The future of technical training is immersive, connected, and safer. This project utilises VR, haptic feedback, and 5G technology to teach crucial skills needed for offshore maintenance and operations.
This allows technicians and students to practice tasks in a realistic virtual environment before applying their skills in practice. By combining hands-on learning with wireless connectivity, the project explores how new technologies can prepare the workforce for future energy challenges and enable safer, more efficient remote operations.
This project, part of the WoW project, explores how VR training and remote operation can help prepare people for future energy-related tasks. Reliable and fast network connections are essential to ensure that actions in a virtual environment accurately reflect real-world operations. By integrating different 5G network configurations into the VR environment, the project investigates how connectivity performance affects task execution and safety. The platform provides a realistic environment for researchers and companies to test and improve teleoperation solutions, accelerating the development of future connected and autonomous operations.
The energy sector is becoming increasingly complex, creating a growing need for professionals with the skills to safely operate and maintain new technologies. However, training in realistic environments can be costly, time-consuming and limited by safety requirements. This project uses VR and haptic feedback to provide students and professionals with a safe and realistic way to practice technical procedures and prepare for real-world operations.
The VR training module will be tested with MBO students and developed together with education and industry partners. A train-the-trainer package will enable teachers and organisations to use and scale the training within their own programmes.
This project is enabled by the Kansen voor West programme (aimed at promoting the competitiveness of the Dutch Western region) and the European Union.
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Lights on in buildings after office hours: it is a common sight in the Netherlands. This project transforms the current innovation hub on the TU Delft Campus (where Do IoT Fieldlab is also located) into a living lab where researchers, SMEs and field labs collaborate to develop and validate innovative smart building technologies. It focuses on two key themes: Smart Energy Use and Smart Occupancy Sensing.
Worldwide, weather is becoming more erratic, and excesses of drought and heavy rainfall are increasing. Current technologies for predicting rain, including radars, satellites, and weather models, are not accurate enough.
For many organisations in horticulture, gaining valuable insights into work processes is fundamental to continuous improvement and meeting industry standards. With this goal in mind, Opus Solutions B.V. has developed the OPUS watch, a smart watch specifically for this sector. However, the connectivity required to track activities isn’t always guaranteed in environments dominated by extensive glass and metal structures, such as greenhouses.
Teaching a robot by demonstrating what it should do. Currently, this is quite complicated. In the future, it will bring new opportunities for automation. Engineers from RoboHouse, TNO, TU Delft and Do IoT Fieldlab are analysing different applications, to evolve the remote robot teaching standards.
The Dutch greenhouse horticulture sector is facing a pressing challenge: while the workload continues to increase, skilled labour is increasingly scarce. There is no shortage of tasks, only of hands to do them. How can we ensure that productivity and sustainability remain safeguarded? The Telegreen project may offer an answer: a collaboration between academia and companies developing an innovative humanoid arm that will support employees and secure the future of the sector.
Reliable coverage is not only important on land, but also at sea. Certain parts of the Dutch coastal waters are not covered. Therefore, startup Drocean aims to create a complete and detailed 5G/4G coverage map of the North Sea to foster within the Dutch maritime sector.
Applying 5G mobile communications technology in a closed environment such as a greenhouse is relatively new. Numerous studies have examined the effects of electromagnetic fields on flora and fauna. Yet, the novel frequencies used by 5G systems are higher than those used by 2G-4G networks. They potentially have a greater impact on smaller organisms, such as plants and pollinators. The aim of this project is therefore to determine whether a 5G network has any effect on the growth of plants or on the behavior of pollinators in a greenhouse.
How can 5G help hearing-impaired people have a much clearer hearing of speech in a noisy environment? Dutch company Absolute Audio Labs is experimenting with integrating 5G technology into a hearing aid. Their aim is to significantly improve the audibility of a conversation, even when someone is whispering.
