How to use UML in your SoC hardware/software design: Part 1
By Stephen J. Mellor, John R. Wolfe and Campbell McCausland, Mentor Graphics
Jul 17 2006 (10:00 AM), Embedded.com
From determining the hardware/software partition to meeting performance and cost objectives, the job of building systems on a chip has never been easy, and with ever-increasing demand for more functionality packed into smaller spaces consuming less power, building systems on a chip is unquestionably becoming more complex every day.
Add to this the desire to shrink development cycles and reduce the overall cost of the system, and you have an acute need to raise the level of abstraction and reduce unnecessary miscommunication between hardware and software teams.
To meet this need, several specification languages have been proposed such as Handel-C, SystemC, and so on. These languages unite hardware and software to some degree, but C is at such a low level of abstraction that software engineers have begun to move away from it as a specification language and use a more abstract modeling language, namely the Unified Modeling Language (UML).
As with most of the hardware-oriented C variants, one solution to the problem of taking a software-oriented language for use in SoC is to add hardware features to it. The same has been proposed for UML [1], but we propose the opposite: use only the minimum necessary to specify system functionality.
We then use model mappings, coupled with marks that indicate which mapping rule to apply, to translate the application model into hardware and software description languages. This approach enables a major simplification of the use of UML in SoC, and corresponding simplification of the work of SoC developers.
Jul 17 2006 (10:00 AM), Embedded.com
From determining the hardware/software partition to meeting performance and cost objectives, the job of building systems on a chip has never been easy, and with ever-increasing demand for more functionality packed into smaller spaces consuming less power, building systems on a chip is unquestionably becoming more complex every day.
Add to this the desire to shrink development cycles and reduce the overall cost of the system, and you have an acute need to raise the level of abstraction and reduce unnecessary miscommunication between hardware and software teams.
To meet this need, several specification languages have been proposed such as Handel-C, SystemC, and so on. These languages unite hardware and software to some degree, but C is at such a low level of abstraction that software engineers have begun to move away from it as a specification language and use a more abstract modeling language, namely the Unified Modeling Language (UML).
As with most of the hardware-oriented C variants, one solution to the problem of taking a software-oriented language for use in SoC is to add hardware features to it. The same has been proposed for UML [1], but we propose the opposite: use only the minimum necessary to specify system functionality.
We then use model mappings, coupled with marks that indicate which mapping rule to apply, to translate the application model into hardware and software description languages. This approach enables a major simplification of the use of UML in SoC, and corresponding simplification of the work of SoC developers.
To read the full article, click here
Related Semiconductor IP
- TSMC 7nm 0V75 / 0V9 ESD Local Clamp – Low Cap
- TSMC 65nm 3V3 ESD Local Clamp – Rad Hard
- TSMC 5nm 1V8, 1.2V and 0.9V ESD Local Protection – Low Cap
- TSMC 3nm 3V3 ESD Local Clamp
- TSMC 3nm 1V2 ESD Local Clamp – Low Capacitance
Related Articles
- How to manage changing IP in an evolving SoC design
- How to make virtual prototyping better than designing with hardware: Part 1
- How to reuse your IIoT technology investments - now
- How to use snakes to speed up software without slowing down the time-to-market?
Latest Articles
- Hardware-managed heterogeneous high-bandwidth memory and flash in LLM inference systems
- LACE: Large Language Model Aided Multi-Agent Framework for Agile RISC-V Instruction Extension
- A Process-Aware Hybrid Si/IGO Monolithic-3D 6T SRAM with BEOL Pass-Gates for the 2nm Node
- Automated Estimation of MBIST Area and Test Time in Heterogeneous Memory IPs via Stacked Ensemble Framework
- VIPER: Architecture-Aware Performance Modeling for Processing-in-Memory Design-Space Exploration