|
HS Code |
643330 |
| Chemical Name | Aluminium Tri-sec-butoxide |
| Chemical Formula | Al(OC4H9)3 |
| Molecular Weight | 246.32 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Density | 0.95 g/cm3 (at 20°C) |
| Boiling Point | Approx. 150°C (decomposes) |
| Solubility In Water | Reacts with water |
| Melting Point | -60°C (approximate) |
| Refractive Index | 1.430–1.438 |
| Flash Point | 37°C |
| Cas Number | 2269-22-9 |
| Purity | Typically ≥97% |
| Odor | Characteristic, alcoholic |
| Storage Conditions | Store under inert atmosphere, tightly closed |
As an accredited Aluminium Tri-Sec-Butoxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of Aluminium Tri-Sec-Butoxide is securely packaged in an amber glass bottle with a screw cap, labeled with hazard warnings. |
| Shipping | Aluminium Tri-Sec-Butoxide is shipped in tightly sealed, corrosion-resistant containers, typically under inert gas to prevent moisture and air exposure. It should be handled with caution, stored in cool, dry conditions, and protected from heat, sparks, and open flames. Comply with local, national, and international transportation regulations for hazardous materials. |
| Storage | Aluminium Tri-Sec-Butoxide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from moisture, air, and incompatible substances such as acids and oxidizers. Protect from heat, flames, and sources of ignition. Use under inert atmosphere if possible and avoid contact with water, as this chemical hydrolyzes readily and can release flammable gases. |
Applications of Aluminium Tri-Sec-Butoxide in Industrial ManufacturingAluminium Tri-Sec-Butoxide serves as a critical organoaluminium intermediate in several industrial sectors. As a direct manufacturer, we support end-users with consistent quality for reproducible performance in diverse downstream applications. The following use cases reflect established market needs in coatings, ceramics, catalyst preparation, specialty glass, and advanced composite production. 1. Sol-Gel Derived Advanced CeramicsMany technical ceramics employ non-aqueous sol-gel routes utilizing aluminium alkoxides to ensure controlled hydrolysis and avoid unwanted by-products. Aluminium Tri-Sec-Butoxide dissolves in various organic solvents to form stable sols, which are then hydrolyzed and condensed into homogeneous oxide matrices. Precise metering during hydrolysis directly influences phase purity, pore size, and microstructure in alumina-based ceramics used for filtration membranes, cutting tools, and electronic substrates. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Coating Binder Synthesis for Industrial PaintsAluminium Tri-Sec-Butoxide acts as a crosslinking agent for binder resins such as alkyds and polyesters in high-solids industrial coatings. It introduces metal-oxygen bridges that enhance paint hardness, solvent resistance, and weather durability. Formulators control alkoxide loading during resin cooking to balance crosslink density and maintain film flexibility, meeting industry benchmarks for anti-corrosion and protective finishes on metal substrates. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Catalyst Precursor for Ziegler-Type PolymerizationPolyolefin manufacturers use aluminium alkoxides as components in the preparation of Ziegler-Natta catalyst systems. Here, the compound functions as a co-catalyst or activator for titanium or vanadium bases, controlling the polymerization initiation rates and microstructure of the resultant polymers. Specific purity and water content control is mandatory to prevent deactivation, with feeding points and molar ratios precisely regulated by automated catalyst preparation units. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialty Glass Manufacturing for Optical ApplicationsProducers of high-index and specialty silica-alumina glass leverage aluminium alkoxides as a uniform source of aluminium oxide when blending glass formers. The low-temperature processability and controlled hydrolysis of the raw material prevent unwanted crystallization and optimize dopant dispersion. Meticulous dosing protocols ensure homogeneity in optical fibers, advanced display substrates, and specialty container glass for pharmaceuticals. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Crosslinking Agent in Advanced Composite MaterialsEngineers select aluminium alkoxides to crosslink and reinforce hybrid organic-inorganic matrices in aerospace and automotive composite systems. During resin formulation, the compound reacts with functional group sites in the polymer backbone, generating covalent bridges that improve matrix cohesion and heat resistance. The selection of loading rates and reaction conditions is based on targeted thermal and mechanical properties defined by composite specification sheets. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Aluminium Tri-Sec-Butoxide prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Aluminium tri-sec-butoxide stands out in the lineup of organoaluminium compounds, not just for its robust role as a catalyst and precursor but for its reliability batch after batch. At our plant, we work with this compound on a daily basis, and its practical value keeps proving itself to both seasoned chemists and process engineers across industries. When talking about a specialty reagent like this, it’s worth cutting through the technical clutter and getting straight to what truly matters based on real-world experience.
