Holz-Kunststoff-Kombinationen hoher Zähigkeit und Feuchteformbeständigkeit

Schaudy, R.; Wendrinsky, J.; Proksch, E.

doi:10.1515/hfsg.1982.36.4.197

Cited by 6 publications

(2 citation statements)

References 6 publications

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“…From the above it was observed that all the elastic moduli increased, the values of which differed widely depending on the specimen, the monomer used and the level of polymer loading. Such trends have been reported earlier (Mayer 1981;Schaudy et al 1982;Brebner et al 1985). The difference in the moisture content of the starting wood sample was not found to influence the mechanical properties significantly.…”

Section: Radiation Dose For Polymerizationsupporting

confidence: 87%

Studies on certain wood-plastic-composites prepared by gamma irradiation

Thomas¹,

Babu

Neelakandan

1993

Bull. Mater. Sci.

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Wood-plastic-composites have been prepared using locally available soft wood and commercial monomers by vacuum impregnation of monomer in wood and subsequent polymerization by gamma irradiation. The irradiation was performed by means of a 6°Co source of strength 50,000 Ci at 0.2 Mrad/h. The radiation dosage required for maximum conversion Of monomer into polymer was less than 2 Mrad except styrene which required a much larger dose of about 10Mrad. The impregnation efficiency was found to be more for wood with high pore volume. The impregnation efficiency also depended on the ambient pressure: the more the vacuum, the more was the impregnation efficiency. Mechanical strength of the composites was found to be enhanced and water absorption considerably reduced. X-ray diffraction studies showed that the crystallinity of the cellulose did not get affected by the radiation polymerization which suggested that grafting of polymer on to the cell wall took place only in the amorphous regions. Keywnrds. Wood-plastic-composites; gamma irradiation; X-ray diffraction; vacuum impregnation.

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Section: Radiation Dose For Polymerizationsupporting

confidence: 87%

Studies on certain wood-plastic-composites prepared by gamma irradiation

Thomas¹,

Babu

Neelakandan

1993

Bull. Mater. Sci.

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“…At normal temperature this seems to be unlikely. It was therefore surprising that a mixture of this type led to WPC with high impact bending and low volumetric swelling at normal irradiation conditions (Schaudy et al, 1982). The results were even better when a reaction product of diisocyanate and hyroxy-(meth)acrylate or another compound with one isocyanate group and one (meth) acrylic group in the same molecule was used.…”

Section: Improvement Of Toughness (Reduction Of Brittleness)mentioning

confidence: 99%

Wood-plastic combinations with high dimensional stability

Schaudy¹,

Proksch²

1982

Ind. Eng. Chem. Prod. Res. Dev.

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Wood

Nimz¹,

Schmitt²,

Schwab³

et al. 2000

Ullmann's Encyclopedia of Industrial Chemistry

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The article contains sections titled: 1. Morphology and Properties 1.1. Introduction 1.2. Biology of Wood 1.2.1. Anatomy 1.2.1.1. Cell Types 1.2.1.2. Softwoods 1.2.1.3. Hardwoods 1.2.2. Secondary Changes 1.2.3. Cell Wall Formation and Architecture 1.3. Chemistry of Wood 1.3.1. Chemical Components of Wood 1.3.2. Distribution of Components in the Cell Wall 1.3.3. Macromolecular Structure of Cell Wall Components 1.4. Physical Properties 2. Wood‐Based Materials 2.1. Introduction 2.2. Laminate Bonding 2.2.1. Laminated Structural Timber (Glulam) 2.2.1.1. Development 2.2.1.2. Construction and Production 2.2.1.3. Properties 2.2.2. Veneers, Plywood, and Derived Products 2.2.2.1. Development 2.2.2.2. Production of Veneers 2.2.2.3. Principal Types of Plywood 2.2.2.4. Adhesives and Additives 2.2.2.5. Production of Veneer Plywood 2.2.2.6. Properties, Testing, and Uses 2.2.2.7. Engineered Wood 2.3. Particle Bonding 2.3.1. Particle Board 2.3.1.1. Development 2.3.1.2. Types of Particle Board 2.3.1.3. Raw Materials 2.3.1.4. Adhesives and Additives 2.3.1.5. Production 2.3.1.6. Properties, Testing, and Uses 2.3.2. Fiberboard 2.3.2.1. Development 2.3.2.2. Types of Fiberboard 2.3.2.3. Raw Materials 2.3.2.4. Binders and Additives 2.3.2.5. Production Processes 2.3.2.6. Properties, Testing, and Uses 2.3.3. Wood‐Based Materials with Mineral Binders 2.3.3.1. Cement‐Bonded Boards 2.3.3.2. Gypsum‐Bonded Board 2.3.3.3. Magnesia‐Bonded Boards 2.4. Surface Treatment 2.4.1. Veneers 2.4.2. Liquid Paints and Coatings 2.4.3. Coating with Sheets, Short‐Cycle Films, and Decorative Laminates 2.4.3.1. Coating with Foils 2.4.3.2. Decorative Films (Short‐Cycle Films) 2.4.3.3. Decorative Laminates 2.4.4. Properties, Testing, and Uses 2.5. Environmental and Toxicological Aspects 2.5.1. Wood Dust 2.5.2. Emissions 2.5.2.1. Emissions during Production of Wood‐Based Materials 2.5.2.2. Emissions from Finished Materials 2.5.3. Disposal 2.6. Polymer Wood 2.7. Economic Aspects

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Holz-Kunststoff-Kombinationen hoher Zähigkeit und Feuchteformbeständigkeit

Cited by 6 publications

References 6 publications

Studies on certain wood-plastic-composites prepared by gamma irradiation

Studies on certain wood-plastic-composites prepared by gamma irradiation

Wood-plastic combinations with high dimensional stability

Wood

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