Key Info

Basic Information

Prof. Dr. Renato Negra
Faculty / Institution:
Electrical Engineering and Information Technology
Excellent Science
Project duration:
01.10.2019 to 30.09.2022
EU contribution:
2.994.765 euros
  EU flag This project has received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement No 863337.  


Architecting More Than Moore – Wireless Plasticity for Heterogeneous Massive Computer Architectures


The main design principles in computer architecture have shifted from a monolithic scaling-driven approach towards an emergence of heterogeneous architectures that tightly co-integrate multiple specialized computing and memory units. This is motivated by the urgent need of very high parallelism and by energy constraints. This heterogeneous hardware specialization requires interconnection mechanisms that integrate the architecture. State-of-the-art approaches are 3D stacking and 2.D architectures complemented with a Network-on-Chip (NoC) to interconnect the components. However, such interconnects are fundamentally monolithic and rigid, and are unable to provide the efficiency and architectural flexibility required by current and future key ICT applications. The main challenge is to introduce diversification and specialization in heterogeneous processor architectures while ensuring their generality and scalability.

In order to achieve this, the WiPLASH project aims to pioneer an on-chip wireless communication plane able to provide architectural plasticity, reconfigurability and adaptation to the application requirements with near-ASIC efficiency but without any loss of generality. For this, the WiPLASH consortium will provide solid experimental foundations of the key enablers of on-chip wireless communication at the functional unit level as well as their technological and architectural integration. The main goals are: (i) prototype a miniaturized and tunable graphene antenna in the terahertz band, (ii) co-integrate graphene RF components with submillimeter-wave transceivers and (iii) demonstrate low-power reconfigurable wireless chip-scale networks. The culminating goal is to demonstrate that the wireless plane offers the plasticity required by future computing platforms by improving at least one key application (mainly biologically-plausible deep learning architectures) by 10X in terms of execution speed and energy-delay product over a state-of-the-art baseline.


  • Universitat Politecnica de Catalunya, Spain
  • IMB Research GmbH, Switzerland
  • Alma Mater Studiorum – Universita di Bologna, Italy
  • Ecole Polytechnique Federale de Lausanne, Switzerland
  • Gesellschaft für Angewandte Mikro- und Optoelektronik GmbH, Germany
  • Universität Siegen, Germany