The Circular Economy Innovation Domain focuses on finding answers to questions surrounding the reusability of materials and the use of raw materials. The Dutch government has set an ambitious goal to achieve a fully circular economy by 2050.
By 2030, as an intermediate step, the use of fossil, mineral, and metallic raw materials must be halved. Digitalization is an essential building block for this transition, as are the development of new advanced materials and innovations in various other key technologies. An integrated approach is necessary, involving a joint effort among businesses, knowledge institutions, and the government.
The high-tech sector can play a crucial role in the transition to a fully sustainable economy by 2050 by integrating the Circular Economy into roadmaps, renewing value chains, and adapting business models. Holland High Tech supports the development of the ecosystem in the innovation domain of Circular Economy and stimulates innovation through strategic programs and public-private partnerships.
Circular Economy is one of the Innovation Domains of Holland High Tech, the top sector for High-Tech Systems and Materials. We stimulate innovation in the field of Circular Economy for consortia of research organisations and companies with subsidies from the government's PPS Innovation Scheme. Look at the overview of Holland High Tech for details on our funded R&D programmes and projects.
The transition to a Circular Economy in the high-tech sector requires the development of various technologies, such as:
The Circular Economy Innovation Domain has an impact on various aspects of industry:
These aspects make an essential contribution to the Circular Economy and the technological advancement of the Netherlands.
Circular Economy has overlaps with various other innovation domains:
The consumption of rare materials (such as indium, gallium, and phosphorus) can be reduced through substitution or the recovery of these materials from discarded components. Modular design and repair options ensure an extended lifespan.
The construction of quantum systems utilises rare earth metals and superconducting materials. Their recovery is part of a circular strategy. Systems requiring cryogenic cooling and complex electronics are often still in the design phase. Efficient use of materials and energy are key circular aspects.
Developing biodegradable or recyclable image sensors, scanners, and cameras simplifies circular operations, as does implementing predictive maintenance for optimal equipment maintenance and longevity.
Focusing on a modular design when developing systems allows for the replacement of only components in case of malfunction, instead of entire systems. The use of AI and sensor data helps predict wear and maintenance on time, extending the lifespan of systems. Recovering high-quality materials closes the circular chain.
Energy storage relies on the use of materials such as lithium, cobalt, and nickel. The use of new recycling techniques helps to reduce the consumption of these rare metals. Reducing CO2 emissions and water consumption in the production of energy storage materials is a key element of a circular economy strategy.
Reducing material usage through the use of more efficient production techniques, such as additive manufacturing and precision machining, is a relevant circular theme, as is the reuse of critical semiconductor materials like gallium and indium. Sustainable chip production focuses on reducing chemical waste and water usage, as well as on overhauling and reusing production machinery.
Innovation is essential for the Netherlands. We are working on smart innovations to address urgent transitions: Dutch solutions for global challenges. With technological innovation and unique expertise, we, as a country, anticipate future safety, autonomy, job security, and income. Holland High Tech amplifies the impact of innovation. Discover more about how we do this through our focus on urgent transitions and the innovation domains that provide solutions.
