A designer’s journey from concept to manufacturing
With increased competition and changing consumer demands causing increased complexity, the manufacturing industry is experiencing unprecedented change, driving the need for new engineering and technology. Your expanding business deserves a connected, flexible, and, most importantly, cost-effective design, engineering, and manufacturing process.
In this infographic, learn about the steps from design to simulation to manufacturing, as well as how Siemens Accelerated Engineering can address the massive challenges that designers face, allowing you to create better products faster. View it now!
Design to production process in 4 steps
Learn the designer's journey in four steps, from design to simulation to production, using Siemens Digital Industries Software.
How to evaluate a design
Designs can be validated on the fly with connected manufacturing workflows, product data, and teams with Generative Design, paving the way for rapid production.
What is the design process?
Continuous virtual verification and validation are critical to accelerating the product development process because they improve efficiency through smarter processes. Every step of the design process should include identifying problems and designs that do not meet requirements or compliance. Doing so efficiently identifies issues that can be addressed and eliminated early on, allowing you to provide better products faster.
Related resources
Catapult Formal Factsheet
Formally find mistakes, ambiguities, and undesirable design issues or user constraint problems early in the HLS design and verification process. Catapult Formal enables verification and coverage closure flow at C-level.
Catapult High-Level Synthesis and Verification Fact Sheet
Industry leading C++/SystemC High-Level Synthesis with Low-Power estimation/optimization. Design checking, code and functional coverage verification plus formal make HLS more than mere “C to RTL.
High-Level Synthesis Verification Technologies and Techniques
This session will describe applying known and trusted static, formal and dynamic approaches to verification performed at the C++ or SystemC HLS level of abstraction.