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Tetra-N-Propyl Titanate

    • Product Name Tetra-N-Propyl Titanate
    • Alias TPT
    • Einecs 213-926-5
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    689217

    Product Name Tetra-N-Propyl Titanate
    Chemical Formula Ti(OC3H7)4
    Cas Number 546-68-9
    Molecular Weight 284.32 g/mol
    Appearance Clear to pale yellow liquid
    Density 0.970 g/cm3 (20°C)
    Boiling Point 220°C
    Melting Point -25°C
    Solubility Decomposes in water, soluble in organic solvents
    Refractive Index 1.437 (20°C)
    Flash Point 96°C
    Stability Sensitive to moisture, hydrolyzes in air

    As an accredited Tetra-N-Propyl Titanate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Tetra-N-Propyl Titanate is supplied in a 500 mL amber glass bottle, tightly sealed, with hazard labeling and product information.
    Shipping Tetra-N-Propyl Titanate should be shipped in tightly sealed containers, protected from moisture and incompatible materials. It is typically transported as a hazardous chemical, requiring labeling in accordance with local, national, and international regulations. Shipping must comply with safety guidelines, including the use of suitable packaging to prevent leaks or spills during transit.
    Storage Tetra-N-Propyl Titanate should be stored in a tightly sealed container, away from moisture, heat, and direct sunlight, in a cool, dry, and well-ventilated area. It should be kept away from acids, alcohols, and strong oxidizing agents. Proper labeling and secure placement are essential to prevent accidental exposure or reaction. Use explosion-proof equipment if necessary.
    Application of Tetra-N-Propyl Titanate

    Applications of Tetra-N-Propyl Titanate in Industrial Manufacturing

    Tetra-N-Propyl Titanate serves as an essential alkoxide precursor and catalyst in several specialized industrial sectors. Our manufacturing process ensures precise control over purity and consistency, supporting critical downstream performance in tightly regulated environments. Below is a detailed overview of established application scenarios, including key compliance requirements, formulation guidelines, process integration stages, and final market product categories.

    1. Titanium Dioxide Pigment Production (Sulfate and Chloride Process)

    Major pigment manufacturers use Tetra-N-Propyl Titanate as a controlled hydrolysis precursor to synthesize high-purity titanium dioxide, particularly for applications demanding ultrafine and uniform particle size. The reagent acts as a titanium source that binds with controlled water dosing, resulting in precipitated hydrous titanium dioxide, which is subsequently calcined. This process meets exacting standards for pigment quality, opacity, and safety in both coatings and plastics sectors.

    Industry compliance standards

    • ISO 591-1:2020 for pigment classification and requirements
    • ASTM D476 Standard Specification for Titanium Dioxide Pigments
    • REACH Registration, Evaluation, Authorisation, and Restriction of Chemicals
    • US FDA 21 CFR 73.575 for pigments used in food packaging

    Typical usage ratio

    • Precise titanium source dosing, typically 1.1–1.25 stoichiometric ratio relative to intended TiO₂ yield
    • Addition rates depend on reactor charge scale; adjustments for targeted particle size and morphology

    Downstream process integration

    • Dosed in aqueous hydrolysis reactors as the initial Ti feedstock
    • Requires controlled pH adjustment and agitation for uniform hydrolysate precipitation
    • Pre-treatment filters remove unreacted alkoxide residues prior to calcination

    Final product types

    • High-durability TiO₂ pigments for exterior architectural coatings
    • Plastic masterbatches for food-contact and medical packaging
    • Inkjet and digital printing inks with nano-scale dispersion requirement

    2. Non-Aqueous Sol-Gel Derived Coatings

    Producers of high-performance sol-gel coatings, especially in optical, electronics, and automotive sectors, rely on the precise hydrolysis and condensation characteristics of this alkoxide to create defect-free titania- and silica-titania-based films. Its measured reactivity enables thin film uniformity, tailored refractive index, and high surface hardness needed for antireflective and protective layer deposition.