Each drum or bulk container coming off our filling line carries more than a chemical. It represents a careful process from sourcing the highest quality sec-butyl alcohol to strict purification steps that ensure product consistency. Our technicians, with decades behind them handling organometallics, know that consistency matters more than achieving a record-busting purity once in a blue moon. The product is usually clear to straw colored, with a faint characteristic odor — a sign of the proper synthesis pathway, not a contaminant.
Specifications can look alike on paper: assay above 97 percent, water content tightly controlled, trace metals below detectable limits. The meaningful differences show up in the plant, not just in the lab. Colleagues remind me that when the moisture levels drift, even marginally, the effectiveness as a catalyst drops and processes downstream slow down. We've invested heavily in equipment upgrades that keep atmospheric moisture out, including sealed reactors and moisture-monitoring sensors. It’s common sense: a batch that gets it right the first time frees up capacity, reduces waste, and avoids the headaches of rework or troubleshooting.
We don’t just manufacture aluminium tri-sec-butoxide as if it were any solvent or commodity. This compound’s power lies in its controlled reactivity. Its structure — three sec-butoxy groups bound to an aluminium core — creates a tailored steric profile. In everyday terms, this means it activates certain reactions that other aluminium alkoxides either can’t touch or do so less efficiently. Our technical staff routinely helps customers adjust their flows to take advantage of its unique properties, especially where clean transesterification or targeted alkoxide exchange is needed.
Comparison with other aluminium alkoxides — like the isopropoxide or ethoxide types — uncovers a few real differences in outcomes. Customers aiming for tighter selectivity in sol-gel processes or looking for a slightly more controlled hydrolysis rate often favor the sec-butoxide. The lower volatility compared to isopropoxide versions minimizes evaporative losses, which matters for both process yield and workplace air quality. The steric size of the sec-butyl group influences reaction rates and product profiles, notably in producing uniform inorganic films or high-performance ceramics.
Aluminium tri-sec-butoxide finds its way into places that don’t always show up on product brochures. As a manufacturer, we hear directly from end-users — sometimes the engineer responsible for a single reactor, sometimes the R&D specialist troubleshooting a complex pilot program. They look for a product that doesn’t cause surprises after scaling from gram-scale spins to thousand-liter reactors. This compound remains a go-to in several types of synthesis:
If a process calls for aluminium alkoxides, switching from ethoxide or isopropoxide to sec-butoxide isn’t a matter of swapping one bottle for another. Plant trials typically reveal sharper performance curves with the sec-butoxide, especially in applications where moisture sensitivity or precise timing matters. Since sec-butyl groups are bulkier, they make the compound slightly less aggressive than the isopropyl variant, so end-users often see less byproduct formation and cleaner phase separations. We see fewer fouled reactor jackets and downstream filters.
Much of our work as a manufacturer involves ensuring that what leaves our gates matches what shows up in your process. With aluminium tri-sec-butoxide, this means doing the basics right: nitrogen-blanketed storage, secure drum seals, and regular QA sampling. Customers often report spending less time trouble-shooting off-batch results when sticking to a trusted source.
One recurring concern surrounds exposure to moist air. A careless decant on a humid day quickly leads to hydrolysis and the formation of white, insoluble gels. Those gels are a headache to clean and waste product — every mishandled pail means more downtime for a customer. We encourage plant operators to use inert gas whenever possible and to avoid drawn-out transfers between containers. Our packaging line favors sealed steel drums or lined IBCs, which reduce risk in the warehouse and during transit. Over decades, the drum design has evolved based on real-life plant feedback, and we keep revisiting packaging protocols based on what logistics teams report back.
