Grants
industrial Framework for Embedded Systems Tools
| Description: | iFEST will specify and develop an integration framework for establishing and maintaining tool chains for engineering of complex industrial embedded systems; a significant technical contribution in the field of embedded systems technology. Specific emphasis is placed on open tool chains targeting HW/SW co-design for heterogeneous and multi-core solutions, and life cycle support for an expected operational life time of several decades. iFEST results will demonstrate a potential reduction by 20% of both time-to-market and engineering lifecycle costs, including cost of poor quality. iFEST will enable engineers to explore the architectural design space at a high level of abstraction, select a cost effective design, and from the abstract models produce semiautomatically the hardware and software implementations in a cost effective balance. A major innovation in this respect is the targeted integration of tools from the world of model driven engineering with traditional HW/SW co-design tools. Several iFEST industrial case studies will validate the integration framework and two tool chains, for control and streaming applications. The project will define and validate a set of tool integration technologies that will be used to integrate various combinations of tools into a tool chain. The integration framework will permit tools to be readily replaced within the tool chain; thus dealing with issues such as tool obsolescence and tool lock-in. iFEST will promote standardisation of project results to encourage industrial up-take, aligned with the ARTEMISIA Work Groups on standardisation and tool platforms. iFEST will bring the industry from a state where efficient tool usage in practice is low, to a state where innovative products and services can be designed much more efficiently due to well-functioning tool chains. Having a greatly improved design capacity will create new markets and redefine existing ones for industrial embedded systems. |
| Identification: | Artemis iFEST project, grant No. 100203 |
| Funding: | Artemis Joint Undertaking |
| Duration: | 2010–2012 |
| Investigator: | Lubos Brim |
Software Components in Embedded Systems: Development and Verification
| Description: |
The project aims at development of new original methods an techniques for developing and verification of
applications from reusable components, with emphasis on embedded applications, optimizing these techniques to make
them sufficiently efficient, and providing software support to use them. The project will provide as its outcome
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| Identification: | GAP202/11/0312 |
| Funding: | Czech Science Foundation |
| Duration: | 3/2011-12/2013 |
| Publications: | Publications/Results |
| Investigator: | Ivana Cerna |
Rizeni a overovani vlastnosti komplexnich hybridnich systemu
| Description: | The aim of the project is to support and extend cooperation between the Laboratory of Parallel and Distributed Systems (ParaDiSe) at Faculty of Informatics, Masaryk University in Brno (FI MU) and the research team at Hybrid and Networked Systems Lab (HyNeSs Lab) at Boston University, USA (BU) in order to conduct research in control and verification of hybrid systems. Both control and verification of continuous and hybrid systems involves application of advanced techniques for control strategy synthesis, analysis, verification and validation. The teams bring specific and complementary knowledge to this project. The research team at BU is specialized in control of hybrid and continuous systems, namely biological and robotic systems in particular. The lab has extensive experimental environment for implementation and testing of suggested concepts for robot motion planning. The team at Masaryk University is in the long term aimed at formal verification problematics and especially at verification of linear temporal properties of concurrent systems. The main target of the proposed project can be divided into two areas. The first one is formulation of new approaches for abstraction and modelling of complex systems in order to obtain quite accurate model of the systems, which is to be automatically verified and controlled under complex requirements. The second research area is design and development of methods for synthesis of control strategies based on principles of formal verification. Part of the research is also aimed at usage of the new technologies for improving efficiency of syntesis and verification process. |
| Identification: | LH11065 |
| Funding: | Ministry of Education, Youth and Sports of the CR / Kontakt II |
| Duration: | 3/2011-12/2014 |
| Publications: | Publications/Results |
| Investigator: | Ivana Cerna |
Previous grants
- Automated formal verification using modern hardware (GACR 201/09/P497)
- Verification and Analysis of Large-Scale Computer Systems (GACR 201/09/1389)
- Techniques for automatic verification and validation of software and hardware systems (1ET408050503)
- Parallel and Distributed System (MSM 0021622419)
- Automated Software Verification (GACR 201/06/1338)
- Automated Verification of Parallel and Distributed Systems (GACR 201/03/0509)
- Verification of infinite-state systems (GACR 201/03/1161)
- Concurrent processes - modeling and verification
- Graphical specification of concurrent systems
- Non-sequential Models of Computing -- Quantum and Concurrent Distributed Models of Computing
- Infinite-State Concurrent Systems - Models and Verification
- Algorithms and Tools for Practical Verification of Concurrent Systems
- Distributed and Probabilistic Verification of Computer Systems
- Boundaries of Concurrent Processes Verification
- Decidability and complexity of observational equivalences on infinite-state processes
- (Un)decidable Problems in Process Algebras
- Algorithmic Verification Boundaries for Infinite-State Systems
- Verification of infinite-state concurrent processes
- Analysis of concurrent infinite state systems