Nâng cao hiệu quả thiết kế RTL: Sức mạnh và lợi ích của môi trường phát triển tích hợp
Create high-quality code with early detection and correction of coding mistakes in the testbench or RTL.
In today’s rapidly evolving semiconductor design landscape, efficiency and productivity are integral to success. It is here that Integrated Development Environments (IDEs) are making a significant impact. These software suites are much more than programming environments where designers input text or code. They represent a comprehensive ecosystem of tools, utilities, and functionalities, all designed to streamline the development process and catalyze the creation of high-quality code.
An IDE, at its core, brings together several essential features such as code introspection, which allows you to delve deeper into the function or member details, documentation features that facilitate the easy understanding and referencing of your code, autocomplete capabilities to speed up the coding process, and language awareness to identify and rectify coding issues.
Working in tandem, these features address a broad spectrum of coding challenges. This attribute is particularly beneficial when working with Hardware Description Languages (HDLs) like SystemVerilog and VHDL. HDLs, used widely to describe and verify semiconductor designs and models, present their own set of complexities. For instance, each language, be it SystemVerilog with its object-oriented, class-based elements and assertion language features or VHDL with its unique syntax, requires a high level of expertise.
The SystemVerilog and VHDL languages are compiled, not dynamic, which means they can’t be interpreted in real time and run immediately. This need for compilation and the consequent elaboration of these languages necessitates a sophisticated engine, capable of efficiently populating the design for comprehensive checking by an IDE. It’s here that IDEs demonstrate their true potential, offering benefits, including superior project visibility, improved forecasting of code completion, enhanced code uniformity, faster transition to production code, and ultimately, higher quality code.
Fig. 1: An IDE tool (Synopsys Euclide) catching a width mismatch during assignment.
Taking a closer look at these benefits, IDEs help users understand the number of potential code violations, thus giving a starting point for improving the code. Tracking the reduction in code violations over time provides insight into the progress being made in resolving these issues. If the count isn’t decreasing at a satisfactory rate, it indicates that the team may need to increase their efforts.
Furthermore, IDEs promote code uniformity, a crucial factor in ensuring easy documentation, code reuse, and readability. Without a tool to automate, categorize, and enforce coding rules, achieving a uniform code base is a daunting task. IDEs can reduce engineer time lost to simple and complicated mistakes.
Another significant advantage of using an IDE is the acceleration of the transition to production code. By ensuring best practices in coding right at the time of code entry, IDEs allow for instant code improvement. This approach is more effective and efficient than waiting for downstream tools like simulation, formal, or even synthesis to capture code problems.
Finally, IDEs contribute to the production of higher quality code. By diagnosing syntax problems efficiently and providing the context to fix these issues, IDEs facilitate the early detection and correction of coding mistakes in the testbench or RTL. This early detection makes it easier and quicker to fix issues than waiting for the design to be compiled as the first step to determine code problems.
Fig. 2: Revealing a variable that is written but never read.
In the realm of such powerful IDEs, Synopsys Euclide IDE stands out. Designed to help SystemVerilog Designers and Verification Engineers generate quality code, Euclide also provides productivity features to accelerate code creation. It features hundreds of named lint rules developed in collaboration with customers. These lint rules assist both new and experienced engineers in creating high-quality code. By providing a unified view into the product, Euclide enables each team member to produce quality deliverables consistently.
Fig. 3: Synopsys Euclide’s always live problem list with tracking summary.
Euclide’s versatility further enhances its appeal. It can run in batch mode, serving as a continuous integration check to ensure every check-in is of high quality and free of lint errors. Alternatively, it can be used as a code entry tool, providing an interactive environment for users to iterate on new ideas with integrated insights into the design as they create. Watch this webinar for a more in-depth look at how Euclide can help unlock the full potential of your design process.
Eldon Nelson
Eldon Nelson is a Staff Application Engineer at Synopsys. He received his B.S. and M.S. degree in electrical engineering from the University of Minnesota and is a licensed Professional Engineer (P.E.). Before working at Synopsys, Nelson worked for Intel, Micron Technology, IBM, Unisys, and the National Science Foundation. He held a variety of volunteer roles at IEEE and is now the Past Chair of the IEEE Twin Cities Section.
