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Tin Specialty Chemicals

Reaxis brings to you an extensive range of tin chemicals, crucial for myriad industrial applications. Our current portfolio includes a variety of inorganic tin and organotin compounds. The diversity in our product line delivers solutions to formulation challenges in coatings, adhesives & sealants, surface finishing, energy storage, water treatment, glass, oil & gas and plastic end-use applications. Chemicals for tin applications come in a wide variety of forms, let our chemical experts help you choose the perfect one for your end-use. 

Due to our upcoming merger, these products will be available going forward on the website for TIB Chemicals, under homogenous catalysis.

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Product List

Title Chemical Name Key Attribute 1 Key Attribute 2
Reaxis C1001 Stannous Pyrophosphate Inorganic Tin(II) High metal content
Reaxis C125 Stannous Neodecanoate Inorganic Tin(II) High Reactivity
Reaxis C129 Stannous Octoate Inorganic Tin(II) High Reactivity
Reaxis C154 Stannous Chloride, Dihydrate Inorganic Tin(II) High metal content
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 C162 Stannous Chloride, Anhydrous Inorganic Tin(II) High metal content
Reaxis C188 Stannous Oxide Inorganic Tin(II) High metal content
Reaxis C2012 M70 Dibutyltin Blend Blends/Complexes Low viscosity
Reaxis C2013 Dioctyltin Diacetyl Acetonate Dioctyl Tin 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 C248DN Dibutyltin Oxide/Plasticizer Blend Blends/Complexes Liquid
Reaxis C248DP 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 C314 Dioctyltin bis-(2-ethylhexyl maleate) Dioctyl Tin Liquid
Reaxis C316 Dimethyltin Dioleate (Dimethyl bis(oleoyloxy stannane) High Reactivity Liquid
Reaxis C317 Dibutyltin bis-(2-ethylhexyl maleate) Low viscosity 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 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 E10 Sodium Stannate Inorganic Tin(IV) Aqueous solution
Reaxis E140 Potassium Stannate Inorganic Tin(IV) Stannates
Reaxis E140P Potassium Stannate, Peroxide Grade Inorganic Tin(IV) Stannates
Reaxis E144 Sodium Stannate Inorganic Tin(IV) Stannates
Reaxis E144P Sodium Stannate, Peroxide Grade Inorganic Tin(IV) Stannates
Reaxis E155 Stannous Sulfate Crystal Inorganic Tin(II) High metal content
Reaxis S25 Stannous Chloride Dihydrate Inorganic Tin(II) Aqueous solution
Reaxis S45 Stannous Chloride Dihydrate Inorganic Tin(II) Aqueous solution
Reaxis S50 Stannous Chloride Solution Inorganic Tin(II) Aqueous solution
Reaxis S72 Stannous Chloride Solution Inorganic Tin(II) Aqueous solution

Reaxis: Your Reliable Source for Tin Chemicals & Catalysts

Reaxis is a specialty chemical company with a commitment to providing high-quality tin chemicals, including inorganic tin and organotin options, for a wide range of applications. Our diverse range of tin products, coupled with our deep understanding of tin chemistry and large-scale manufacturing, makes Reaxis an ideal partner for new product development and problem-solving.

Introduction to Tin Chemicals

From their first use in the Bronze Age through modern times, tin chemicals have continued to evolve as critical performance additives in applications ranging from personal care to industrial catalysis. Their evolution stems from the versatile nature of elemental tin, which can be refined and processed to form two families of compounds: inorganic tins (e.g. stannous chloride dihydrate and stannous octoate) and organometallic tins (e.g. dibutyltin dilaurate and dimethyltin dineodecanoate).

Chemistry of Tin Chemicals

Tin compounds exist in two stable oxidation states: Sn2+ (stannous, tin(II)) and Sn4+ (stannic, tin(IV)). The Sn3+ oxidation state is accessible; however, it is unstable and very few kinetically stable compounds exist. Two classes of tin compounds can be derived from either oxidation state (i.e., inorganic tins and organometallic tins). Organometallic tins indeed comprise Sn2+ or Sn4+ atoms, however the “organo-” contribution is derived from the presence of tin-carbon (Sn-C) bonds. Inorganic tin species do not contain Sn-C bonds and are chemically and physically different from organometallic tins.