    Industry compliance standards

    • IEC 61340-5-1 for electrostatic properties in electronics coatings
    • RoHS Directive (2011/65/EU) limiting hazardous substances
    • ISO 9211 for specifications of optical coatings
    • Automotive OEM-specific environmental resistance test protocols

    Typical usage ratio

    • Standard precursor loading: 3–12% by formulation weight depending on desired film thickness
    • Adjusted with alcohol/water molar ratios to tune sol-gel kinetics for single or multilayer builds

    Downstream process integration

    • Introduced during sol formation in alcohol solution reactors, prior to viscosity control
    • Hydrolysis initiated with acid/base catalysis; application by spin-coating, dip-coating, or spray techniques
    • Thermal curing at 200–550°C, according to coating thickness and substrate compatibility

    Final product types

    • Scratch-resistant transparent coatings on plastic or glass lenses
    • Anti-static films for touchscreen assemblies and circuit boards
    • UV-blocking layers on automotive glazing or display covers

    3. Catalytic Polyester Polycondensation (PET and PBT Resin Manufacturing)

    Tetra-N-Propyl Titanate is widely selected by polymer producers as an organometallic catalyst for the transesterification and polycondensation stages in synthetic polyester fibers and resins. Our material offers good reactivity control and allows low byproduct generation, effectively replacing antimony- and tin-based catalysts where low residue and color stability standards are mandatory.

    Industry compliance standards

    • Global Oeko-Tex® Standard 100 requirements for textile fiber safety
    • EU Regulation No 10/2011 for plastics intended for food contact
    • FDA 21 CFR 177.1630 for PET in food packaging
    • ISO 9001 quality management systems for polymer production

    Typical usage ratio

    • Standard catalyst loading: 10–40 ppm Ti in final resin, calibrated according to melt viscosity and color targets
    • Adjusted for recycled PET blends or high-molecular-weight PBT grades

    Downstream process integration

    • Fed into polycondensation reactors after initial ester interchange, under inert gas atmosphere
    • Uniformly dispersed using dedicated catalyst feeders and precision dosing pumps
    • Residual catalyst deactivation by vacuum stripping in final melt phase

    Final product types

    • Textile-grade polyester staple fibers and filament yarn
    • Bottle-grade PET chips for water, beverage, and edible oil containers
    • PBT engineering plastic pellets for electrical and automotive applications

    4. Synthesis of Titanate Coupling Agents for Composite Materials

    Formulators specializing in surface modification of fillers and pigments transform this raw material through ester exchange to manufacture titanate coupling agents. These agents promote interfacial adhesion between inorganic fillers and organic polymer matrices in plastics, rubber, and coatings. The controlled reaction environment ensures targeted functionalization, achieving enhanced mechanical and thermal performance in advanced composites.

    Industry compliance standards

    • ISO 10993 for biocompatibility in medical composite molds
    • UL 94 for flame retardancy of polymer compounds
    • EU Regulation 1907/2006 (REACH) for process chemicals
    • ASTM D4066 for plastic compounding consistency

    Typical usage ratio

    • Alkoxide dose adjusted to achieve 1–1.5% titanate loading on filler mass
    • Flexibility to tune agent chain length and functional group content based on matrix compatibility

    Downstream process integration

    • Utilized as esterification and transalkoxylation precursor in batch or semi-batch reactors
    • Product refined through vacuum distillation and flash drying to remove unreacted alcohol
    • Resulting agents applied via high-speed mixer, kneader, or extrusion with the base polymer and fillers

    Final product types

    • Mineral-filled polyolefin and elastomer compounds
    • High-load calcium carbonate or glass fiber masterbatches for automotive and appliances
    • Conductive and antistatic plastic parts requiring strengthened filler-matrix bonds

    5. High-K Dielectric Thin Film Deposition for Microelectronics

    Microelectronic manufacturers employ Tetra-N-Propyl Titanate as a stable titanium precursor for sol-gel and CVD fabrication of high-K dielectric layers. The material’s purity and reproducibility directly influence film microstructure, capacitance, and leakage current characteristics in DRAM capacitors, gate dielectrics, and passivation layers in advanced semiconductor devices.