Safety always gets attention in our facility. Aluminium tri-sec-butoxide reacts strongly with water, and the exotherm can escalate rapidly. Our staff use full PPE and dedicated flammable cabinets. Small leaks get contained with dry inert absorbents, not water. Emergency drills happen quarterly, and we've integrated feedback from both near-miss events and the rare but instructive actual spill. Customers visiting our site walk away appreciating that good practice means no shortcuts when it comes to organometallics.
Some of the loyalty this product commands comes from its consistent performance, but much rests on the trust users place in the manufacturing process. We’ve seen industries move away from less predictable zinc or tin alkoxides due to stability issues with end products. Aluminium tri-sec-butoxide brings fewer surprises. In sol-gel applications, researchers report tighter control over porosity and refractive index, which is tough to attain with alternatives.
Repeatability in scale-up matters. One customer, a producer of specialty ceramics for high-temperature electronics, ran side-by-side batches using our tri-sec-butoxide and a competitor’s isopropoxide. With the sec-butyl version, they saw cleaner phase separation, higher conversion rates, and were able to stretch cleaning intervals further thanks to reduced fouling. These details rarely appear in marketing flyers, but matter every time an operator clocks in for a shift. From agricultural encapsulation to catalysts in pharmaceutical intermediates, this compound’s behavior in production environments quietly sets it apart.
Concerns about residual impurities come up every month in customer meetings. We don’t believe in hiding behind technical bullet points. Instead, we walk buyers through batch records, QA logs, and purification system reports. Some alternative sources cut corners, blending recycled fractions or skipping distillation steps. Our experience proves that inorganics at trace levels — vanadium, titanium, or iron even in low ppm ranges — can throw off entire production runs of high-purity ceramics or make coatings fail accelerated aging tests. Every batch gets analyzed for metals and organics, with results attached for customer review. Feedback from labs running thousands of advanced analyses supports our approach to raw material traceability.
Every plant encounters setbacks; what matters is how we respond. In the early days, we faced periodic issues with precipitation inside storage tanks during transport in cold weather. Turns out, keeping control of temperature in transit — not just within the plant — makes a significant difference. As a response, our shipping department added insulated jackets for winter runs and revised loading/unloading SOPs. This small change kept product homogeneous even after long journeys through freezing conditions, cutting customer complaints during February and March nearly to zero.
On another front, we used to field calls from early adopters in semiconductor precursor applications, complaining about batch-to-batch variability in dielectric film thickness. Our process engineers spent the better part of a year working close with both R&D and QC departments to overhaul our fractional distillation. The investment in process control software and sensors paid off — thickness tolerance on thin films now runs within much tighter bounds. The level of stability found in our current batches didn’t come from reading a manual; it arose from hands-on fixes in direct dialogue with frustrated but ultimately loyal customers.
Getting down to brass tacks, aluminium tri-sec-butoxide brings a different set of reaction kinetics and physical handling compared to isopropoxide or ethoxide siblings. The sec-butyl groups impart lower volatility and less pronounced odor, making handling smoother — less vapor means less need to ramp up ventilation, especially for operators working routine double-shifts. Less aggressive hydrolysis provides room for fine adjustments in sol-gel formation, helping R&D teams dial in the specific morphologies they’re after.
Processes sensitive to trace water benefit from the higher hydrophobicity, which in practical terms means operators spend less time monitoring for premature precipitation or searching for cellophane-wrapped bags of desiccant to toss into open drums. The isopropoxide analogue, on the other hand, makes up in lower cost what it lacks in specificity — but quality-focused operations still lean into the predictability of sec-butoxide derivatives.
Manufacturing teams with high-throughput requirements often prefer sec-butyl based aluminium alkoxides because line stoppages from filter clogging run much lower. We’ve compared downtime logs at several toller facilities, and those using our product consistently record fewer unplanned cleaning events. Less downtime means shorter production cycles and higher yields at the end of the quarter.
We’ve heard it from every technical conference in the past decade — environmental stewardship sits squarely on the table. Aluminium tri-sec-butoxide aligns well with growing demand for processes avoiding strong acids or heavier metals. The alcohol byproduct is less toxic and easier to manage than what comes off some tin or titanium catalysts, reducing downstream treatment steps. Several customers have built entire product lines around cleaner sol-gel and polymer modification processes where regulatory compliance hinges on traceability and reduced hazardous waste.