Applications of Tin Chemicals

Some common applications and the related chemicals used include:

Plating Agents:

Stannous Chloride is used as a plating agent and corrosion inhibitor where a protective layer of tin metal plates out on steel-based processing/treatment equipment. Stannous Chloride can also be used as a reducing agent to convert toxic Cr +6 to a less toxic Cr+3 form.

For many years, inorganic tin chemicals were used in the plating of all types of pistons, primarily due to tin’s inherent lubricous nature.

Oil and Gas Drilling:

In oil and gas applications, stannous chloride can be used both in the pickling operations for treating processing equipment and for iron reduction in stimulating well development/production. Stannous sulfate and sodium stannate can be used as a rheology modifier for specific well development needs.

Personal Care:

Tin chemicals are used in a broad range of personal care applications. In addition to the use of stannous fluoride, stannous chloride is used in various dental formulations to improve gum health and prevent enamel erosion. Various inorganic stannates are used to stabilize aqueous hydrogen peroxide solution against decomposition originating from impurities introduced by the dilution waters. Lastly, inorganic tins are used as esterification catalysts to synthesize nonionic surfactants used in emollient additives.

Surface Finishing:

Tin is widely used in the electronics industry in surface finishing to protect base metals from oxidation in addition to securing circuit components (tin is sometimes referred to the “glue of the electronic industry” as it replaces lead as the main solder component). Tin chemicals such as stannous chloride, stannates, sulfates and fluoborates are used in acid and alkaline electrolytic platting processes as either the anode or cathode component.

Homogeneous Catalysts:

As mentioned above, tin chemicals are widely used as catalysts, specifically for esterifications, polyurethanes and silicones to synthesize a broad range of end-use products such as coatings, adhesives and sealants, plastics, and foams. Stannous octoate, stannous decanoate, stannous oxalate, stannous chloride, and dibutyltin dilaurate are commonly used as catalysts. Stannous octoate is the common catalyst used in the production of biodegradable polylactic acid (PLA)/ corn starch-based plastics.

Lubricants:

Given that tin is considered as a “soft” metal with a fairly low melting point, various tin chemicals and compounds are used as lubricant additives, including stannous octoate and stannous neodecanoate.

Batteries/Renewable Energy Storage:

Tin chemicals are being studied as anode components in next-generation battery systems as a simple, cost-effective way to increase the amount of energy that lithium batteries can store. By focusing on tin-chemical anodes, the hope is to overcome the limitations of current lithium-ion technology, paving the way for more sustainable and efficient power solutions.

Glass:

Various tin chemicals are used in the processing of industrial and consumer glass products acting as either strengthening or temperature stability additives. Stannous chloride and stannous oxide are commonly used chemicals. Stannous chloride is a commonly used reducing agent in the silvering process for coating mirrors.

These tin additives for glass contribute significantly to the durability and longevity of glass products, ensuring they can withstand everyday use and extreme conditions. The addition of stannous chloride in mirror production, for instance, results in a reflective surface that is clearer and more resistant to environmental degradation.

Plastics and Thermoplastic Vulcanizates:

Tin chemicals are used in various plastic applications including acting as stabilizers for polyvinyl chloride (PVC) and crosslinking agents used in the synthesis of thermoplastic vulcanates (TPVs) based elastomers. Stannous chlorides are widely used in both industrial and consumer-based TPVs.

This utilization of tin chemicals enhances the physical properties of plastics, such as flexibility, durability, and resistance to heat and UV light, making them more versatile for a wide array of applications. 

References

BNT-Chemicals, “Tin Catalysts & Stabilizers
Google Patents, “Use of tin catalysts for the production of polyurethane coatings