The need for high-performance computing is increasing at a daunting pace and computational heterogeneity is the answer. High-performance computing platforms are increasingly becoming heterogeneous, meaning that they contain a combination of different computational units such as CPUs, GPUs, FPGAs, and AI accelerators. This computational power is needed both in hyped products like autonomous vehicles, but also in (maybe) less obvious cases like industrial automation where future intelligent production will be based on smart, autonomous, and collaborative industrial robots.
When this diverse range of computing architectures are put together on a single board (or a single chip even); the main challenge is to maximize the use of the huge computational power and at the same time to meet several criteria like performance, energy efficiency, real-time response, and dependability. To overcome these challenges, programmers of heterogeneous systems are expected to write parallel software, explicitly describe potential parallelism in their code, and identify which computations should be executed by which type of computational units. Currently, these activities are mostly manual, thereby difficult, slow, and error-prone.
The overall goal of HERO is to provide a framework that enables development of optimized parallel software, automatic mapping of software to heterogeneous hardware platforms, and provision of automatic hardware acceleration for the developed software.
Through HERO, Mälardalen University and five companies will develop deep competence to bridge the syntactic and semantic gap between modeling and programming languages, as well as automatically manipulating artifacts for analysis and synthesis of software for multiple heterogeneous targets. We will be able to drastically enhance the current practices for the design, analysis, and synthesis of parallel software for heterogeneous platforms. We will advance the knowledge on how to design and implement efficient functions for next-generation advanced hardware platforms and develop support for hardware programming, thanks to automatic synthesis of accelerators for heterogeneous parallel platforms.
HERO represents a substantial step towards an innovative solution for systematic and efficient development of complex heterogeneous systems. The research conducted in HERO is expected to provide substantial advances to the current state of the art in (i) model-based development and resource analysis of parallel software, (ii) pre-runtime code-level resource analysis, and (iii) automatic hardware acceleration.
The HERO team is composed of a strong group of researchers covering all aspects of the Synergy, with proven research records, and a group of companies strategically important for Swedish industry. Moreover, the Embedded Systems research environment at Mälardalen University represents the ideal soil for HERO, where we draw from, and contribute, to the rich and deep competence in embedded systems.
|First Name||Last Name||Title|
|Abu Naser||Masud||Senior Lecturer|
A Novel Frame Preemption Model in TSN Networks (Jun 2021) Mohammad Ashjaei, Mikael Sjödin, Saad Mubeen Journal of Systems Architecture (JSA)
What is the future of modelling? (Feb 2021) Antonio Bucchiarone , Federico Ciccozzi, Leen Lambers , Alfonso Pierantonio, Matthias Tichy , Massimo Tisi , Andreas Wortmann , Vadim Zaytsev IEEE Software (IEEE Software)
Blended Graphical and Textual Modelling for UML Profiles: a Proof-of-Concept Implementation and Experiment (Jan 2021) Lorenzo Addazi, Federico Ciccozzi Journal of Systems and Software (JSS)
Optimizing Inter-Core Data-Propagation Delays in Industrial Embedded Systems under Partitioned Scheduling (Jan 2021) Lamija Hasanagic, Tin Vidovic, Saad Mubeen, Mohammad Ashjaei, Matthias Becker 26th Asia and South Pacific Design Automation Conference (ASP-DAC'21)
Semantic Correctness of Dependence-Based Slicing for Interprocedural, Possibly Nonterminating Programs (Dec 2020) Abu Naser Masud, Björn Lisper ACM Transactions on Programming Languages and Systems (TOPLAS)
Simple and Efficient Computation of Minimal Weak Control Closure (Nov 2020) Abu Naser Masud SAS 2020 - 27th Static Analysis Symposium (SAS 2020)