    Industry compliance standards

    • SEMATECH Process Standardization Guidelines for 300mm wafer fabs
    • RoHS and REACH compliance for hazardous substance limitations
    • IATF 16949 for quality management in automotive semiconductors
    • IEC 60749 for reliability and environmental testing methods

    Typical usage ratio

    • Generally 0.5–5 vol% precursor in solution for sol-gel; in CVD, vapor delivery rates matched to reactor throughput and targeted film thickness (5–100 nm)
    • Ratios adjusted for precursor partial pressure, substrate loading, and deposition temperature

    Downstream process integration

    • Fed through precision liquid delivery modules for vaporization or direct sol-gel deposition
    • Enters film growth stage prior to annealing, often under controlled humidity or oxygen environments
    • Requires cleanroom-grade handling to maintain device yield and purity

    Final product types

    • Dynamic random-access memory (DRAM) capacitor dielectric stacks
    • Logic and power MOSFET gate oxide films
    • Microelectromechanical system (MEMS) sensor passivation layers
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    Certification & Compliance
    More Introduction

    Tetra-N-Propyl Titanate: High-Purity Titanium Solution for Demanding Applications

    Our Story with Tetra-N-Propyl Titanate

    In the chemical manufacturing business, higher standards aren’t just advertising—they make the difference between success and scrap. Every batch of Tetra-N-Propyl Titanate (TNPT) we produce goes through deliberate checks, tight process controls, and decades of fine-tuning. We don’t shortcut critical steps. Our plant’s glass-lined reactors and meticulously dried process lines reflect years of experience working with sensitive titanate esters.

    TNPT, known by its molecular formula Ti[O(CH2)2CH3]4, delivers a specific balance of reactivity and process stability. Compared to isopropyl or butyl titanates, its compact propyl groups provide a slower, more controllable hydrolysis rate—one of the traits that end-users regularly point out in their feedback. Early on in our manufacturing journey, we saw how academic research and global industrial demand intersected. Propyl titanates gave formulators and R&D chemists a tool that fit a performance niche not covered by other alkoxide options.

    Key Characteristics That Set Our TNPT Apart

    If you have ever handled titanium alkoxides, you know their temperament. TNPT’s yellowish, low-viscosity liquid form, with density typically near 0.990 g/cm3 at room temperature, flows readily through process lines. The product’s hydrolysis and condensation traits make it less prone to instantaneous gelling, which is especially useful in controlled sol-gel syntheses. The boiling point sits above many other titanates, giving a broader thermal operation window. Careful drying and use of high-purity raw materials—an approach we’ve learned the hard way—means you receive a product that resists premature degradation and cloudy by-products.

    Our plant has tailored every drum and IBC filling station to keep the TNPT clear, water-free, and consistent. Color readings, GC purity checks, and titration results show single-digit ppm moisture levels. Over the years, we have refined filtration steps after alkoxide formation, reducing the risk of solid formation in storage tanks—a common pain point in the field.

    Product Uses Supported by Daily Practice

    Customers in the coatings, electronics, and catalyst sectors order TNPT for reasons that repeat across industries. The compound’s balanced reactivity lets end-users prepare high-quality titanium dioxide films by sol-gel techniques. If you are working on dielectric or anti-reflective coatings, TNPT gives consistent particle size control. Formulators cite the manageable hydrolysis rate—unlike tetraisopropyl titanate, which can react quickly and foul lines, TNPT allows longer pot life.

    We have supported pilot trials where academic and industrial teams co-developed titanate crosslinkers for specialty resins—especially urethane and polyester systems. The propyl variant gives strength, transparency, and flexibility in finished polymers. Some factories turn to TNPT to boost the performance of adhesion promoters in glass fiber composites. Others need the precise titanium source for the controlled synthesis of hybrid organic–inorganic materials and advanced ceramics.

    Every month brings new inquiries from researchers using TNPT as a precursor for synthesizing nano-structured titanium oxides, from energy storage layers to biomedical coatings. The product’s lower volatility and robust chemical backbone mean less loss to evaporation and more stable precursor solutions.

    What Sets TNPT Apart From Other Titanates

    Anyone who has managed titanate production knows: not all alkoxides behave the same in real-world manufacturing. TNPT’s propyl groups bridge the gap between fast-reacting ethyl/isopropyl types and sluggish, heavy butyl or octyl titanates. Plant operators working with fast-hydrolyzing grades often complain about the need for immediate use or extensive chilling—TNPT reduces that pressure, especially in humid conditions.

    Unlike heavy butyl titanates, which may separate in low temperatures or clog dispensing equipment, TNPT remains liquid and stable even in cooler storerooms. Isopropyl and ethyl titanates often introduce issues with odor, volatility, and handling hazards; TNPT brings a less pungent experience, valued by teams looking to minimize workplace exposure without sacrificing titanium yield.

