About the project

Objective

This project is primarily situated at the intersection of Rich and Healthy Life and Cooperate within the Digital Futures research matrix. It explores how AI-enhanced XR environments can foster meaningful human-AI collaboration across immersive scenarios. The project also contributes to the societal context by designing XR experiences that support personal development, creativity, and skill-building. Through dynamic, interactive, and adaptive environments, the system enables users to engage in: (1) self-paced learning and creative prototyping, (2) scenario rehearsal and training, and (3) immersive co-creation. Central to the Cooperate theme is the exploration of multi-agent and multi-user interaction, focusing on how AI agents can support, guide, or adapt in real time to facilitate shared decision-making and effective human-human collaboration, mediated or enhanced by AI.

Background

Artificial Intelligence (AI) and Extended Reality (XR), which includes Augmented Reality (AR), Virtual Reality (VR), and Mixed Reality (MR), represent two rapidly evolving domains that are reshaping the modalities through which humans engage with digital systems. AI technologies are now deeply embedded in a wide array of applications, ranging from algorithmic recommendation systems and automated content generation to complex decision-support tools used in domains such as traffic management and surgical procedures. Concurrently, XR technologies are becoming increasingly mainstream due to advances in hardware and the availability of affordable head-mounted displays, making immersive experiences more accessible to both industry and the general public. Although both AI and XR are subjects of extensive research, the intersection of these fields, particularly within the context of Human-Computer Interaction (HCI), remains relatively under-investigated. In particular, the integration of AI-driven agents, including conversational agents, within XR environments poses novel questions regarding interaction design, user experience, and the role of intelligent systems as co-actors in immersive settings.

Cross-disciplinary collaboration
The researchers in the team represent the KTH School of Electrical Engineering and Computer Science and RISE Research Institutes of Sweden, Digital Systems Division.

About the project

Objective
This project aims to explore the emerging gigantic multiple-input multiple-output (gMIMO) technology in the physical layer, using methodology from signal processing and information/communication theory. gMIMO relies on using 10 times more antennas in base stations and user devices than in current networks, by operating in the upper mid-band where antennas are smaller. This enables massive spatial multiplexing and beamforming. The research results are anticipated to be applied to 6G and future wireless communication networks and provide valuable insights into their integration within a wide range of digital transformation.

Background
Sixth-generation (6G) wireless communication is crucial for enabling society’s digital transformation and future cyber-physical world. Many transformative applications, such as ultra-massive connectivity, immersive extended reality (XR) communication, smart factories, and intelligent transportation systems, can be efficiently facilitated by intelligent 6G wireless networks. To support these extensive usage scenarios, delivering exceptionally high data rates to many users is important. Since fourth-generation (4G) wireless networks, multiple-input multiple-output (MIMO) technology has been a key technology to deliver higher rates.

With the advancement of wireless networks, MIMO technology has also significantly evolved with the continually increasing number of antennas. To further empower the 6G and future wireless networks, gigantic MIMO (gMIMO) is highly anticipated by utilizing hundreds or a thousand antennas, which is the major focus of this project.

About the Digital Futures Postdoc Fellow
Zhe Wang received his PhD degree in 2025 from the School of Electronic and Information Engineering at Beijing Jiaotong University, China. His research focuses on promising 6G wireless communication technologies, including gigantic MIMO, cell-free massive MIMO, and near-field communication.

Main supervisor
Emil Björnson, KTH

Co-supervisor
Vitaly Petrov, KTH

About the project

Objective
The project aims to enhance the resilience and preparedness of Stockholm against multiple hydrometeorological hazards, primarily flooding, droughts, and heatwaves, by developing innovative monitoring systems, assessing systemic risks, and co-creating adaptive warning systems and action roadmaps with stakeholders.

Background
Urban areas are increasingly vulnerable to hydrometeorological hazards, which are growing in frequency and severity due to climate change and urbanization. These events pose significant risks to Critical Societal Services and Infrastructure (CSSIs), including transport, water, and energy systems. Traditional risk analyses often focus on single hazards and overlook cascading impacts across interconnected systems. CASCADE addresses this gap by integrating advanced AI-based prediction models, network analysis, and stakeholder-driven approaches to build a comprehensive framework for disaster preparedness and climate adaptation.

Cross-disciplinary collaboration
CASCADE brings together expertise from KTH Royal Institute of Technology, the City of Stockholm, and RISE. The collaboration integrates environmental and water engineering, computer science, systems analysis, and urban planning with practical municipal and industry perspectives. This transdisciplinary partnership ensures that solutions are scientifically rigorous, technologically advanced, and practically applicable.

About the project

Objective
This project aims to align the legal requirements for emerging digital technologies, such as AI systems, with the development of such technologies. The regulatory demands for responsible AI, such as the need for transparency, protecting privacy and taking into account fundamental rights, are mandated by the recently enacted AI Act. This project will identify and address the challenges associated with transposing the legal demands of the AI Act into technical specifications in order that the developed technology is ethical and also legally compliant from the outset. 

This industrial postdoc project is a collaborative initiative between KTH, Stockholm University, and industry partner Scania. By integrating legal and technical expertise, it will contribute to Scania’s broader efforts within AI regulatory compliance and support the implementation of responsible AI practices across its internal initiatives.

Background
The ICT sector has an environmental footprint. The future development of this footprint is debated, and it Artificial intelligence (AI) has many positive uses but the  widespread adoption of this technology has also raised some concerns over the risks associated with its usage, such as biased decision-making, a lack of privacy preservation, environmental concerns and the diminishing of fundamental rights in general.  

