Automated dismantling processes for a closed-loop automotive industry

Key technology for sustainable mobility

An orange robot arm works on a series of gray, rectangular components in a closed production environment. The scene shows an orange robot arm positioned above a series of gray, rectangular components. The arm is in the center of the image and performs precision movements while processing various components in a closed environment. The components are arranged in a rectangular, separate area surrounded by a metal frame. There are visible wires and connections linking the components together. The environment is bright and free of distractions, suggesting a controlled production environment. The robot arm is positioned near an upper frame, and part of the lighting or infrastructure is also visible. The main object is the robot arm, which is orange in color and consists of several moving elements. The components being processed are gray, rectangular parts in various positions. They appear to be arranged in a grid, and the arm moves through the space to access the individual parts. The image shows the execution in a production environment, which is depicted with clear shapes and lines. The color is clear and concise, suggesting professional processing. The technical details of the robot and the components are highlighted and provide information about the production environment. The room is white with a bright and neutral background that highlights the working area of the robot arm. The lighting in the production environment is even and does not appear to be directed at the robot or components, suggesting general lighting rather than specific light sources. The focus is on the precision and functionality of the task. It is a clean environment and the lighting is simple, making it easy to recognize and understand the task.
© Fraunhofer IST
Robot cell for the automated disassembly of connectors.

In view of the global ecological challenges and scarcity of resources, the establishment of a circular economy in the automotive industry is increasingly gaining in importance. In particular, the multitude of vehicle variants and the often unknown condition of end-of-life vehicles make dismantling and recycling more difficult. As a result, manual dismantling is inefficient and is generally only carried out for selected components. In order to achieve an efficient circular economy with type-sorted material recovery, the Fraunhofer IST is concentrating on the automation of dismantling processes. 

 

Increased efficiency through automated dismantling of complete vehicles

A central focus concerns the development of automated dismantling of the entire vehicle, which begins by separating component groups from the vehicle. To achieve this, dismantling strategies are being developed that take into account the economic, ecological and technical complexity of the dismantling process – depending on the vehicle type, equipment and condition. The aim is the development of an automated dismantling cell that can react flexibly to these strategies. For this purpose, a robot cell has been constructed with which the releasing of joints and the recognition of components and their condition can be tested.

Innovative robot technology for the safe disassembly of high-voltage batteries

Ein weiterer Schwerpunkt ist die automatisierte Demontage von Hochvoltbatterien aus Elektrofahrzeugen. Hierbei bestehen Herausforderungen, die über die klassischen Demontageprobleme hinausgehen, insbesondere bei nicht demontagegerechten Bauteilen wie z. B. Steckern mit Einrastmechanismus. Das Fraunhofer IST hat eine Roboterzelle für das sichere und effiziente Demontieren solcher Stecker entwickelt. Diese verfügt über einen Endeffektor mit einem auf die Steckergeometrie angepassten Greifer sowie über eine Bauteilerkennung mittels Computer Vision.

An industrial robot arm with a camera unit inspects a car tire. The robot arm is shown in the foreground and is focused on inspecting the car tire. The robot arm is orange and gray, and the camera is white and located at the end of the arm. The camera is close to the tire. The tire is in focus and is silver-gray in color. The surface of the tire is visible and shows fine details and patterns. The camera is positioned close to the subject, and the focus is on the details of the camera and the tire. The color and brightness are typical of industrial environments. This appears to be a close-up of an inspection process. The image shows an industrial environment that is bright and well lit. The background is slightly blurred and shows only parts of the room where the inspection is taking place. The colors gray and orange dominate, reminiscent of the robotics industry.
© Ostfalia Hochschule für angewandte Wissenschaften, Foto: Andree Königsbrück
Component recognition by means of computer vision.

The mobility transition

Innovative surface technology as the key to the circular economy

Our expertise

 

Sustainable battery and hydrogen systems

Battery systems

 

Sustainable battery and hydrogen systems

Hydrogen and fuel cell systems

 

Reference project

Disassembly and recycling concepts for PEM fuel cell stacks

We offer solutions for your applications

 

Industry solutions

Vehicle construction

 

Industry solutions

Energy