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HS Code |
513000 |
| Chemical Name | Tetraethyl titanate |
| Chemical Formula | Ti(OC2H5)4 |
| Molar Mass | 228.16 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Density | 1.05 g/cm3 |
| Melting Point | -23 °C |
| Boiling Point | 155 °C (decomposes) |
| Solubility In Water | Reacts |
| Refractive Index | 1.47 |
| Cas Number | 3087-36-3 |
As an accredited Tetraethyl Titanate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tetraethyl Titanate is supplied in a 500 mL amber glass bottle with a tightly sealed cap, featuring hazard and handling labels. |
| Shipping | Tetraethyl Titanate should be shipped in tightly sealed containers, protected from moisture and air, and away from incompatible substances due to its flammability and moisture sensitivity. Shipping must comply with relevant hazardous materials regulations, including proper labeling and documentation. Handle with care to prevent spills or leaks during transit. |
| Storage | Tetraethyl Titanate should be stored in a cool, dry, and well-ventilated area, away from sources of moisture, heat, and ignition. Keep the container tightly closed and protected from light. Store separately from acids, alcohols, and oxidizing agents to prevent hazardous reactions. Use compatible, corrosion-resistant containers, and ensure proper labeling. Handle under inert atmosphere if possible to minimize hydrolysis. |
Applications of Tetraethyl Titanate in Industrial ManufacturingTetraethyl Titanate is a key organotitanium precursor used in multiple industrial sectors. As the original manufacturer, we observe significant adoption across coatings, catalysts, ceramics, polymers, and electronics. Each downstream application demands precise compliance adherence, tailored dosing, and process-specific integration to yield high-performance end products. 1. Crosslinking Agent for Industrial CoatingsIndustrial coatings producers rely on Tetraethyl Titanate to enhance crosslink density in alkyd, polyester, and urethane chemistries, especially in heat-cured and baking enamel systems. The compound improves chemical resistance and mechanical properties via transesterification-based crosslink acceleration. Operators must precisely monitor usage and curing conditions to meet targeted film performance and regulatory compliance in automotive, marine, and heavy equipment topcoats. Industry compliance standards
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2. Titanium Dioxide Precursor in Ceramic and Glass ManufacturingCeramic and technical glass plants use Tetraethyl Titanate as a high-purity titanium source for doping, opacification, and specialty coating formation. It decomposes cleanly at elevated temperatures, permitting uniform phase control in glass-ceramics, piezoelectrics, and dielectric insulators. Trace metal impurities must stay below critical thresholds to maintain dielectric strength and optical performance. Industry compliance standards
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3. Catalyst Component in Olefin PolymerizationPolyolefin plants utilize Tetraethyl Titanate as an intermediate in the manufacture of titanium-based catalysts for Ziegler-Natta polymerization. Its controlled hydrolysis permits bespoke Ti dispersion and oxidation state, directly influencing polymer molecular weight and comonomer selectivity. Handling protocols address pyrophoricity and require inert atmospheric control during feed and reaction stages. Industry compliance standards
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4. Dielectric Layer Precursor in Electronic Component FabricationElectronics fabrication facilities select Tetraethyl Titanate as a sol-gel precursor for forming high-k TiO2 gate oxides and capacitor dielectrics. Accurate dosing and hydrolysis allow defect-free, pinhole-free thin films suitable for microelectronics and photovoltaic applications. Process control tightens around water content, pH, and annealing to ensure dielectric constants and leakage tolerances meet design targets. Industry compliance standards
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5. Adhesion Promoter for Polyolefin and Polyester FilmsFilm converters and packaging film manufacturers employ Tetraethyl Titanate to promote adhesion between difficult-to-bond substrates such as polyolefins, polyesters, and metallized films. By forming titanium-oxygen bridges at the interface, this additive permits long-term lamination strength and resistance to delamination during converting, printing, and field use. Dosing must align with film thickness and downstream thermal exposure. Industry compliance standards
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6. Synthesis of Functional Titanate Coupling AgentsSpecialty chemical producers utilize Tetraethyl Titanate as a base molecule for in-situ synthesis of organofunctional titanate coupling agents, such as monoalkoxy and chelated titanates. These compounds cement inorganic fillers within polymer matrices, enhancing mechanical properties, filler dispersion, and moisture resistance in thermoplastics, rubbers, and specialty composites. Stringent process and impurity controls maintain the reactivity and performance-toxicity balance. Industry compliance standards
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Competitive Tetraethyl Titanate prices that fit your budget—flexible terms and customized quotes for every order.
