Definition Engineering and fabrication technologies
Engineering and fabrication technologies involve advanced design and manufacturing technologies aimed at improving products or production processes.
Description
They encompass a wide range of technologies aimed at the development, qualification and validation of advanced manufacturing processes, machines and equipment and their (digital) monitoring and control by sensors, digital technologies and other devices. The design side (Design & Engineering) comprises systems engineering, imaging technologies, mechatronics and optomechatronics, sensor and actuator technology and micro-electronics. The manufacturing side (including service and maintenance) includes additive manufacturing, digital manufacturing technologies and robotics.
Common ground with other key enabling technologies
Digital and Information technologies (inter alia Digital Twinning and Immersive technologies, Artificial Intelligence), Nanotechnology, Advanced materials (inter alia Thin films and coatings), Photonics and optical technologies (inter alia Photovoltaics), Life sciences and biotechnologies, Quantum technologies (inter alia Quantum computing).
Possible applications (not exhaustive)
Smart Industry, zero defect manufacturing, predictive maintenance, Medical devices, wearables, sensor networks, Advanced Instrumentation, autonomous and cooperative driving, (medical) imaging and devices, high-tech equipment, Internet of Things.
To all Key Enabling Technologies
Sensor and actuator technologies
Definition
Sensor and actuator technologies comprise both sensors and actuators. A sensor converts certain physical events into signals (electrical, optical). An actuator works the other way around from a sensor and takes certain electrical, thermal or optical signals as inputs and converts them into physical action, for example activating or positioning a device.
Keywords (selection)
Sensor networks, Actuator Networks, Optical fibre sensors, Ultrasonic sensors, Digital
sensing, Internet of Things, Cyber-Physical Systems, Embedded Systems, Internet of Things, Digital Twin, Transducers, Molecular machinery; CRISPR-cas9 technology; Biotechnology; Bioengineering, Synthetic biology, Remote sensing, Plasmonics.
Imaging technology
Definition
Imaging technologies deal with the generation, collection, duplication, analysis, modification and visualisation of images (optical and non-optical). In an industrial context, imaging technologies are mainly used for quality control and, combined with artificial intelligence, problems can be detected faster based on self-learning systems. Imaging technology also plays a major role in medical technology.
Keywords (selection)
3D imaging, Vision in the loop (visual servo), THz and far-infrared imaging, Radio
imaging, X-ray imaging, Optical and infrared, Medical imaging, Molecular imaging,
Image-guided intervention, Tomography, Image reconstruction, Image processing,
Image analysis, Machine learning, Plasmonics, Electron microscopy, Magnetic
resonance, Astro imaging.
Mechatronics and Optomechatronics
Definition
Mechatronics involves the integrated design of mechanical systems and associated control and regulation systems and combines mechanical, electrical and ICT engineering. Optomechatronics involves the integration of optical technology into mechatronic systems. Optomechatronic systems play an important role in semiconductor manufacturing, scientific instruments, medical equipment and robotics.
Keywords (selection)
Active and Adaptive optics, Multivariable and Robust Control, Adaptive algorithms/
Smart Optics, Free-form optics, Wavefront sensing, Telescopes, Cameras, Spectrometers, Cryogenic temperatures, Computational optics, Topology optimisation for optics and mechanics, Plasmonics, Flat-optics for new imaging systems.
Additive manufacturing
Definition
Additive manufacturing is the process of making a product by building it up layer by layer (3D printing). It is the opposite of subtractive manufacturing, where an object is made by cutting away a block of material (e.g. machining). It encompasses material development, process development and equipment development.
Keywords (selectie)
Bioprinting, Selective Laser Sintering, Stereolithography, Biofabrication, Computer Aided Manufacturing, protoptyping, 3D metal printing, Print process qualification, 3D printing for bio-degradables, for food and pharma.
Robotics
Definition
Robotics is an interdisciplinary integration of computer science and engineering. The goal of Robotics is to create intelligent machines that can assist humans in various ways.
Keywords (selection)
Autonomous assembly and disassembly, Unstructured environment, Human-robot
interaction, Self-configuration, Series of one, Customisation, Artificial intelligence,
Autonomous systems, Soft robotic matter.
Medical: Medical robotics, Surgical robots, Hospital robots, Rehabilitation robotics, Collaborative robots, Exoskeleton, Agro-food application, Pick and place, Drone systems, Social robotics.
Digital manufacturing technologies
Definition
Digital manufacturing technologies are a key driver of productivity growth in industry. They build on systems and technologies such as cyber-physical systems, digital twins, ERP systems, robotics and AI and machine learning. In industry, these include a digital representation of physical processes and systems for the purpose of digital, scalable and flexible manufacturing. Digital twins continue to develop into more autonomous, interactive and dynamic production systems, partly through the application of AI. B2B platforms and data spaces are important here, as well as (predictive) maintenance.
Keywords (selection)
Industry 4.0, Digital Technical intelligence, Real-time and Embedded Systems, Viable
System Model, Embedded Systems, Cyber-Physical Systems (CPS), Cybernetics, Autonomous Systems, Computer Architecture, Predictive modeling, AR/VR, digital
data spaces, Agent-based manufacturing, Predictive maintenance.
Microelectronics
Definition
Micro-electronics encompass semiconductor components and/or highly miniaturised electronic subsystems and their integration into larger products and systems. They include the fabrication, design, packaging and testing of semiconductor components into microscale systems that integrate multiple functions on a chip (semicon devices). They also include High Frequency and Mixed Signal Technologies (combining digital and analogue signals from different sources in an integrated system).
Keywords (selection)
Electronic Transistors, Microchips, Semiconductor Diodes, Semiconductor Manufacturing, Semiconductor Detectors, Sensor electronics, Internet of Things, Medical electronics, Computing hardware, Signal processing hardware, 5G/6G, Biomedical biochemical sensors, GPS, communication, Radar, LIDAR.
Systems engineering
Definition
Systems engineering is a methodical, multidisciplinary approach to the design, realisation, technical management, operation and decommissioning (design for recycling) of a system during its lifecycle. It involves a (complex) system that includes all the elements needed to (optimally) produce and realise solutions: hardware, software, equipment, facilities, personnel, processes and procedures.
Keywords (selection)
Complex systems, AI, Machine learning, Industrial engineering, Production Systems
Engineering, Process systems engineering, Mechanical engineering, Software engineering, Electrical engineering, Cybernetics, Organizational studies, Project management, Power electronics, Knowledge Based Engineering, Multi-disciplinary Optimization.
What are key enabling technologies?
Key Enabling Technologies have a wide range of reach across innovations and/or sectors
Key Enabling Technologies enable groundbreaking process, product and/or service innovations
Key Enabling Technologies are essential in solving social challenges and/or make a major potential contribution to the economy, through the creation of new activities and new markets
Research into Key Enabling Technologies can be fundamental, but with a view to application in the medium/long term