Triethoxyvinylsilan...

Triethoxyvinylsilane / Vinyltriethoxysilane

Triethoxyvinylsilane / Vinyltriethoxysilane

Min.Order / FOB Price:Get Latest Price

1 Metric Ton

Negotiable

  • Min.Order :1 Metric Ton
  • Purity: 98%min
  • Payment Terms : L/C,T/T

Keywords

VTEO A-151 KBE-1003

Quick Details

  • Appearance:colorless transparent liquid
  • Application:Used in the synthesis of organosilicon intermediates and polymer compounds, and can also be used as a silane coupling agent
  • PackAge:180kg iron drum or 900kg IBC tank
  • ProductionCapacity:600|Metric Ton|Month
  • Storage:Store in a cool, dry, well ventilated warehouse.
  • Transportation:

Superiority:

Used in the synthesis of organosilicon intermediates and polymer compounds, and can also be used as a silane coupling agent

Details:

Colorless liquid Silane Coupling Agent A-151 Vinyltrimethoxysilane CAS NO. 78-08-0


Vingyltriethoxysilane

Property and Index:
Colorless or yellowish transparent liquid, soluble in organic solvent, insoluble in the water if PH is 7, but soluble in water if pH is 3.0 to 3.5.
CAS No.: 78-08-0

Density(P20)g/cm3  0.9718±0.0050
Refractive Index( )  1.3925±0.0050
Application:

Polymer Modification

A-151 is used to modify polyethylene and other polymers by grafting its vinyl group to the polymer backbone using a radical initiator, such as peroxide. This provides a polymer with pendant trimethoxysilyl groups that may be used as moisture-activated crosslinking sites via hydrolysis of the alkoxy groups followed by condensation of the resulting silanols.

Crosslinking of Silane-Grafted Polymers.

The reaction of Silane-grafted polyethylene to form a crosslinked or vulcanized polyethylene uses water to form the crosslinks. This technology is widely used around the world for commercial applications in wire and cable insulation, tubing, and other similar uses.

The basic reaction sequence is as follows: polyethylene is reacted (grafted) with vinyltrimethoxysilane, using a peroxide initiator, in an extruder. The grafted polyethylene is then formed into a finished product, such as cable jacketing, wire insulation, or pipe. The forming step is usually done by a second extrusion, during which a catalyst for the moisture-cure step is added. Finally, the formed article is exposed to moisture or hot water to cause hydrolysis of the Silane and condensation to form crosslinks via Si-O-Si bond formation.

Benefits of Crosslinking

Higher maximum use temperature

Reduced deformation under load (creep)

Improved chemical resistance

Superior environmental stress crack resistance

Increased abrasion resistance

Improved impact strength

Memory characteristics (shrink film, tubing)

Improved impact strength

Advantages of Silane Crosslinking over Radiation or Peroxide Crosslinking

Low capital investment

Low operating (energy) costs

Higher productivity

Processing versatility

Thick, thin, or variable thicknesses possible

Complex shaps possible

Wilder processing latitude (control of premature crosslinking)

Useful with filled composites

Applicable to all polyethylene densities and copolymers.
Packing and storage:
(1) Packing:

210LIron Drum:180kg/drum

1000L IBCContainer: 900kg/containe

other packing on request.

(2) This product must be sealed and kept in cool & ventilated place.

Related Searches

Confirm to collect the product to my collection?

OKCancel

About|Contact|Cas|Product Name|Molecular|Country|Encyclopedia

Message|New Cas|MSDS|Service|Advertisement|CAS DataBase|Article Data|Manufacturers | Chemical Catalog

©2008 LookChem.com,License: ICP

NO.:Zhejiang16009103

complaints:service@lookchem.com Desktop View