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New Renewable and Biodegradable Fiberboards from a Coriander Press Cake
Evelien Uitterhaegen, Quang Hung Nguyen, Othmane Merah, Chris Stevens, Thierry Talou, Luc Rigal, Philippe Evon

New Renewable and Biodegradable Fiberboards from a Coriander Press Cake

Science & Mathematics Published 2016 Verification Pending

Overview & Synopsis

New fiberboards were manufactured from a coriander cake through thermo-pressing, and the influence of thermo-pressing conditions (temperature, pressure and time) on the boards’ mechanical properties, their thickness swelling and their water absorption was evaluated. Because the protein glass transition systematically occurred during molding, this resulted in effective wetting of the fibers. Consequently, all boards were cohesive, with proteins and fibers acting as binder and reinforcing fillers, respectively. Flexural properties were influenced by all tested conditions, and the optimal board was molded at 200 °C temperature, 36.8 MPa pressure and 180 s time. Its flexural strength at break and its elastic modulus were 11.3 MPa and 2.6 GPa, respectively, with the highest surface hardness of the entire study. Simultaneously, thickness swelling and water absorption were low: 51% and 33%, respectively. This board would be applicable as pallet interlayer sheeting for the manufacture of containers or furniture or in the building trade.

Indexed from repository: HAL Open Science (hal.science)
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Document Information

Document Title New Renewable and Biodegradable Fiberboards from a Coriander Press Cake
Author / Organization Evelien Uitterhaegen, Quang Hung Nguyen, Othmane Merah, Chris Stevens, Thierry Talou, Luc Rigal, Philippe Evon
Subject & Discipline Multidisciplinary Academic Open Research
Categories Science & Mathematics
Publication Year 2016
License / Rights Open Access / Creative Commons
Resource Verification Listed PDF (Verification Pending)
Original Host Website HAL Open Science (hal.science)
File Format application/pdf (Portable Document Format)
Language EN
Catalog ID DOC-142960
Original Source Link Visit Source Page on hal.science »