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HS Code |
202879 |
| Chemicalname | Tellurium Tetrachloride |
| Chemicalformula | TeCl4 |
| Molarmass | 269.4 g/mol |
| Appearance | White to pale yellow crystalline solid |
| Meltingpoint | 224 °C |
| Boilingpoint | 380 °C (decomposes) |
| Density | 2.92 g/cm³ |
| Solubilityinwater | Reacts with water |
| Odor | Pungent |
| Casnumber | 10026-07-0 |
As an accredited Tellurium Tetrachloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tellurium Tetrachloride, 100g, is packaged in a sealed amber glass bottle, clearly labeled with hazard warnings and secure screw cap. |
| Shipping | Tellurium Tetrachloride is shipped in tightly sealed, corrosion-resistant containers under dry, cool conditions. Packages must be clearly labeled with appropriate hazard warnings, as the chemical is toxic, corrosive, and reacts with moisture. Comply with international and local regulations for hazardous materials, ensuring secure handling to prevent leaks or exposure during transit. |
| Storage | Tellurium Tetrachloride should be stored in a tightly sealed container, made of glass or corrosion-resistant material, and kept in a cool, dry, and well-ventilated area away from moisture, heat, and incompatible substances like strong bases or oxidizers. The storage area should be clearly labeled, and the chemical protected from physical damage. Avoid exposure to air, as it hydrolyzes readily. |
Applications of Tellurium Tetrachloride in Industrial ManufacturingTellurium tetrachloride plays a critical role across multiple industrial sectors, supplying essential tellurium content for high-value processes. As a direct manufacturer, we focus on serving industries with mature, compliant demand and precise application engineering. 1. Advanced Semiconductor DopingSemiconductor manufacturers utilize tellurium tetrachloride for doping silicon, gallium arsenide, and other compound semiconductors to modify electrical conductivity and performance. The material, introduced in vapor or solution phase, delivers tight doping control necessary for high-frequency, infrared, and optoelectronic device fabrication. Strict purity, monitored through ICP-MS analytics, preserves crystal integrity during molecular beam epitaxy (MBE) and chemical vapor deposition (CVD) stages. Industry compliance standards
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2. Glass and Ceramic Colorant ManufacturingSpecialty glass and ceramic producers use tellurium tetrachloride as a colorizing precursor, especially for producing vibrant ruby-red tint in optical glass and colored ceramic bodies. The chloride reacts with forming agents, ensuring uniform dispersion and oxidation to tetrahedral tellurium ions at precise kiln temperatures. Maintaining batch-to-batch consistency requires rigorous process controls from weigh-in to melt fusion. Industry compliance standards
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3. Catalyst Production for Polymer and Fine Chemical SynthesisTellurium tetrachloride functions as a specialty catalyst and catalyst precursor for oxidative reactions, including alkene and acetal oxidation in fine chemical synthesis and for controlled polymer branching. Homecare, performance chemical, and agro intermediate producers employ this compound within fixed-bed catalytic reactors, demanding robust containment and trace impurity monitoring to ensure repeatable reaction selectivity and minimize environmental discharge in line with chemical sector regulations. Industry compliance standards
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4. Electrolyte Additive for High-Energy Battery ResearchBattery developers, especially in the field of rechargeable lithium and sodium-ion batteries, investigate tellurium-based additives for novel electrolyte systems. Incorporation of tellurium tetrachloride helps tune anodic and cathodic interface properties, promoting electron transfer and extending cycle life in prototype cells. Precise dosing and strict anhydrous handling occur in glove box fabrication lines to prevent hydrolysis and maintain material stability up to battery cell sealing. Industry compliance standards
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Years of working with tellurium chemistry have shaped how we approach tellurium tetrachloride. In our facility, every batch of TeCl4 begins with a clear aim: purity, consistency, and reliability. From sourcing raw tellurium to controlling reaction variables, precision must run through the process like an unbroken thread. This approach stands apart from simply handling a chemical as a commodity. Our tellurium tetrachloride isn’t just a bottle of clear liquid; it’s the result of deep chemical knowledge, hands-on experience, and countless cycles of improving purification steps.
Tellurium tetrachloride, or TeCl4, remains a specialty compound not often seen outside select industries and research labs. Unlike tellurium dioxide or the basic elemental form, TeCl4 presents distinct chemistry. It forms as a pale yellow liquid, boiling at around 380°C, putting it in a different league than the softer, white powders or gray crystalline tellurium we handle in other processes. This fluid reacts readily with water, releasing hydrogen chloride and forming tellurium dioxide as a fine solid. That reactivity poses both opportunity and challenge. The compound demands careful storage and handling, but because of its reactive chlorine atoms, it serves unique purposes unachievable with its oxygenated or metallic cousins.