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Every day on our production floor, the journey of tetraethyl titanate begins with meticulous attention to detail. As manufacturers, we encounter its unique character first hand. This compound, known to many as titanium tetraethoxide or tetraethoxytitanium, stands out in our portfolio for more than its chemical formula. Our experiences with this product stretch from large reactors delivering premium purity to the careful packing process that ensures quality preservation. Reliable tetraethyl titanate starts with robust process control and an understanding that minute fluctuations, even in ambient humidity, can change a batch’s profile. Employees wear full protective gear and equipment gets calibrated daily. This offers clear lessons: handling this titanium ester means respecting its sensitivity and appreciating the results that consistency delivers for every client.
Unlike common commodity chemicals, tetraethyl titanate demands both tight quality assurance and tailored batch workflow. In our reactors, we target molecular weight and purity by using precise feed rates and rigorous distillation. The final product typically boasts a purity above 98%. Moisture content remains below 0.05%. Our team always checks for trace impurities – water, ethanol residues, and trace metals – via in-house GC and ICP testing. We deliver the product in specialized containers, usually stainless steel or glass-lined, never plastics since those can react or leach contaminants.
As a liquid at room temperature, tetraethyl titanate is colorless to pale yellow, though oxidation can deepen its hue. Experience tells us storage in dry conditions is critical. Without tight sealing, it reacts quickly to air and moisture, forming titanium dioxide and ethanol. We’ve learned that protective atmosphere (argon or nitrogen) extends shelf life. Our customer feedback reinforces our view: shipment in properly sealed drums, free from headspace, prevents hydrolysis, reduces odor, and ensures the material meets end user needs right up to application.
Customers span coatings, electronics, catalyst manufacturing, and advanced ceramics. Not every batch goes to the same end-use, so our production teams pay attention to slight spec differences. In sol-gel processing, for instance, research labs and industrial ceramics producers rely on our highest-purity tetraethyl titanate for unrestricted hydrolysis and condensation rates. These customers care about achieving repeatable particle formation and consistent physical properties in oxides and composite films. We see that control over reaction rates hinges on batch trace moisture and consistent purity. If water sneaks in, hydrolysis occurs too quickly, forming uneven gel structures and hurting final product strength or clarity.
Paint and coatings specialists demand material with predictable reactivity. In their work, tetraethyl titanate functions as a cross-linking agent or adhesion promoter. The smallest impurity can interfere with these chemical pathways — past experience taught us that shipments returned for failing film adhesion knew no exceptions to this rule. That’s why our technical staff run QC on every outgoing drum.
Catalyst producers focus on titanium alkoxide’s ability to introduce titanium into their advanced catalyst matrices. Purity matters less than batch-to-batch reactivity — we provide options with slightly adjusted trace by-products when it suits their formulas. Both chemical plant and research-scale operations engage us with technical discussions rather than off-the-shelf purchasing. We gladly help them balance reactivity, cost, and ease of handling. The most frequent question we address concerns storage and dosing to minimize hydrolysis, which points to the single most important lesson: success depends more on technical partnership than standard product supply.
Titanium alkoxides come in several forms, with tetraethyl titanate just one option. We also produce tetraisopropyl titanate, tetrabutyl titanate, and their mixed-alkoxy cousins. Customers often ask us to explain real-world performance differences, not just chemical structure. From our hands-on perspective, the key differences emerge from volatility, reactivity, and ease of handling.
Tetraethyl titanate hydrolyzes faster than tetraisopropyl titanate. For fast curing or where rapid oxide formation is necessary, many choose the ethyl ester. That said, the ethyl group’s lower molecular weight creates heightened volatility and increased sensitivity to air and moisture. Our loading facilities keep environmental emissions under control, and transfer lines feature sealed connections to prevent accidental exposure — safety measures that paid for themselves over the years.
On the other hand, tetraisopropyl titanate’s larger alkoxy group slows down hydrolysis. This slower reactivity appeals in situations where gradual film or network growth makes for smoother, pinhole-free coatings. Our operations teams have seen fewer problems with gelling in isopropyl batches, but always remind clients to monitor ambient humidity just as closely.
Tetrabutyl titanate has its own quirks: higher viscosity, somewhat less volatility, and slower rates in hydrolysis. For customers blending alkoxides into resins or inks, the butyl variant’s “slower hand” makes it a favorite for systems that require time before setting up. At the same time, these products show different levels of compatibility with solvents and polymers. Over time, practical handling and storage considerations drive most purchasing decisions — not theoretical chemical distinctions.
We are often asked about pricing and performance as if selection rests only on cost. Reflecting on years of customer applications, we can say a mismatch in reactivity or issues with the wrong titanate often results in higher downstream losses. It’s not always the “cheapest” product that wins, but the one that matches process and environmental demands.
From our earliest production campaigns, safe and reliable handling of tetraethyl titanate required operational know-how. This is not a chemical to take lightly. Moisture control stands as a daily challenge. A careless drum seal or a leaky pipe fitting means impurities shift and the product degrades. Over the years, our team introduced drying protocols, triple seals, and inert gas covers on bulk tanks. Temperature blips during storage push hydrolysis faster and send erratic results downstream.
