System-level design of mixed-signal ASICs using simulink: Efficient transitions to EDA environments
Andreas Mauderer, Jan-Hendrik Oetjens Robert Bosch GmbH, Wolfgang Rosenstiel, University of Tuebingen
EETimes (5/28/2012 10:29 AM EDT)
Simulink models are used as executable specifications in commonly used design flows for mixed-signal ASICs. Based on these specifications, analog and digital components are directly implemented in mixed-signal design environments. This step constitutes a large leap of abstraction. In this work, we address this aspect by showing and discussing an approach for automated transitions from Simulink models representing analog and digital components to HDL descriptions using HDL Coder. On the one hand, we translate analog Simulink components into continuous-value discrete-time HDL descriptions that can serve as reference behavioral models in the mixed-signal design environment. On the other hand, for digital Simulink components, we developed optimizations for Simulink models in order to achieve resource-efficient HDL descriptions. Both solutions in the analog and digital domain were integrated into Simulink Model Advisor. An evaluation of the presented design flow, as applied to an automotive hardware design, is shown.
To read the full article, click here
Related Semiconductor IP
- Flexible Pixel Processor Video IP
- Bluetooth Low Energy 6.0 Digital IP
- MIPI SWI3S Manager Core IP
- Ultra-low power high dynamic range image sensor
- Neural Video Processor IP
Related White Papers
- Mixed-signal SOC verification using analog behavioral models
- Increase battery life of Consumer Products using architecture simulation
- The Gatekeeper of a Successful Design is the Interconnect
- How to Design SmartNICs Using FPGAs to Increase Server Compute Capacity
Latest White Papers
- Enabling Space-Grade AI/ML with RISC-V: A Fully European Stack for Autonomous Missions
- CANDoSA: A Hardware Performance Counter-Based Intrusion Detection System for DoS Attacks on Automotive CAN bus
- How Next-Gen Chips Are Unlocking RISC-V’s Customization Advantage
- Efficient Hardware-Assisted Heap Memory Safety for Embedded RISC-V Systems
- Automatically Retargeting Hardware and Code Generation for RISC-V Custom Instructions