Screw Fastening Cell
Automating Precision in Every Turn.

Screwdriving Cell
Automating Precision in Every Turn.

Deals with Micro Torques

Implement torque control parameters in the screwdrivers to handle micro torques accurately.

Perform rigorous testing and calibration to ensure consistent and reliable fastening for screws with low torque requirements, preventing units from being processed with missing screws.

 

About


Fancort's highly advanced Stand-Alone Screw Fastening Cell offers precise, automated screw fastening solutions for manufacturing environments, particularly for applications with micro-torque and varying screw types.

Leveraging AI-powered vision sensors and adaptive torque control, this robotic cell ensures consistent and high-quality fastening, enhancing productivity and reducing scrap. Designed with safety and ergonomics in mind, this solution minimizes human error and repetitive strain, while maximizing operational efficiency.

Functions, Improvements, Hardware, Compatibility


Functions

Control the screw fastening process.
Measure screw height after fastening.

Improvements

Productivity: Reduce scrap generation due to manual screw fastening.
Ergonomics: Minimize injuries or repetitive strain incidents.
Labor Efficiency: Remove operators from manual inspection and fastening tasks.

Hardware

Enclosure: 1500 mm x 1500 mm x 2000 mm
Robot: SCARA Epson LS20
Screwdrivers: Vacuum adapters QMC21-25-HM4 and QMC41-100-HM4
Screw Presenter: SDS-SR17
Sensors: IV3, IX, LV, and TCP Sensors
Fixtures: Included

Compatible Screw Types

Hex Socket, Phillips, Slotted, Torx, External Hex.

Different Screw Shapes and Sizes

Develop AI-powered vision sensors capable of recognizing and locating various screw shapes and sizes.

Design the screw handling mechanism to adapt to different screw geometries and minimize potential damage.

 

Detect. Keep going.

Our solution integrates torque monitoring and feedback systems to detect cross-threading or screw head damage during fastening.

Additionally, error-proofing mechanisms automatically halt the process if a cross-threaded screw is identified, preventing scrap and ensuring consistent quality.

 

Process


Process Overview

1. Operator loads parts into the fixture.
2. Vision AI Sensor validates part presence before beginning.
3. The robot jogs to the screw presenter, automatically picking up screws.
4. Screw passes through a thrubeam area sensor to verify correct height.
5. The robot initiates the fastening process.
6. IX Height Measurement Sensor checks screw head height tolerance.

Process Diagram Flow

1. Operator loads parts into the fixture.
2. System validates part presence.
3. Robot picks up screw from the presenter.
4. Screw is verified for height by a Keyence thrubeam area sensor.
5. Robot initiates the fastening process.
6. IX Height Sensor validates screw head height.

Facilities

System Features & Specifications

Add-Ons

About

Industry: Aerospace/Electronics/Automotive/Medical
Application: Our Stand-Alone Screw Driving Cell
with Epson Robots offers precise torque control, boosts efficiency, adapts to various screw sizes, and integrates seamlessly into existing setups. Featuring top-notch safety, reliability, and cost savings, this system enhances production with minimal rework and maximum ROI.
Design: Fancort RAD (Robotic Automation Division)
Integrated by: Fancort RAD (Robotic Automation Division)

We can customize to fit your needs, for more information, click on the button or contact:

Contact us! We'll respond in under 30 minutes.

Some of our customers

Fancort customers include the following NASA engineering schools: MIT, John Hopkins, JPL, U of NH, MN, NM, TX and AZ. We are also a major supplier to the national labs system: Sandia, Draper, Fermi and Los Alamos.