AMPERE – Additive Manufacturing based Production of Embedded Robust Electronics

Projects

AMPERE – Additive Manufacturing based Production of Embedded Robust Electronics

The AMPERE project will develop reliable and scalable hybrid 4D manufacturing methods for smart systems with embedded robust electronics. The new hybrid manufacturing processes of AMPERE will exploit Additive Manufacturing (AM, also referred to as 3D printing) as a core production technology that can be scaled to volume production, combined with the 4th Dimension (integration of electronic and optical functionalities). The developed process will leverage Closed Loop Controls to ensure first time right reliable production.

Four specific objectives have been set to reach the AMPERE goal:

  1. 1. Develop and integrate Essential Technology for scalable hybrid 4D manufacturing that is both flexible and cost effective from small series mass customisation to higher production volumes whilst meeting the real needs of industry
  2. 2. through digital Smart Processes of 4D products (integrated mechanical, electrical and optical functionalities)
  3. 3. Develop scalable and reliable Industrial Production Systems in combination with the essential technology and smart processes
  4. 4. Demonstrate the hybrid 4D manufacturing approach in three innovative product cases covering different applications and sectors (LED luminaires & signal and power electronics & medical devices)

 

Our role

Within the project, VSL will share its in-depth knowledge and expertise relating metrology in industrial production to the partners in the project. VSL will focus on in-line and in-process metrology to enable improved process control and enhanced manufacturing performance, which follows from similar projects within this area, such as automated in-line metrology for nanoscale production (AIM4NP), or Metrology for highly parallel manufacturing (MetHPM). During the project, VSL will develop new insights relating the added value of reliable and traceable metrology for European (high-tech) manufacturing industry. In particular, the knowledge and experience from the AMPERE project will be used to aid the project partners on how to select and correctly implement metrology as they adopt the advanced manufacturing techniques from the project within their production and manufacturing process. This way, the European manufacturing industry can remain leading in this area in which metrology plays an essential role.

Start date: April 1, 2021
End date: June 31, 2024

Would you like to know more about this project?

Our experts are happy to help.

Richard Koops

Projects

Our expertise in practice

Read more about our projects

Virtual experiments and digital twins (ViDiT)

Virtual experiments and digital twins are key enabling technologies to achieve and realise European strategic policies devoted to sustainability and digitalisation within the complex framework of Industry 4.0 and the European Green Deal.

Metrology for Aerosol Optical Properties (MAPP 19ENV04)

The goal of this project is to enable the Si-traceable measurements of column-integrated aerosol optical properties retrieved from the passive remote sensing of atmosphere using solar and lunar measurements.

RMG Research on optical microscopes (Research Mobility Grant 20FUN02-RMG1)

This Research mobility grant together with EMPIR project 20FUN02 POLight aims to enhance multiple optical measurement methods for use in nano-metrology.

Pushing boundaries of nano-dimensional metrology by light (20FUN02 POLight)

This project addresses this issue by developing novel methods to help bridge the metrology gap and in turn foster KET innovation. More specifically, this project will push the boundaries of optical measurement methods by realising a new generation of optical metrology systems, with unprecedented performances in terms of spatial resolution, traceability, reliability and robustness.

Traceable metrology of soft X-ray to IR optical constants and nanofilms for advanced manufacturing (20IND04 ATMOC)

The optics and semiconductor industries use innovative materials and complex nanostructures in their products whose optical properties are difficult to measure and often not accurately known. This project is developping advanced mathematical methods to traceably characterise these materials for wavelength ranges from soft X-ray to IR.

Traceable industrial 3D roughness and dimensional using optical 3D microscopy and optical distance sensors (20IND07 TracOptic)

To remain competitive, European manufacturers strive to make constant improvements in their manufacturing processes. The surface topography of a component part can have a profound effect on the function of the part. This is true across a wide range of industries (such as precision engineering, automotive and medical).

Standardisation of measurements for DC electricity grids (20NRM03 DC grids)

The shift towards more renewable and sustainable technologies has increased the attractiveness of DC grids as an alternative or addition to the existing AC grids

Green Transport Delta – Hydrogen

The main goal of the Green Transport Delta – Hydrogen project is to develop three hydrogen technologies: hydrogen combustion engines, hydrogen fuel cells, and next generation technology for hydrogen refueling infrastructure.

Metrology for traceable protocols for elemental and oxidised mercury concentrations (19NRM03 SI-Hg)

Creating a metrological framework to support growing demands for ‘green’ hydrogen as part of the EU’s climate strategy.

Metrology for temporal light modulation

LED-based lighting contributes to energy saving and the reduction of the environmental impact of lighting. However, LED lamps can show fluctuations in the light output known as temporal light modulation (TLM)