How does this use case impact an organization’s performance?
Advancements in robotic and control technology are enabling the development of collaborative robots, systems designed to work safely in close proximity and cooperatively with human coworkers, especially in manufacturing environments. The collaborative robotics segment is growing rapidly as new suppliers, technologies, and investment enter the market. Growth is fueled by three key markets: electronics manufacturers and electronics manufacturing services companies, small-to-medium manufacturers, and manufacturers seeking robotic solutions optimized to support agile production methodologies. Expected benefits include enhanced productivity by improving the throughput, quality, and safety of employees.
The expected benefits of cobots include: enhanced productivity by improving the throughput, quality, and safety of employees, OPEX reduction, improved health & safety situation, litigation safeguard.
|Key Performance Indicators||
How is the success of the system measured for users and for the business?
Productivity, OEE, efficiency.
|System Capabilities & Requirements||
What are the typical capabilities in this use case?
Collaborative interaction between human and robotics, enhanced manufacturing capabilities and ease of use. Robots can be deployed and redeployed very quickly without having to endure major changes to an operation.
Performance Requirements: Depending on the type of the robot used. For manufacturing for example, there are safety requirements in order to ensure certain standards are adhered to and the human workers safety is ensured.
Where is the ’edge’ of the solution deployed?
Currently, the robots are mostly deployed in factory environments to aid in manufacturing. In the future they may be deployed and used in other industries as well.
What sensors are typically used to provide data into the IoT system, and which factors define their deployment?
Various sensors can be added to different robots to increase their adaptability. These sensors are:
1) 2D vision: 2D vision is a video camera that can perform a lot of different things such as detecting movement to localization of a part on a conveyor.
2) 3D vision: A tri-dimensional vision system that has 2 cameras at different angles. This way the dimension of the object around the robot can be detected.
3) Force torque sensor: These sensors give touch to the robot's wrist. Applications such as assembly, hand-guiding, teaching and force limitation can be done with this device.
4) Collision detection and safety sensors: These sensors are to ensure a safe working environment for human workers.
What types of analysis are typically used to transform data into actionable information?
Big data analytics can be used to analyze the gathered data from the robots in order to improve their functionality.
GE Digital (GE)
Your Cloud Platform for the Industrial Internet
|Cloud & Edge Platforms||
What factors define the cloud and edge platforms used to integrate the solution?
What factors define the connectivity solutions used to provide both device-to-device and device-to-cloud communication?
Connectivity comes in the form of the Internet-of-Things where in a connected enterprise, robots and machines communicate with each other free of cables, sharing data with humans.
What factors define the interfaces available to the system users?
Friendly user interface in order to ensure easy collaboration with humans. Graphical interfaces are also being developed.
What factors impact the integration of technologies into a cohesive system?
All collaborative robots will be integrated with each other via cloud and edge technologies, ensuring smooth communication.
How is data obtained by the system?
Data can be extracted from the various sensors on the robots. Data is also relayed in real time to the cloud, gathered and analyzed.
What data points are typically collected by the system?
Cycle time, part count, speed, force on a customizable dashboard are the types of data that can be analyzed.
|Business & Organizational Challenges||
What business challenges could impact deployment?
There are various challenges the manufacturers face when producing collaborative robotics. These are namely:
1) Skillset and experience challenges: It is reported that over 75% of manufacturing companies reported a skills shortage which hampers robotics production.
2) Cost of technology: Purchasing robotics is a costly ordeal, thus most companies are not willing to invest in this industry.
3) Safety concerns: The safety of human workers around the robots is a major issue as companies fear regulatory and legal issues from human workers should an incident happen.
What integration challenges could impact deployment?
When integrating the robots into the workforce, it might be difficult to make the change without proper planning. Workers also need to be trained in order to ensure seamless integration and to ensure their own safety.
What regulatory challenges could impact deployment?
Regulatory challenges might arise from safety issues. If a worker gets harmed by a robot, he/she can sue the company for not ensuring safety standards. Furthermore, organizations might face scrutiny by the government by replacing human workers with robots therefore driving up unemployment figures.