    We have tracked comparative yield data from client production lines: When switching to TNPT, reject rates drop thanks to better processability and less need for in-line filtering. This makes a bottom-line impact, whether you’re producing thin coatings, UV-cured adhesives, or catalyst supports. TNPT compounds also tolerate a wider choice of solvent systems. Over the years, resin makers have reported cleaner integration into polar and non-polar solutions alike.

    Process engineers often find that TNPT brings tighter control during film deposition and composite forming. Reworking steps decrease, and large-batch reproducibility improves. Where volatile organic compound (VOC) management is regulated, TNPT’s moderate evaporation characteristics make compliance a more straightforward task.

    Manufacturing Realities Only Producers See

    Some claims about specialty chemicals read as if the products materialize out of thin air. Our TNPT comes from many rounds of joint process development with both suppliers and customers. We source titanium tetrachloride and high-purity n-propanol after years of supplier vetting—subpar feedstock causes batch failures or off-odor that customers notice. Our reactors are sealed and purged with inert gas, and we’ve built closed transfer lines to prevent water ingress and oxidation. Packing lines—engineered with dry nitrogen blanketing—keep moisture out during loading and delivery.

    Expanding capacity for TNPT production took trial, error, and recalibrating every valve and flange gasket to handle alkoxide sensitivity. Trained operators use visual inspections, Karl Fischer titration, and detailed GC runs to document each lot. No computer algorithm replaces the experience of troubleshooting a sudden shift in product color or viscosity. Each fill log details batch numbers so end users can trace back to the origin in seconds.

    We also focus on minimizing waste. Residues from alkoxide manufacture cannot simply be drained or incinerated due to environmental strictness. Our team has established solvent recycling loops and neutralization procedures, aiming for near-zero discharge.

    Challenges and Solutions in Daily Operations

    Producing TNPT at scale raises both technical and regulatory hurdles. Transporting titanate esters means safety protocols and meticulously engineered containers. The risk of accidental hydrolysis is not theoretical; even a simple pinhole leak can generate pressure and sticky by-products. Years ago, we re-invested in insulated storage and over-pressurization alarms to catch incidents early. Every bulk transfer is managed by skilled personnel trained to recognize the distinct signatures of product instability.

    Market expectations also keep evolving. Clients now expect tight batch-to-batch consistency—not only in titanium content but also in haze, acidity, and shelf life. Variability leads to unpredictable downstream yields. We have automated data logging for every production run, so trend analysis catches any drift long before product leaves our factory.

    Regulatory endpoints matter. TNPT must meet REACH and other local chemical safety rules. Our compliance officers submit annual dossiers backed by detailed analytical results. Customers often run their own compliance validation, so transparency and open test data sharing save time and build trust.

    Supporting Diverse Sectors, Supporting Solutions

    Each day brings requests from industries with different needs. Electronics manufacturers opt for TNPT to grow titanium oxide films critical for high dielectric substrates and thin-film transistors. R&D groups at universities appreciate the compound’s manageable hydrolysis profile, making it a mainstay in controlled sol-gel experiments. Coatings and adhesives producers turn to TNPT when they need products with a specific balance of flexibility and hardness in end-use polymers.

    Automotive suppliers have brought specialty resin projects to us that call for high adhesion to glass and metals. By managing the hydrolysis rates, TNPT-based crosslinkers ensure strong bonds, even under aggressive testing. Composite firms turn out higher-end laminates, noting that TNPT blends smoothly without the yellowing or turbidity that haunts other alkoxides.

    In the energy storage sector, TNPT enables synthesis of nano-TiO2 coatings on electrodes. Performance gains in battery cycle life, achieved by teams in Asia and Europe, relate directly to the repeatable purity offered by our TNPT production line. We’ve supplied R&D teams working on solar panel antireflection layers—in these projects, the narrow boiling range and defined molecular weight of TNPT provide the reproducibility panels require to pass international standards.

    Responding to Evolving Market Demands

    Continuous innovation drives the market for TNPT. Feedback cycles with customers guide our adjustments to purification sequences, packaging upgrades, and logistics improvements. Aircraft composite suppliers recently asked for product variants with maximally reduced trace metals—a request that directed us to fine-tune our drying and filtering regimes yet again.

