Abstract
Coupled thermal-electric computational mechanics techniques have been developed to understand the temperature distribution along a special design spring and cantilever probe body in order to model the probe burn phenomenon for conduction. The experimental maximum current carrying capability tests have been performed and compared with numerical solutions. Reasonably good agreement was observed between experimental and numerical results. A predictive model was developed as a design tool to enable faster probe design for cantilever or vertical types, assembly and test cycle for a wafer sort environment. In addition to the first mode, transient heat transfer between a heated spring probe and its close environment is investigated. A continuum finite volume simulation is used to analyze the heat flow within and from the resistively heated probe to its environment. Experimental results are conducted for spring probe with laminar air flow and without air flow. The numerical and experimental results are compared and high similarity is observed.
Original language | English |
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Pages (from-to) | 610-616 |
Number of pages | 7 |
Journal | Applied Thermal Engineering |
Volume | 98 |
DOIs | |
Publication status | Published - 5 Apr 2016 |
Externally published | Yes |
Bibliographical note
Publisher Copyright:© 2015 Elsevier Ltd. All rights reserved.
Funding
This research was supported by a Marie Curie International Reintegration Grant within the European Union Seventh Framework Programme under grant # 271545 . We also thank SV Probe Inc. R&D members for the discussions and contributions in this study.
Funders | Funder number |
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Seventh Framework Programme | 271545 |
Keywords
- Joule heating
- Numerical simulation
- Probe burn
- Vertical spring probe
- Wafer probe