Improving Medical System Design using a Multi-Discipline Development Environment
On-demand Web Seminar
Modern medical systems have grown in complexity to accommodate ever-increasing demands for functionality and performance. Most medical systems now depend on combinations of hardware and software, and form elaborate mechatronic systems that both monitor and regulate patient health metrics.
Product designs must seamlessly integrate embedded and application software, analog and digital hardware, and mechanical components. Successfully integrating and verifying such complex systems is often costly in terms of time, money, and engineering resources. A multi-discipline development environment and concurrent design methodology provide continuity in system specification, design, implementation, verification, and validation.
This Web seminar describes a top-down, multi-discipline, concurrent design methodology that uses a hardware/software co-development environment to model, simulate, and analyze complex medical systems at multiple levels of design hierarchy. This virtual prototyping environment provides a structure for managing system complexity and ensuring design success. Models from different domains are integrated at each phase of the design flow, allowing system integration issues to be identified and addressed earlier, and helping to reduce overall program time and cost.
This seminar includes a brief cardiac pacemaker system demonstration, showing how a concurrent hardware/software design environment improves system development efficiency. Pacemaker hardware runs with C/C++-based software to control the patient’s heart rate, and with a real-time operating system and graphic engine to model interaction with a remote patient monitoring station.
About the Presenter
Mike Jensen has over 19 years of experience in the Electronic Design Automation (EDA) industry, and has supported and trained engineers worldwide in system simulation and device modeling. He currently works as a Technical Marketing Engineer for Mentor Graphics®, Inc. supporting the SystemVision® simulator product line. Prior to working for Mentor Graphics, Mike held positions in aircraft systems support and lead engineering for the United States Air Force. He holds a BSEE from the University of Utah.
Who Should View
- System design engineers responsible for defining complex function requirements
- System and electrical engineers responsible for electro-mechanical system specification and integration, particularly in rapid prototyping environments where return on tool investment is critical
- Engineering managers concerned about improving quality while reducing design-cycle time
- Engineers and managers involved in analog, digital, or mixed-signal system design
- Embedded C/C++ software developers working on complex multi-domain systems
Improving Complex System Design Reliability and Robustness
Learn how using model-based design can produce order-of-magnitude improvements in productivity and quality and help ensure the reliability and robustness of your next system design. …
Tackling Your Mechatronic System Design Challenges
This session presents an innovative mechatronic system integration capability featuring SystemVision. You will learn how SystemVision uses standards-based modeling, and advanced simulation and analysis...…
Other Related Resources
Time-Varying Modeling of Electric Vehicle Chargers
White Paper: Nonlinear loads, such as those used in electric vehicle chargers, introduce power quality issues within distributions that can have detrimental effects on system assets. This paper presents shows how a...…
Forestalling "11th Hour" Design Problems in System Design
White Paper: This paper discusses ways that model-based development lays the groundwork for an integrated design flow that addresses the complexity challenge once and for all. Thanks to recent advances in modeling languages...…