Gelest, Inc. ETHYLTRIETHOXYSILANE SIE4901.2

Description
Additional Properties Hydrolytic Sensitivity 7: reacts slowly with moisture/water Safety Hazard Info oral rat, LD50: 13,720 mg/kg Packaging Under Nitrogen Alkyl Silane - Conventional Surface Bonding Aliphatic, fluorinated aliphatic or substituted aromatic hydrocarbon substituents are the hydrophobic entities which enable silanes to induce surface hydrophobicity. The organic substitution of the silane must be non-polar. The hydrophobic effect of the organic substitution can be related to the free energy of transfer of hydrocarbon molecules from an aqueous phase to a homogeneous hydrocarbon phase. A successful hydrophobic coating must eliminate or mitigate hydrogen bonding and shield polar surfaces from interaction with water by creating a non-polar interphase. Although silane and silicone derived coatings are in general the most hydrophobic, they maintain a high degree of permeability to water vapor. This allows coatings to breathe and reduce deterioration at the coating interface associated with entrapped water. Since ions are not transported through non-polar silane and silicone coatings, they offer protection to composite structures ranging from pigmented coatings to rebar reinforced concrete. A selection guide for hydrophobic silanes can be found on pages 22-31 of the Hydrophobicity, Hydrophilicity and Silane Surface Modification brochure. Ethyltriethoxysilane ; Triethoxysilylethane ; Triethoxyethylsilane Viscosity: 0.70 cSt ΔHvap: 32.6 kJ/mol γc of treated surfaces: 26.3 mN/m Vapor pressure, 50 °C: 10 mm Critical temperature: 314 °C Specific heat: 1.80 J/g/° Coefficient of thermal expansion: 1.5 x 10-3 Trialkoxy silane
Datasheet
Description
Additional Properties Hydrolytic Sensitivity 7: reacts slowly with moisture/water Safety Hazard Info oral rat, LD50: 13,720 mg/kg Packaging Under Nitrogen Alkyl Silane - Conventional Surface Bonding Aliphatic, fluorinated aliphatic or substituted aromatic hydrocarbon substituents are the hydrophobic entities which enable silanes to induce surface hydrophobicity. The organic substitution of the silane must be non-polar. The hydrophobic effect of the organic substitution can be related to the free energy of transfer of hydrocarbon molecules from an aqueous phase to a homogeneous hydrocarbon phase. A successful hydrophobic coating must eliminate or mitigate hydrogen bonding and shield polar surfaces from interaction with water by creating a non-polar interphase. Although silane and silicone derived coatings are in general the most hydrophobic, they maintain a high degree of permeability to water vapor. This allows coatings to breathe and reduce deterioration at the coating interface associated with entrapped water. Since ions are not transported through non-polar silane and silicone coatings, they offer protection to composite structures ranging from pigmented coatings to rebar reinforced concrete. A selection guide for hydrophobic silanes can be found on pages 22-31 of the Hydrophobicity, Hydrophilicity and Silane Surface Modification brochure. Ethyltriethoxysilane ; Triethoxysilylethane ; Triethoxyethylsilane Viscosity: 0.70 cSt ΔHvap: 32.6 kJ/mol γc of treated surfaces: 26.3 mN/m Vapor pressure, 50 °C: 10 mm Critical temperature: 314 °C Specific heat: 1.80 J/g/° Coefficient of thermal expansion: 1.5 x 10-3 Trialkoxy silane
Datasheet

Suppliers

Company
Product
Description
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ETHYLTRIETHOXYSILANE - SIE4901.2 - Gelest, Inc.
Morrisville, PA, United States
ETHYLTRIETHOXYSILANE
SIE4901.2
ETHYLTRIETHOXYSILANE SIE4901.2
Additional Properties Hydrolytic Sensitivity 7: reacts slowly with moisture/water Safety Hazard Info oral rat, LD50: 13,720 mg/kg Packaging Under Nitrogen Alkyl Silane - Conventional Surface Bonding Aliphatic, fluorinated aliphatic or substituted aromatic hydrocarbon substituents are the hydrophobic entities which enable silanes to induce surface hydrophobicity. The organic substitution of the silane must be non-polar. The hydrophobic effect of the organic substitution can be related to the free energy of transfer of hydrocarbon molecules from an aqueous phase to a homogeneous hydrocarbon phase. A successful hydrophobic coating must eliminate or mitigate hydrogen bonding and shield polar surfaces from interaction with water by creating a non-polar interphase. Although silane and silicone derived coatings are in general the most hydrophobic, they maintain a high degree of permeability to water vapor. This allows coatings to breathe and reduce deterioration at the coating interface associated with entrapped water. Since ions are not transported through non-polar silane and silicone coatings, they offer protection to composite structures ranging from pigmented coatings to rebar reinforced concrete. A selection guide for hydrophobic silanes can be found on pages 22-31 of the Hydrophobicity, Hydrophilicity and Silane Surface Modification brochure. Ethyltriethoxysilane ; Triethoxysilylethane ; Triethoxyethylsilane Viscosity: 0.70 cSt ΔHvap: 32.6 kJ/mol γc of treated surfaces: 26.3 mN/m Vapor pressure, 50 °C: 10 mm Critical temperature: 314 °C Specific heat: 1.80 J/g/° Coefficient of thermal expansion: 1.5 x 10-3 Trialkoxy silane

Additional Properties


  • Hydrolytic Sensitivity 7: reacts slowly with moisture/water
    Safety
  • Hazard Info oral rat, LD50: 13,720 mg/kg
  • Packaging Under Nitrogen
    Alkyl Silane - Conventional Surface Bonding
    Aliphatic, fluorinated aliphatic or substituted aromatic hydrocarbon substituents are the hydrophobic entities which enable silanes to induce surface hydrophobicity. The organic substitution of the silane must be non-polar. The hydrophobic effect of the organic substitution can be related to the free energy of transfer of hydrocarbon molecules from an aqueous phase to a homogeneous hydrocarbon phase. A successful hydrophobic coating must eliminate or mitigate hydrogen bonding and shield polar surfaces from interaction with water by creating a non-polar interphase. Although silane and silicone derived coatings are in general the most hydrophobic, they maintain a high degree of permeability to water vapor. This allows coatings to breathe and reduce deterioration at the coating interface associated with entrapped water. Since ions are not transported through non-polar silane and silicone coatings, they offer protection to composite structures ranging from pigmented coatings to rebar reinforced concrete. A selection guide for hydrophobic silanes can be found on pages 22-31 of the Hydrophobicity, Hydrophilicity and Silane Surface Modification brochure.
    Ethyltriethoxysilane; Triethoxysilylethane; Triethoxyethylsilane
  • Viscosity: 0.70 cSt
  • ΔHvap: 32.6 kJ/mol
  • γc of treated surfaces: 26.3 mN/m
  • Vapor pressure, 50 °C: 10 mm
  • Critical temperature: 314 °C
  • Specific heat: 1.80 J/g/°
  • Coefficient of thermal expansion: 1.5 x 10-3
  • Trialkoxy silane
Supplier's Site Datasheet

Technical Specifications

  Gelest, Inc.
Product Category Inorganic Chemicals and Compounds
Product Number SIE4901.2
Product Name ETHYLTRIETHOXYSILANE
Chemical Formula C 8 H 2 0 O 3 Si
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