Dynamic task planning & work re-organization

  • BASIC INFORMATION
  • INNOVATION
  • EXPLOITATION
  • MEDIA
  • MODULES
  • TRAINING
Name of demonstration

Dynamic task planning & work re-organization

Main objective

This demonstrator core objective is to support production designers during the manufacturing system design process and reduce the time and size of the design team needed for applying a change in the existing line.

Short description

Task planner generates and evaluates alternatives for task allocation and rough motion planning of human and robot operations, using information and data extracted from simulations. The evaluation of the generated alternatives is based on multi-criteria decision-making modules, integrating 3D graphical representation, simulation, and embedded motion planning. Dynamic Task planning & work re-organization Use case can be applied in production lines that use either mobile or station robots.

Owner of the demonstrator

University of Patras

Responsible person

Dr. Sotiris Makris makris@lms.mech.upatras.gr

 

NACE

C29.3 - Manufacture of parts and accessories for motor vehicles

Keywords

Human Robot Collaboration , Layout design, Mobile robot, Task planning, Manufacturing.

Potential users

Manufacturing SMEs or bigger companies from multiple sectors that they aim to explore Human Robot collaborative work cells or need novel solutions for optimizing their production, while automating the design process

Benefits for the users

– Allocate tasks to resources with respect to ergonomic rules and in order to increase the quality of operator’s job.

– Maintain the cycle time as is defined by the End User.

– Achieve better utilization of resources.

– Increase systems reconfiguration as it reassigns tasks and resources in case of unexpected events

– Generalize unified model for active (humans and robots) and passive (working tables, fixtures etc. resources

– Generate HRC workplace layout can upon the criteria defined by the user and depending on the requirements and specifications.

– The criteria can be changed if new requirements and specification introduced because of a new product or a Graphical User

– Graphical User Interface (GUI), that provides a detailed view on workcell information, scheduling settings, search parameters and evaluation criteria.

Innovation

The existing modelling of human and robot tasks, as well as the taxonomy of the existing resources, in a consolidated model, is innovative. The evaluation of an HRC workplace layout, given multiple criteria, such as ergonomics, investment cost, robot reachability, minimum floor space etc. is quite similar to that of the designers’ experience. The incorporation of the resources’ suitability check, given the skills of humans and robots, for a specific task, is also a part of the decision to be made. Last, the integration of the decision-making software with 3D simulation models, in order for the use of spatial representation techniques to be overcome, enables the layout overview and a valid solution to be had in a short time.

Risks and limitations

Familiarized production designers and integrators with Ubuntu OS and ROS are recommended for the integration of task planning module.

There are several robotic manipulators and mobile platforms without ROS controller. Robots without ROS controller are not supported by the task planner module. ROS controllers are required to execute robot manipulators’ motion actions and mobile platforms’ navigation actions.

The simulated execution of a task plan in GAZEBO simulator might be a time-consuming process raising the total time duration of the task planning process for the end users.

The selected simulation tool (GAZEBO) requires enough computing power for the simulated execution of a use case including big number of resources (robots, mobile platforms etc.). In this case, another simulation tool might be used.

Creation/modifications of GAZEBO simulation environment might be easier for production designers familiarized with ROS and GAZEBO simulation environment.

Technology readiness level

6 - Safety approved sensors and systems are commercially available

Sectors of application

Automotive industry , Consumer goods industry , White goods, Elevators Industry, Industrial Modules Production.

Potential sectors of application

Production lines of materials, pharmaceuticals, machines, equipment and mining and many others where humans and robots work together in the production line

Patents / Licenses / Copyrights

License pricing should be customized as per each individual end user's requirements. The agreement will be made upon contact with the module owner.

Hardware / Software

Hardware:

High performance computer


Software:

ROS

Siemens - Process Simulate

Trainings

Trainings will be available soon on the training platform.

Photos
Trainings

To learn more about the solution, click on the link below to access the training on the Moodle platform
Dynamic task planning & work re-organization

Back to LIST
Subscribe to newsletter

Please subscribe to our mailing list to be the first one informed about the new open calls, events and other hot news!


    Please check if the email you entered is correct
    All done!

    Your have successfully subscribed to Trinity newsletter.