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Plastics and Elastomers

Metal-based catalysts are widely used in the industrial manufacturing of plastics and elastomers. These catalysts play a crucial role in beginning and improving the polymerization reaction that occurs while these materials are being formed.

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Product List

Title Chemical Name Key Attribute 1 Key Attribute 2
Reaxis C125 Stannous Neodecanoate Inorganic Tin(II) High Reactivity
Reaxis C129 Stannous Octoate Inorganic Tin(II) High Reactivity
Reaxis C154P Stannous Chloride, Dihydrate/Blend Inorganic Tin(II) Blends/Complexes
Reaxis C154S Stannous Chloride, Dihydrate/Blend Inorganic Tin(II) Blends/Complexes
Reaxis C154S + Stannous Chloride, Dihydrate Inorganic Tin(II) Blends/Complexes
Reaxis C154T Stannous Chloride, Dihydrate/Blend Inorganic Tin(II) Blends/Complexes
Reaxis C160 Stannous Oxalate Inorganic Tin(II) High metal content
Reaxis C2012 M70 Dibutyltin Blend Blends/Complexes Low viscosity
Reaxis C208 Dioctyltin bis-(2-ethylhexanoate) Dioctyl Tin Liquid
Reaxis C214 Dioctyltin bis-(isooctyl mercaptoacetate) Thiol-bearing Delayed action
Reaxis C216 Dioctyltin Dilaurate Dioctyl Tin Low viscosity
Reaxis C218 Dibutyltin Dilaurate High Reactivity Low viscosity
Reaxis C220 Monobutyltin Tris-(2-ethylhexanoate) Monoalkyl Tin Low viscosity
Reaxis C221 Dibutyltin Dineodecanoate High Reactivity Liquid
Reaxis C226 Dibutyl Tin bis-(acetylacetonate) High Reactivity Low viscosity
Reaxis C227 Dibutyltin bis-(1-thioglycerol) Hydrolytic stability Thiol-bearing
Reaxis C228 Dioctyltin Diacetate Dioctyl Tin High Reactivity
Reaxis C233 Dibutyltin Diacetate High metal content High Reactivity
Reaxis C248 Dibutyltin Oxide High metal content Solid
Reaxis C248D Dibutyltin Oxide/ Plasticizer Blend Blends/Complexes Liquid
Reaxis C248LC Dibutyltin Oxide High metal content Solid
Reaxis C248T Dibutyltin Oxide + Silane Complex Blends/Complexes Low viscosity
Reaxis C248VM Dibutyltin Oxide + Silane Blends/Complexes Low viscosity
Reaxis C316 Dimethyltin Dioleate (Dimethyl bis(oleoyloxy stannane) High Reactivity Liquid
Reaxis C318 Dioctyltin Dineodecanoate Dioctyl Tin Liquid
Reaxis C319 Dibutyltin Dilauryl Mercaptide High Reactivity Thiol-bearing
Reaxis C320 Dioctyltin Dilauryl Mercaptide Dioctyl Tin Thiol-bearing
Reaxis C3208 Bismuth Neodecanoate Non-Tin High metal content
Reaxis C3210 Bismuth Octoate (Catalyst Grade) Non-Tin High Reactivity
Reaxis C322 Dibutyltin bis-(2-ethylhexyl mercaptoacetate) Thiol-bearing Delayed action
Reaxis C325 Dimethyltin Dineodecanoate High Reactivity Liquid
Reaxis C333W50 Water Soluble Tin Complex No Key Attribute No Key Attribute
Reaxis C416 Dioctyltin bis-(2-ethylhexyl mercaptoacetate) Thiol-bearing Delayed action
Reaxis C417 Dioctyltin Oxide/Silane Complex Blends/Complexes Low viscosity
Reaxis C417V Dioctyltin Oxide and Silane Blends/Complexes Low viscosity
Reaxis C417VM Dioctyltin Oxide/Silane Complex Blends/Complexes Low viscosity
Reaxis C418 Dibutyltin bis-(isooctyl mercaptoacetate) Thiol-bearing Delayed action
Reaxis C616 Zinc Neodecanoate Non-Tin Liquid
Reaxis C620 Zinc Octoate Non-Tin Liquid
Reaxis C708 Zinc/Bismuth Neodecanoate Blend Non-Tin Blends/Complexes
Reaxis C716 Bismuth Neodecanoate Non-Tin Liquid
Reaxis C716LV Bismuth Neodecanoate (Low Viscosity) Non-Tin Low viscosity
Reaxis C717 Zinc/Bismuth Octoate Blend Non-Tin Blends/Complexes
Reaxis C739P50 Proprietary Water Soluble Bismuth Complex Non-Tin Hydrolytic stability
Reaxis C739W50 Water Soluble Bismuth Complex Non-Tin Hydrolytic stability

Catalysts in Plastic Production

In the production of plastics, metal-based catalysts are used to initiate the polymerization reaction between monomers, resulting in the formation of long polymer chains. Metal-based catalysts, including tin catalysts like dibutyltin dilaurate, dioctyltin dilaurate and dibutyltin oxide, are used in the production of polyolefins, polyurethanes and polyesters, which are widely used in the manufacture of packaging materials, automotive parts, and household goods. Other metal catalysts are used in the production of engineering plastics, such as polycarbonates and polyamides, which are used in electronics and automotive components among other industries.

Catalysts in Elastomer Production

Similarly, in the production of elastomers, metal-based catalysts are used to initiate the polymerization reaction between monomers, resulting in the formation of crosslinked polymer chains. The most commonly used metal catalysts for elastomers are organic peroxides and metallic salts, which promote the crosslinking reaction and determine the final properties of the elastomer. Elastomers are used in a wide range of applications, such as automotive tires, gaskets, and seals.

Benefits of Using Metal-Based Catalysts in Plastic and Elastomer Production

The use of metal-based catalysts in manufacturing plastics and elastomers creates distinct benefits. Metal catalysts allow for a controlled and efficient polymerization or crosslinking reaction, resulting in high-quality materials with specific properties and performance characteristics within an efficient production workflow. Metal-based catalysts can be tailored to the specific needs of your application, allowing for the synthesis of materials with unique and specialized properties tailored to your needs. The use of metal catalysts can also increase productivity and reduce production time, leading to cost and time savings for manufacturers of plastics and elastomers.

Overview of Metal-Based Catalyst Use in Plastic and Elastomer Production

Essentially, the use of metal-based catalysts plays a critical role in the manufacturing of plastics and elastomers, allowing for the synthesis of materials with specific and pre-selected properties. The selection of the appropriate catalyst for each application is essential to bring out the desired characteristics in your materials.

If you’re not sure which metal-based catalyst you need, or have further questions on any of our products, please feel free to contact us. You may also request a specialty chemical sample of any of our listed products on their respective product pages.