The European Union AI Act entered into force on the 1st of August 2024 and is the first comprehensive legal framework regulating AI systems. Its primary objective is to promote trustworthy AI systems, thereby  ensuring that AI technologies are safe, transparent and aligned with EU values, while also fostering innovation. 

This project will focus primarily on AI governance with the objective of promoting responsible AI as mandated by the AI Act. It will focus on how legal demands for transparency, trustworthiness, privacy, technical robustness, and avoidance of unfair bias should be interpreted for incorporation into corporate processes so as to proactively promote legal compliance. Part of this task will involve the identification and implementation of additional soft law elements, for example, harmonized standards developed by EU standardization bodies as well as guidelines produced by various EU institutions.

Partner Postdoc
Anna De Carvalho Guimarães

Main supervisor
Tobias Oechtering, KTH

Co-supervisor(s)
Stanley Greenstein, Stockholm University
Rami Mochaourab, Scania

About the project

Objective
The main objective is to develop a Content-Based Image Retrieval (CBIR) system using a large database of longitudinal brain Magnetic Resonance Imaging (MRI) of patients with dementia. By using artificial intelligence, the system will detect patterns and similarities in the longitudinal images, empowering healthcare professionals to predict treatment outcomes and deliver personalized care. Eventually, this tool aims to simplify decision making, improve patient care and make healthcare more efficient and cost-effective.

Background
As the global population ages, dementia diseases are becoming increasingly prevalent, currently affecting approximately 47 million individuals and imposing an economic burden of around $2.8 trillion. Innovative computer-aided diagnosis techniques, particularly CBIR, have been transformed by enhancing the retrieval of relevant images for patients with or at risk of dementia. Scientific evidence suggests that spatio-temporal patterns from longitudinal recordings can significantly improve outcomes in cross-sectional studies. However, progress in this field has been hindered by limited access to longitudinal databases, small dataset sizes, and ineffective analytical methods.

About the Digital Futures Postdoc Fellow
Félix received his PhD in Electronic Engineering from the Universitat Politècnica de València. His research has centered on applying artificial intelligence and signal processing techniques to biomedical data analysis.  His thesis focused on developing a state-of-the-art preterm labor prediction system using Electrohysterography (EHG), successfully addressing challenges such as low incidence rates and limited data availability.

His work spanned the entire research process, from clinical data acquisition and signal preprocessing to the design of an automated decision-making system. Building on this foundation, he has expanded his proficiency in medical imaging modalities, and gained experience with modern deep learning architectures.

Main supervisor
Rodrigo Moreno, Associate Professor, School of Engineering Sciences in Chemistry, Biotechnology and Health (CBH), KTH Royal Institute of Technology

Co-supervisor
Chunliang Wang, researcher with Docent title at School of Technology and Health (STH), KTH Royal Institute of Technology

About the project

Objective
My research plan focuses on the second-order, online, and robust algorithms for decentralized machine learning, aiming to propose efficient algorithms with convergence guarantees and study the applications. For example, distributed training with multi-core processors enables faster and more efficient training of machine learning models; wireless sensor networks serve for smart buildings and automatic driving in decentralized manners; hospitals cooperatively study disease prevention and treatment while protecting patients’ privacy.

Background
Big data over geographically distributed devices is the new oil of the digital future. However, we cannot mine it within data centres due to privacy preservation and communication efficiency issues. Instead, we resort to learning over networks. My research plans to develop second-order, online, and robust decentralized algorithms with convergence guarantees. This plan perfectly fits the themes of Digital Futures: trust, cooperation, and learning.

About the Digital Futures Postdoc Fellow
Jiaojiao Zhang received a B.E. degree in automation from the School of Automation, Harbin Engineering University, Harbin, China, in 2015 and a master’s degree in control theory and control engineering from the University of Science and Technology of China, Hefei, China, in 2018. She received her PhD in operations research from the Department of Systems Engineering and Engineering Management, The Chinese University of Hong Kong (CUHK), Hong Kong, in 2022. She received the Hong Kong PhD Fellowship Scheme (HKPFS) in August 2018. Her current research interests include distributed optimization and algorithm design.

Main supervisor
Mikael Johansson, Professor, Division of Decision and Control Systems, KTH.

Co-supervisor
Joakim Jaldén, Professor, Division of Information Science and Engineering, KTH.

Watch the recorded presentation at the Digitalize in Stockholm 2023 event.

About the project

Objective
This project aims to propose the generalized design method and computational architecture of more than 20 kinds of nonlinear functions. By this they can be used in more algorithm acceleration without doing a lot of repetitive development work.

Background
As the foundation of the future development of smart society, the digital chips play a key role. Behind these digital chips is the hardware acceleration of a large number of algorithms. The essence of the algorithm is mathematical operation, the most complex mathematical operation is nonlinear function calculation. So the proposed research question is how to improve the universality of nonlinear function VLSI design without affecting the performance and efficiency? It is a challenge.

About the Digital Futures Postdoc Fellow
Hui Chen received a PhD from Nanjing University (NJU) in 2022, China. His major is information and communication engineering. Hui’s research interests include arithmetic circuits, integrated circuits for elementary functions and reconfigurable computing.

Main supervisor
Zhonghai Lu, Professor at the Division of Electronics and Embedded Systems, Department of Electrical Engineering, EECS, KTH.

Co-supervisor
Masoumeh Ebrahimi, Associate Professor, Division of Electronics and Embedded Systems, Department of Electrical Engineering, EECS, KTH.