We’re not insulated from the push for green chemistry. Staff chemists work alongside environmental auditors to track waste, optimize solvent recovery, and develop protocols that minimize loss or exposure. We’ve also begun sharing case studies with customers trying to shrink their scope 3 emissions, encouraging them to favor compounds like aluminium tri-sec-butoxide that integrate more cleanly into closed-loop systems.
This attention adds up. Over the years, plants that swap to our aluminium tri-sec-butoxide as a catalyst report reduction in process emissions, cleaner effluent, and simpler regulatory reporting. These impacts ripple up the supply chain — both in hard numbers for annual sustainability disclosures and softer benefits like worker safety and reputation with clients.
Our main clients range from multinational chemical companies to family-run specialty producers. Each brings unique challenges. The high-purity film market demands rigorous batch certification and traceable supply chains; agricultural chemical producers care more about cost-to-performance and just-in-time delivery. Throughout, aluminium tri-sec-butoxide adapts as a reliable middle ground. Handling practices scale from five-liter glass flasks to tank trucks with only modest changes in protocol — a testament to the compound’s stability when produced and packed with care.
Small-scale researchers ask hardest about batch reproducibility and trace impurity data. They want reassurance before committing scarce research funding. Large-scale customers dig into logistics, packaging stability, and just-in-time scheduling. Our technical staff, production supervisors, and logistics planners work together to close gaps. Over years of feedback, we’ve steadily added features: online COA downloads for immediate batch data, streamlined loading for urgent orders, and a technical hotline run by chemists who have worked the shifts themselves.
We think about the supply chain every day, especially these past years with persistent raw material swings and transport delays. Aluminium tri-sec-butoxide isn’t immune to these outside forces, but our vertically-integrated sourcing and long-standing supplier relationships help maintain availability even during crunch times. Investment in process automation keeps costs predictable, so customers budgeting annual projects know what to expect — and aren’t left scrambling by seasonal price spikes or sudden shortages.
R&D doesn’t stop. There’s growing demand for tailored grades: higher-purity for electronics, specialty blends for new-generation coatings, and low-residue versions for optics manufacturers. Listening to those requests, we’ve devoted part of our pilot plant to small-batch innovation, running short lots with custom specs to support early-stage trials. These pilots often lead to long-term volume orders once customers see the benefit of tuning formulations with consistent and well-characterized materials.
The dialogue with users gets blunt sometimes, but that’s how real change happens. We remain committed to both long-time partners and those taking their first steps with aluminium tri-sec-butoxide. It’s about more than moving tons — years of experience tell us that a quality organoaluminium reagent can quietly transform a process from unpredictable to robust and repeatable.
We wouldn’t tell others how to run their shop, but the track record of seasoned operators using aluminium tri-sec-butoxide points to a few best practices. Keep containers tightly closed between uses; don’t let the compound idle too long in open air. Precondition newer equipment with an inert flush before introducing the reagent the first time. Minimize exposure time when transferring from drum to reactor, and always add the alkoxide to solvents, not the other way around, to prevent splashing and unexpected reactivity.
Plan for periodic training updates. Our teams refresh procedures twice a year, with a focus on chemical transfer, leak response, and ventilation. Involve end users in safety briefings; their firsthand stories often clarify risks that paperwork alone cannot capture. Review QA certificates regularly and communicate openly with your supplier; traceability saves more than just time during audits.
The plant floor and the QC lab don’t always see eye to eye, but with aluminium tri-sec-butoxide, collaboration between them leads to smoother processes and higher output.
Experience from years in this business tells us that success doesn’t come from just supplying a product. It comes from anticipating needs, listening closely to real-world feedback, and improving every link in the chain — from synthesis and purification to safe transport and hands-on user support. Aluminium tri-sec-butoxide reflects this approach. It’s more than an entry on a catalog; it’s a practical solution raised by the daily experience of both our staff and end users. As we look forward, we’ll keep refining both our process and our partnership with a goal shared by every good manufacturer: to help customers achieve results that matter in the field, not just on paper.