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full text is available online.
| Document ID: | CIE2005-001 |
| Document Type: | Thesis |
| Author: | Matthew Jonathon Dura |
| E-mail Address: | |
| URN: | |
| Title: | Behavior of Hybrid Wood Plastic Composite-Fiber Reinforced Polymer Structural Members for Use in Sustained Loading Applications |
| Degree: | M.S. |
| Department: | Civil Engineering |
| Committee Chair: | Roberto Lopez-Anido, Associate Professor of Civil and Environmental Engineering, Advisor |
| Chair's E-mail: | |
| Committee Members: | WdLtam Davids, Associate Professor of Civil and Environmental Engineering; Douglas Gardner, Professor of Wood Science and Technology |
| Subjects: | Fiber reinforced plastics; Plastic-impregnated wood |
| Date of Defense: | 2005 |
| Availability: |
Abstract
In the design and construction of waterfront structures, there is a need for development of a corrosion resistant, lightweight, cost effective and environmentally friendly structural material. Hybrid wood-plastic composite (WPC) - fiber-reinforced polymer (FRP) structural members would be corrosion resistant, and relatively lightweight (WPC-FRP). An additional advantage is that the WPC portion can be produced from recycled plastics and wood residuals. To use WPC in structural applications a better understanding of the material properties and behavior under sustained loads must be obtained. In this paper, a static and long term experimental program is presented with coupon and full size WPC samples. Coupon testing in tension, compression, and shear is conducted with the aid of a 3-D digital image correlation (DIC) system which allows a full field, non-contact measurement of strains on the material's surface. Full size, hybrid WPC-FRP members are also characterized experimentally in bending. This experimental response is used to generate and verify a non-linear model for long-term material behavior.
Dura, Matthew Jonathon, University of Maine, CIE2005-001
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