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FIRP – Future Industry Research Programme

The Future Industry Research Programme (FIRP) focuses on societal challenges such as resilience, global competitiveness, innovation and economic growth through collaboration and co-creation with industry. Through responsible innovation, the research programme aims to support technological progress for the benefit of society as a whole.

Man working in a blue-tinted lab environment. Photo.

Ensuring continuous and responsible innovation while remaining sustainable and competitive is a major challenge for the industry today, which can only be solved through multidisciplinary collaboration between many different stakeholders.The research programme wants to contribute to meeting this major challenge.

FIRP is part of the University’s focus area Smart Cities and Communities and is in line with Industry 4.0 and Industry 5.0. This means that the research aims for increased digitisation of industry, while at the same time being socially responsible, sustainable and overall beneficial to society.

FIRP works with five of the Sustainable Development Goals: Industry, Innovation and Infrastructure; Decent Work and Economic Growth; Sustainable Cities and Communities; Gender Equality; Quality Education; and Responsible Consumption and Production.

The vision of FIRP is to promote research excellence, strengthen university-industry-society cooperation and integrate more research into education to prepare people and industry for future challenges and opportunities. The programme aims to position Halmstad University as a leader in interdisciplinary technological research and help meet modern societal and industrial needs.

Three key themes and clusters

The research programme consists of three collaborative clusters to solve complex industrial challenges. The clusters bring together researchers from disciplines such as artificial intelligence, machine learning, materials and sensors, surface metrology, cybersecurity, additive manufacturing, computer vision, autonomous systems and predictive maintenance

Innovative industry

Innovative industry is primarily involved in researching and applying cutting-edge technologies and processes across a range of strong areas at the University: semiconductor technology, nanoscience, digital radar systems, sensor systems for autonomous vehicles, functional surfaces and advanced manufacturing techniques.

Resilient industry

Resilient industry works with the capacity of industrial sectors to maintain security, reliability, and sustainability amidst the challenges posed by an increasingly digital and interconnected world. This encompasses a broad range of concerns, including cyber security, data privacy and authenticity, resilience to hardware or software failures, and protection against external threats

Predictive industry

Predictive industry revolves around creating systems capable of autonomous knowledge construction from real-life data generated through interactions between an industrial system and its environment. A central application within Predictive Industry is predictive maintenance (PdM), which aligns with the objective of achieving cost and efficiency gains for industries. This application is tightly connected to the use of HU’s strengths in Artificial Intelligence (AI) and Machine Learning (ML).

Square grids. illustration.

Image: AI generated by Ross Friel

Research questions

  • How can advanced data analytics and machine learning improve industrial processes?
  • What methods and technologies can improve the robustness and security of industrial systems against cyber and physical disruptions?
  • How can innovative sensor technologies, materials and surfaces improve industrial capabilities?
  • How can predictive models be developed to anticipate equipment failures and optimise operations?

Research projects

  1. The primary aim of the project is to explore AI’s role in cybersecurity, address emerging risks, and develop training materials while fostering synergy and capacity building. AI is transforming the

  2. The project is about automatic analysis of indoor crime scenes. We will study AI technologies for environment mapping, segmentation and classification of objects and traces found at such scenarios

  3. Global supply chains in the automotive aftermarket are increasingly complex, driven by intermittent demand, regional market variations, and sudden spikes in customer requirements. Traditional

  4. Digital images, ubiquitous in Swedish society and industry, represent a sophisticated and evolving vector for cyberattacks. Threats include stealthy zero-click exploits and AI-assisted steganography,

  5. The FREEWAY project aims to deliver next-generation digital services for electromobility by enabling asynchronous federated learning (AFL) to address scalability challenges, especially for large

  6. The KEEPER research project will develop novel Artificial Intelligence (AI) and Machine Learning (ML) methods for creating knowledge from raw, largely unlabelled industrial data to enhance the

  7. LEAD-AI is an Erasmus+ project that aims to strengthen AI literacy and digital competences in adult education. The project responds to the rapid expansion of generative Artificial Intelligence and its

  8. This joint project between RISE, ClimaCheck and Halmstad University is Sweden’s contribution to the IEA HPT Annex on Digital Services for Heat Pumps. The aim is to develop advanced methods for

  9. Complex environment and traffic conditions have a major impact on the safety and operations of Connected and Automated Vehicles (CAVs). Weather affects not only the vehicle performance but also the

  10. West Sweden’s network for smart electronics. We strengthen small and medium sized companies in the electronics industry, with knowledge, networks and resources for future innovations. Background and

  11. SMILE IV focuses on optimising and implementing the safety architecture and safety components for two distinct use cases of small autonomous vehicles: transport robots in factory settings and delivery

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