Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing
This master's thesis deals with the challenges of undesirable thermal expansion in lightweight materials. Thermal expansion of parts or components can lead to malfunction or breakdowns of complete systems in demanding environment where a large temperature gradient often exists. This work invest...
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ndltd-VTETD-oai-vtechworks.lib.vt.edu-10919-794532020-09-29T05:48:29Z Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing Karch, Matthias Ottmar Mechanical Engineering Anderl, Reiner Zheng, Xiaoyu Bohn, Jan Helge Hampe, Manfred J. 3D-printing Microstereolithography Coefficient of Thermal Expansion This master's thesis deals with the challenges of undesirable thermal expansion in lightweight materials. Thermal expansion of parts or components can lead to malfunction or breakdowns of complete systems in demanding environment where a large temperature gradient often exists. This work investigates a class of lightweight materials of which the thermal expansion coefficient can be controlled. Moreover, an additive manufacturing approach to produce these thermal management materials with high fidelity and reliability are critical to reach this goal. To achieve these two major research objectives analytic predictions, simulations, and measurement of thermal expansion coefficient with respect to temperature changes are conducted. Design and optimization of a high precision multi-material manufacturing apparatus has been conducted, leading to significant increase in production quality including reliability, efficiency, and costs. Master of Science 2017-09-29T08:00:42Z 2017-09-29T08:00:42Z 2017-09-28 Thesis vt_gsexam:12989 http://hdl.handle.net/10919/79453 In Copyright http://rightsstatements.org/vocab/InC/1.0/ ETD application/pdf Virginia Tech |
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3D-printing Microstereolithography Coefficient of Thermal Expansion |
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3D-printing Microstereolithography Coefficient of Thermal Expansion Karch, Matthias Ottmar Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing |
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This master's thesis deals with the challenges of undesirable thermal expansion in lightweight materials. Thermal expansion of parts or components can lead to malfunction or breakdowns of complete systems in demanding environment where a large temperature gradient often exists. This work investigates a class of lightweight materials of which the thermal expansion coefficient can be controlled. Moreover, an additive manufacturing approach to produce these thermal management materials with high fidelity and reliability are critical to reach this goal.
To achieve these two major research objectives analytic predictions, simulations, and measurement of thermal expansion coefficient with respect to temperature changes are conducted. Design and optimization of a high precision multi-material manufacturing apparatus has been conducted, leading to significant increase in production quality including reliability, efficiency, and costs. === Master of Science |
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Mechanical Engineering |
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Mechanical Engineering Karch, Matthias Ottmar |
author |
Karch, Matthias Ottmar |
author_sort |
Karch, Matthias Ottmar |
title |
Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing |
title_short |
Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing |
title_full |
Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing |
title_fullStr |
Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing |
title_full_unstemmed |
Design and Manufacturing of Hierarchical Multi-Functional Materials Via High Resolution additive Manufacturing |
title_sort |
design and manufacturing of hierarchical multi-functional materials via high resolution additive manufacturing |
publisher |
Virginia Tech |
publishDate |
2017 |
url |
http://hdl.handle.net/10919/79453 |
work_keys_str_mv |
AT karchmatthiasottmar designandmanufacturingofhierarchicalmultifunctionalmaterialsviahighresolutionadditivemanufacturing |
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1719347032486838272 |