Every time we improve a process, we see the difference in customer feedback. For instance, large scale users in pigment manufacturing pointed out a haze problem arising in their product after switching titanate suppliers. Our technical team traced the problem to slightly elevated water content in the supplied tetraethyl titanate. Only after upgrading our inline drying systems—something we hesitated to take on due to cost—did off-spec batches stop.
Handling also brings health and safety responsibilities. Our operators rely on closed transfer systems, splash guards, and continuous ventilation to avoid the characteristic fumes and skin hazards. Years of training stress clarity and discipline—one forgotten glove or missing face shield could result in burns or harmful exposure. Each day’s production log reminds us of the value of consistency and communication: product quality and employee safety go hand in hand.
Manufacturing teaches us that the story of any chemical doesn’t end at the factory gates. We maintain technical support for every client, large or small. No off-the-shelf catalogue could prepare us for the range of projects that reach us. Whether it’s a mid-size coatings plant switching from a German to a domestic formula or a research group scaling up a new thin-film deposition, close communication is vital.
Every specification sheet leaves room for interpretation. For end uses in electronics and optics, anger over micron-level flaws in coatings taught us to provide direct technical consultations, application notes, and follow-up test results. Solving real-world performance issues often means going back to adjust production and logistics more than anyone admits. Our close relationships with users lead to tailored advice on handling, dosing strategies, and troubleshooting.
We know transportation brings its share of headaches. Delays at port, unexpected forklift damage, or temperature swings in transit all reach us sooner or later. We invest in monitored shipments backed by insurance. Our after-sale support traces every complaint to its source, whether in shipping, storage, or application. Our experience shows even the best documentation can’t answer every question: genuine solutions come from empathy, flexibility, and ongoing learning.
Tetraethyl titanate plays a growing role in advanced manufacturing and green innovation. We see clients testing new catalysts for cleaner fuel processing and next-generation ceramics for electronics. Sustainability matters more than ever before, and reformulations aim at lower emissions and safer process conditions. Our own team looks for ways to recycle titanium by-products or recover solvents wherever feasible.
Trends point toward greater regulatory scrutiny. Worker safety remains in the spotlight, and environmental permits restrict emissions and waste. Our investment in closed systems, real-time monitoring, and safer drum logistics set a benchmark that new market entrants cannot ignore. We share this know-how with clients who request guidance for on-site handling and local compliance.
Digital transformation impacts us too. Batch data, quality logs, and real-time tracking of humidity and temperature all flow together for better outcomes. We spot problems faster and share actionable data with clients. Past lessons from blind spots—delayed detection of water ingress or overlooked trace contaminant—now guide daily practice.
Our pride in manufacturing tetraethyl titanate comes from solving problems and fostering long-standing partnerships. We see this chemical as more than a line item or commodity: it is a core building block for technologies as diverse as anti-reflective glass, scratch-resistant coatings, industrial catalysts, and next-generation ceramics. Each batch we ship reflects not just compliance but a tradition of hands-on attention, passed from senior operators to apprentices and reinforced by lessons earned.
No one batch runs exactly like the last. Even experienced teams see differences in yield, color, or aroma, shaped by season, raw material origin or something as simple as a gasket’s age. Real reliability develops from recognizing what controls those differences and responding before a problem leaves the plant. By honestly sharing these insights, we hope to strengthen results for every user—from the smallest R&D operation to global manufacturers scaling new markets.
Markets change, regulations tighten, and technology marches forward. Yet every improvement in tetraethyl titanate production begins with the basics: clean raw materials, accurate monitoring, prompt troubleshooting, and genuine partnership. We learned to see specifications as starting points, not limits. The end application always has the last word, whether in surface smoothness, mechanical strength, or reactivity.
We listen when clients share field experience—unexpected gelling, solvent incompatibilities, or better alternatives for catalyst preparation. No manual answers every question. New uses appear every year, demanding fresh techniques and process tweaks. Our best remedies grow out of open collaboration, careful study, and readiness to re-examine old assumptions.
We never regard tetraethyl titanate as a commoditized or interchangeable product. Each client’s success ties to the consistency, reliability, and support we offer. The knowledge gained by getting our hands dirty across hundreds of production campaigns flows outward in every batch. Offering more than just supply, we act as technical partners and problem solvers.
Our commitment remains simple yet demanding: safe, reliable, and consistent supply of tetraethyl titanate, guided by experience and grounded in the realities of manufacturing, logistics, and the dynamic needs of modern industry. Our customers push us to innovate and uphold standards. Each shipment contains more than a chemical—it carries the results of our learning, dedication, and the commitments we share with every user, every day.
