System Level Thermal Testing 101
On-demand Web Seminar
The webinar will introduce the principles and techniques of thermal measurements in complex systems. Case studies are also included and will show behavior of processors, RAM modules, multi-chip modules, TIM materials, heat sinks and heat pipes in system-like dummies or real systems, some hints on system design for thermal testability will be given.
The webinar will introduce the principles and techniques of thermal measurements in complex systems.
While a series of standards regulates the methodology of single component measurements enabling easy comparison of power components produced at different vendors; in the system field ad-hoc methods are used in the design phase and also in production testing regarding thermal properties.
Moreover, while the most critical parameter is typically the chip temperature of power components in the system actual measurements are often limited to package or cooling mount temperatures.
In the first section of the presentation classical temperature measurement techniques are treated, yielding pointwise temperature information or surface temperature maps of a package, board or more complex system.
In the second section a generalized picture will be given. As not all system variants can be tested at all possible power profiles there is an emerging need for valid quantities describing system behavior at arbitrary powering in time. The transient thermal testing methodology reveals such system details as heat transfer from one component to the other, influence of board composition and trace patterns on heat spreading, limits of heat sink/cooling mount capabilities and so on.
Descriptive functions will be defined and their use will be illustrated in time and frequency domain.
What You Will Learn
- Overview of classic thermal measurement techniques
- Temperature sensitive parameters of semiconductor devices
- On-chip static and transient measurements in a live system
- Thermal descriptive functions of a live system:
- Self- and transfer thermal impedance
- Time constant spectra
- Complex loci
- Structure functions
- Interpretation of structure functions
- Calibration and correlation techniques
- Basic rules of design for thermal testability
About the Presenter
Development engineering manager Mentor Graphics, Mechanical Analysis Division, MicReD in Budapest. Hungary
He received his MS and Ph.D. in electronics engineering from Technical University of Budapest (BME), Hungary. His research area included computer aided recognition of circuit topologies, development of microprocessors and other circuits. He has been senior lecturer at the Dept. of Electron Devices at BME (now part time). He has developed curricula on Programming, Semiconductor Theory, Design of Integrated Circuits, Computer Algorithms and other topics. Since 1990 he has taken part in more European development projects (TEMPUS, BARMINT, PROFIT, NANOPACK etc.). Since 2000 he has worked for MicReD (now within Mentor Graphics). His main field has been developing hardware and software tools and measurement technologies for thermal characterization of semiconductor devices. He speaks English, German and Russian. He has published many technical papers in journals and in conference/workshop proceedings.
Who Should View
- System designers of electronic systems with high power density
- Thermal engineers
- Engineers interested in reliability issues
Short case studies will show behavior of processors, RAM modules, multi-chip modules, TIM materials, heat sinks and heat pipes in system-like dummies or real systems, some hints on system design for thermal testability will be given.
CAD to CAE: Best Practice for Data Transfer
Understand some of the issues related to 3D data transfer and how these can be mitigated with next generation analysis software.…
Evaluation of Control Set Points for Dual Use Heater Core and Active Grille Shutter (AGS) Systems Using 1D CFD Vehicle Thermal Modeling
This webinar, presented by Computational Sciences Expert Group (CSEG), addresses thermal vehicle management issues and fuel economy implications using 1D CFD simulation - focusing on evaluation of control...…
Other Related Resources
10 Myths of Computational Fluid Dynamics
White Paper: This white paper explains the impact of the latest advances in CFD software that helps companies use CFD to improve product performance, reduce time to market, and lower engineering costs.…
FloEFD for PTC Creo Virtual Lab
Virtual Lab: FREE hands-on trial! Try FloEFD for PTC Creo free for 30 days and test-drive 20 powerful CFD tasks including LED thermal characterization, CPU cooling analysis, hydraulic loss determination and more.…