We continually hear from downstream specialists—organometallic chemists, glass manufacturers, and niche catalyst designers—who require TeCl4 specifically for its high reactivity and chlorine content. Where elemental tellurium would sit inert, TeCl4 creates pathways for advanced syntheses. Its volatility and solubility in non-polar solvents make it a valuable halogenating agent and precursor for further tellurium chemistry. The difference from working with tellurium dioxide or tellurium metal is night and day; TeCl4 doesn’t just deliver tellurium, it facilitates transformations only possible with a strong electrophile.
Our regular clients work at the cutting edge of material science or specialty chemical synthesis. They seek tellurium tetrachloride for its reliability in introducing tellurium into organic molecules, where other tellurium sources fall flat. For instance, organic chemists preparing tellurophenes or tellurium-substituted aromatic structures depend on TeCl4 as a chlorinating and functionalizing agent. Other customers require it to add tellurium into specialty glass, improving infrared transmission for fiber optics or rocket sight windows. When high reactivity and controlled delivery of tellurium matter, TeCl4 does a job that neither elemental nor oxide forms can touch.
While handling TeCl4 presents specific hazards—fumes, corrosivity, and potential for hydrolysis—years of safe operation have proven that proper engineering controls, dedicated glass-lined reactors, and sealed transfer systems can tame its volatility. We have put in the hard work of installing dedicated corrosion-resistant gear, strict safety protocols, and comprehensive operator training. The result? Reliability batch after batch, where off-grade material or surprises have no place.
What defines TeCl4 produced in a dedicated tellurium chemistry plant? For us, model means form and function—not just a stock code. Our liquid TeCl4 leaves the final purification step crystal clear, free from metallic particulates and unwanted halide residues. Over the years, we’ve homed in on practical specifications: minimum 99.9% purity by ICP-OES, water content below 30 ppm, and stringent exclusion of sulfur and selenium contaminants. These numbers matter in advanced synthesis, where a trace of impurity sabotages a week’s work or undermines the performance of a high-value product.
Volume flexibility also matters to our customers. Whether they order 100 ml or 25 liters, each container is filled and sealed by operators who understand why containment and custom packaging make a difference. We’ll never forget unplanned learning curves—pitting and leaks from the wrong valve material, or failures to control atmospheric moisture during bottling. Our process now addresses these hard-earned lessons with borosilicate glass, custom-lined steel drums, and nitrogen blankets for every shipment. We understand that even a brief exposure to air will waste an entire vessel’s value, and work tirelessly to stop it before it begins.
Working with TeCl4 stands in sharp contrast to handling tellurium metals, tellurium dioxide, or tellurium hexafluoride. Clients sometimes inquire about switching to cheaper or easier-to-handle compounds, but we consistently see that certain syntheses, such as organotellurium intermediates, simply run best or only with TeCl4. The liquid’s volatility, for one, allows vapor-phase transport—try that with a metal or oxide. The chloride leaves a clear mark in halogenation reactions, introducing tellurium under conditions that wouldn’t even budge powdered tellurium or its basic oxide.
Color tells a story as well—TeCl4 is nearly colorless or pale yellow, while impure or degraded material darkens. Incomplete purification leads to haze or cloudiness, signaling blocked reactors and wasted material. Over time, learning these visual clues has kept both our own processes and our partners’ work efficient. Furthermore, we test not just batch purity, but also aging and stability under agreed storage conditions. Customers who’ve handled off-spec product from unreliable traders—clogged glassware, failed synthesis, and worker complaints about biting fumes—know how frustrating poor handling can become. We commit to thorough post-production checks, not just so documentation looks good, but because we’ve felt the cost of ignoring them.
We source our starting tellurium from domestic and global supply streams, but always insist on upstream documentation. Impurities such as selenium, arsenic or sulfur can all tragically trail in from improperly processed ores. Overlook these, and the entire value of TeCl4 disappears—misplaced a few years ago, a competitor’s customer found their glass clouded after a melt, ultimately traced to a few ppm of selenium in their batch. We pull every relevant analytical lever to catch this before it leaves the plant.
Experience with tellurium tetrachloride reinforces a broader truth in chemical manufacturing: paper specs get you in the door, but true value flows from deep process control and transparency. We’ve watched too many end-users stumble over sub-par or unscrupulously diluted TeCl4, typically supplied by those who treat the substance as just another line on a spreadsheet. We receive frequent remediation requests—resynthesis, repurification, waste management—because shortcut-laden supply chains lead to expensive laboratory failures. This is part of why our entire supply chain remains visible, every step supported by the analytical results to back it up.
There’s an old lesson in specialty chemicals: consistency matters more than heroics. Rather than promise the moon, we focus on uniformity, reliability, and full transparency regarding every production lot. Our analytical certificates don’t just tick regulatory boxes—they’re used by our own team to troubleshoot, continuously optimize, and revisit every metric from purity to shipping stability. The result is not just pride in our product, but long-standing customer relationships born of collaborative troubleshooting and honesty.
