robotic efficiency, process accuracy and the ability to adapt automation to complex production requirements.
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Customized EOAT Design
Each EOAT is developed according to the component geometry, gripping location, payload, machine interface and production environment.
Application-specific design03
3D Printed Fabrication
Advanced additive manufacturing enables lightweight structures, complex internal geometry, rapid modifications and faster production of customized tooling.
Rapid manufacturing04
Resilient Construction
Materials and structural designs are selected to withstand repeated robotic movement, operating loads, vibration and industrial production conditions.
Industrial durability05
Mechanical Integration
Grippers, vacuum systems, fingers, brackets, adapters and moving mechanisms are designed as a fully integrated mechanical system.
Complete mechanical system06
Electrical Integration
Sensors, switches, control boards, pneumatic valves and electrical connections can be incorporated for reliable automation and process feedback.
Smart system integrationOur Expertise
Multidisciplinary engineering from concept to implementation
Our engineering team combines robotic tooling, mechanical development, electrical integration and additive manufacturing expertise to create complete EOAT solutions.
EOAT Engineering
Development of gripping, holding, picking, placing, positioning and process-specific robotic end effectors.
Mechanical Design and Development
Complete design of parts, assemblies, interfaces, brackets, fingers, mechanisms and lightweight structures.
Electrical Board Integration
Integration of sensors, switches, wiring, control boards and communication components into the EOAT assembly.
Advanced 3D Printing
Fabrication of complex and lightweight EOAT components using additive manufacturing and engineering materials.
Product Interaction Design
Contact surfaces are engineered to handle products accurately without deformation, scratches or damage.
Testing and Validation
EOAT designs are reviewed for gripping reliability, structural performance, repeatability and production use.
Engineering Approach
EOAT development based on real production requirements
Effective robotic tooling must be designed around the product, robot, equipment and operating environment. We evaluate each application before developing the final solution.
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Product geometry and gripping-point evaluation
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Robot payload, reach and movement analysis
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Material, strength and weight optimization
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Sensor, electrical and pneumatic integration
Applications
EOAT solutions for advanced manufacturing operations
Customized robotic tooling can support a wide range of handling, assembly, inspection and additive manufacturing processes.
3D Printed Part Handling
Picking and transferring printed components between stages.
Pick-and-Place
Fast and accurate movement of components and assemblies.
Machine Loading
Loading and unloading machines, fixtures and production cells.
Assembly Automation
Positioning, holding and joining parts during assembly.
Inspection Handling
Presenting products accurately to vision and inspection systems.
Part Removal
Automated removal of components from manufacturing equipment.
Packaging Automation
Handling, sorting and arranging products for packaging.
Custom Robotic Processes
Purpose-built tooling for unique manufacturing operations.
Business Benefits
Improve automation efficiency and manufacturing capability
An optimized EOAT solution can increase robotic performance, reduce operational risk and improve overall production quality.
Lower Tooling Weight
Lightweight structures reduce robot payload usage and can improve acceleration, reach and operating efficiency.
Higher Productivity
Accurate and reliable handling helps reduce cycle time and increases the consistency of automated production.
Improved Product Quality
Customized gripping surfaces help prevent damage, deformation, slipping and incorrect positioning.
Faster Customization
3D printed tooling enables faster design changes and shorter development time for specialized applications.
Greater Process Flexibility
Modular tooling concepts can support multiple products, operations and changing production requirements.
Reliable Industrial Operation
Durable materials and validated designs support repeatable performance in demanding manufacturing environments.
Need a lightweight EOAT solution for your robotic application?
Share your component, robot specifications, process requirements and production environment with the Rheologist Gaze and Solutions engineering team.