Research Line

SwissChips


EPFL Team

  Atienza Alonso David
  Shoaran Mahsa


Our main goals are to develop highly efficient integrated circuits which will allow to perform a large part of the artificial intelligence (AI) workload "at the edge," i.e., on the device, locally, and without the need for cloud access.

Chips for edge AI contain custom-designed (co-)processors optimized for AI tasks and are integrated into edge devices. These chips are also known as AI accelerators or neural processing units (NPUs). Such specialized chips are designed to efficiently run AI algorithms, such as deep learning models, using low power and small area, making them suitable for use in a wide range of edge devices, from cameras to industrial IoT systems and medical devices.

In the realm of IoT, edge AI empowers devices to process data locally, enabling quicker responses and reduced data transfer, thus enhancing overall system efficiency and responsiveness. Likewise in the healthcare sector, edge AI plays a pivotal role by enabling real-time diagnostics, personalized treatments, and closed-loop interventions through localized AI processing.

We hope to fortify the innovation and creation of Switzerland within Europe's technological leadership in this edge AI domain. This highly dynamic field of research is of great strategic importance internationally and Switzerland can enhance through this WP many collaborations already happening within European research and industrial partners in order to secure and further develop its position in this domain.



Related Publications

A Reconfigurable High Dynamic Range Delta-Sigma Front End with Event-Based Decimation for Bandwidth-Efficient Implantable Neural Interfaces
Martinez, Natalia; Sapriza, Juan; Schiavone, Pasquale Davide; Bashford, Luke; Jackson, Andrew; Ansaloni, Giovanni; Constandinou, Timothy; Atienza, David
2025-05-282025 IEEE International Symposium on Circuits and SystemsPublication funded by SwissChips (SwissChips - State Secretariat for Education, Research and Innovation)
Keep All in Memory with Maxwell: a Near-SRAM Computing Architecture for Edge AI Applications
Eggermann, Grégoire Axel; Ansaloni, Giovanni; Atienza Alonso, David
2025-04-25International Symposium on Quality Electronic DesignPublication funded by SwissChips (SwissChips - State Secretariat for Education, Research and Innovation)Publication funded by Edge Companions (Edge Companions)
BiomedBench: A benchmark suite of TinyML biomedical applications for low-power wearables
Samakovlis, Dimitrios; Albini, Stefano; Rodríguez Álvarez, Rubén; Constantinescu, Denisa-Andreea; Schiavone, Pasquale Davide; Peon Quiros, Miguel; Atienza Alonso, David
2024-10-27IEEE Design & TestPublication funded by SwissChips (SwissChips - State Secretariat for Education, Research and Innovation)Publication funded by ACCESS ()Publication funded by Personalized Detection of Epileptic Seizure in the Internet of Things (IoT) Era (Sinergia – interdisciplinary, collaborative and breakthrough)
Bank on Compute-near-Memory: Design Space Exploration of Processing-near-Bank Architectures
Medina Morillas, Rafael; Chamazcoti, Saeideh Alinezhad; Zapater Sancho, Marina; Ansaloni, Giovanni; Evenblij, Timon; Levisse, Alexandre Sébastien Julien; Biswas, Dwaipayan; Catthoor, Francky; Atienza Alonso, David
2024-10International Conference on Hardware/Software Codesign and System Synthesis (CODES 2024)Publication funded by Fvllmonti ((FETPROACT))Publication funded by ACCESS ()Publication funded by SwissChips (SwissChips - State Secretariat for Education, Research and Innovation)
An Evaluation Framework for Dynamic Thermal Management Strategies in 3D MultiProcessor System-on-Chip Co-Design
Huang, Darong; Costero Valero, Luis Maria; Atienza Alonso, David
2024-09-09IEEE Transactions on Parallel and Distributed SystemsPublication funded by SwissChips (SwissChips - State Secretariat for Education, Research and Innovation)