As manufacturers, we answer not just to buyers but to workers and the world around us. With volatile chlorinated tellurium, the risks multiply. Our plant uses integrated scrubber systems, recycling hydrochloric acid byproducts rather than venting them. Double-walled containers, automated leak detection, and real-time monitoring keep handling hazards in check. The same care invested in our process follows TeCl4 to its destination—our long-term buyers understand why compatible containers and documented chain of custody protect not just their own operations but the entire lifecycle of the chemical.
Disposal rules get trickier over time, and rightly so. We process spent or outdated TeCl4 through in-house recovery, extracting tellurium for reuse in less sensitive streams while neutralizing chlorine in compliance with strict environmental codes. Regulatory compliance isn’t a marketing checkbox. It comes woven into how we build our systems and track every ounce of substance from delivery to final return of empty containers. This year, our new distillation columns pulled tellurium recapture rates five percent higher than the previous process—a small step on paper, but on a tons-per-year scale, it adds up.
Our team understands that chemical safety isn’t a one-time training—it’s a practice, reinforced by ongoing education, near-miss analysis, and a willingness to stop production to investigate anything that feels unusual. We’ve invested in open communication channels, letting operators raise concerns long before government inspectors arrive. Our belief: no batch, no deadline, outranks the necessity of safe, responsible production.
Researchers and downstream developers push the boundaries of what tellurium chemistry can achieve, and supporting their work matters as much as shipping out drums of product. In the past year, our TeCl4 featured in next-gen thermoelectric syntheses, was used to fine-tune crystal growth for semiconductors, and played a role in new catalysts for green hydrogen production. Customers who contact us often need input on process compatibility or guidance on safely scaling up a new flow reaction involving TeCl4. Providing technical support isn’t a sideline task—it flows naturally from having walked the production floor and lived the ups and downs of batch failures and improvements.
Technical partnerships run deeper than a single order. We’ve developed protocols for handing off tellurium intermediates, provided custom dilutions, and collaborated on multiple confidential projects where TeCl4 served as a versatile bridging compound. New demands in fields like photovoltaics and miniaturized detector arrays now rely on reagents with trace impurity levels that were unthinkable a decade ago. Rather than hand-waving away odd results, we share spectrographic data, storage histories, and even past incident reports with clients who are troubleshooting their own processes. This mutual trust cuts through the noise that sometimes arises in the specialty chemical trade.
Another lesson: real-world manufacturing experience matters. Many products sound great on paper, but lack the rugged consistency required for industrial lines or academic research under tight deadlines. Customers who once tried to use technical-grade TeCl4 from non-specialist suppliers often returned, frustrated by wide variability and reaction failures. Our practice of keeping customer process histories—always confidential, always detailed—means we remember what worked and what didn’t, ensuring guidance draws on lived experience, not sales patter.
Long-term supply of tellurium tetrachloride calls for forecast accuracy, supply resilience, and a willingness to improve. Fluctuations in tellurium feedstock pricing, sudden shortages of qualified packaging, and shifting global demand for rare elements—these aren’t headaches to be ignored. Our experience through supply disruptions has proven the value in maintaining relationships across multiple mining partners, redundancy in logistics, and regular stockpiling of critical materials like high-purity chlorine. In one instance, a delay in container production risked a months-long freeze; actively investing in alternate vendors and flexible batch scheduling averted disaster.
Tightening environmental regulations and increasing interest in sustainable manufacturing call for new methods. We’ve re-engineered reactor cleaning protocols to minimize solvent waste. In the past, a full rinse required over 100 liters for a single batch changeover; today, improved cleaning-in-place (CIP) systems cut that by half. Aside from clear cost-savings, the change reflects a broader shift toward green chemistry that we see echoed in customer specification sheets. Where legacy methods once sufficed, a new generation expects recycled feedstock confirmation, extended lifecycle analysis, and cradle-to-grave documentation. Meeting those requests not only satisfies procurement officers, but also deepens the trust built on quantitative improvements.
Investment in process intensification, closed-loop feedback control for chlorination steps, and agile response to keyword modification in end-markets all position us for continued leadership in TeCl4 manufacture. Our perspective as hands-on producers—rather than detached traders—means we stay closer to the pulse of real-world issues. This connection sparks the practical improvements customers depend on: tighter specs, cleaner batches, quicker troubleshooting times, and faster response when regulations or customer requirements shift.
Every drum of tellurium tetrachloride carries the stamp of expertise gained on the plant floor. We put in the work to refine every production input, chemical reaction, and quality control point not because it’s easy, but because our customers build advanced products where shortcutting at the chemical source introduces risk. Tellurium chemistry remains a rare specialty, but it rewards those who take the long view—prioritizing safety, reliability, collaboration, and a willingness to adapt.
For those seeking not just a product, but the confidence that comes from partnering with a proven, engaged manufacturer, our door remains open. We share our successes, our lessons learned, and our solutions to every TeCl4-related challenge, knowing that every improvement lifts both our operations and those of our partners.
Decades in the field have shown us that deep expertise, continuous learning, and a hands-on attitude make the difference—not only for us, but for every chemist, engineer, and innovator who takes our tellurium tetrachloride and shapes the future.