    Our production responds to global shifts. Supply chain disruptions—whether in propanol, shipping, or process gases—force real-time adaptation. Rather than simply passing on higher input costs, we optimize our runs and expand partner networks to maintain reliable supply. TNPT’s market demand follows not only chemical utility but also long-term relationships built on supply consistency.

    Some regions pursue tighter environmental controls on organotitanate handling. Our response combines field training, written protocols, and support for customer plant audits. Each delivery includes thorough quality data, storage advice, and product stewardship discussions. We believe that responsible production keeps TNPT both safe and available for critical industrial innovation.

    Insights Drawn from TNPT Handling and Customer Projects

    We see how TNPT performance shapes outcomes in project after project. Customers working with silica and alumina substrates need thin, consistent titanium coatings. TNPT grants explanations for flawless interfacing where other titanates leave excess residue or produce microvoids. Teams in the adhesives industry need a balance of crosslinking speed and pot life. TNPT’s slower hydrolysis supports flexible window for mixing and application—leading to cleaner process transitions between product runs.

    Process troubleshooting builds on lived experience. Sometimes, a customer reports minor color drift or unexpected gelling. We track back through fill logs, analytical data, and even shipment storage conditions—solutions come not from spreadsheets, but from boots-on-the-ground monitoring.

    Supporting technical questions or rapid pilot runs means providing direct answers and hands-on samples, not generating generic technical sheets. We coach our partners through dilution and pre-mixing procedures when they scale up, knowing from our own operations where bottlenecks and hazards can crop up.

    Future Directions and Quality Priorities

    The push for even cleaner titanates will not slow down. Customer projects lead us to test alternative purification steps. Whether seeking even lower trace impurities or looking for ways to extend shelf life in humid climates, our team collaborates across production, logistics, and R&D. Results turn into concrete process enhancements, not just theoretical improvements.

    Quality assurance remains grounded in hands-on oversight. Automated purity analytics flag issues, but final product approval comes from veteran operators with years of judgment and experience. We have chosen to reinvest in training and in-process control, knowing that customer confidence rests on consistently meeting demanding product specs.

    Packaging innovations—improved drums with inert liners, container-level nitrogen purging, and robust shipping documentation—have grown out of customer audits and product feedback. We work beside end users to develop best storage and handling practices to protect the integrity of every batch.

    Direct Producer Experience: Practical Guidance for TNPT Users

    Handling TNPT responsibly starts at our plant and carries straight through to your application process. We urge safe transfer methods, with dry, inert atmosphere contact at every step. The product performs best when stored at stable, moderate temperatures—our test data suggests 10–25°C keeps hydrolysis risks to a minimum. Always reseal containers tightly, since even minor water vapor exposure can begin hydrolysis.

    If you’re using TNPT in a new resin system, start with controlled bench tests—solvent compatibility, targeted addition rates, and mixing protocols matter. Drawing on years of observed batch consistency, we believe our TNPT offers room for fine-tuning that other titanates don’t. Line up pilot scale production with your plant teams; bring questions about unusual reactions or process drifts directly to us. Our history tracking customer field experiences means faster troubleshooting and true risk reduction.

    Each shipment leaves our dock with certification documents summarizing analytical results, date of production, and batch traceability. We back this up with accessible support—direct discussion with plant managers and account specialists who work with TNPT every day, instead of call center intermediaries.

    Tetra-N-Propyl Titanate: Supporting Tomorrow’s Projects

    As the markets for precision coatings, advanced composites, and nano-materials keep growing, factories and researchers turn to materials with reliable performance and responsive supply. After decades of production, we have learned that direct control of quality, process safety, and customer support keeps TNPT at the front of titanium compound innovation.

    No case study, market projection, or technical brochure does justice to the hands-on craft of making and shipping top-quality TNPT. Our continuous improvement routines, grounded in field-proven practice, set our production apart. Every certificate, every new project, and every incident report builds into a production safety record and quality culture that supports chemical innovators worldwide.

    As your team considers new formulations or scale-ups involving TNPT, rest assured that our dedication to safe, reliable, and traceable manufacturing acts as a real-world foundation for your innovation. Our reactors still hum with lessons learned from every drum and every satisfied customer.