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Telluric Acid

    • Product Name Telluric Acid
    • Alias Hydrogen tellurate
    • Einecs 236-914-1
    • 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

    783149

    Chemicalname Telluric Acid
    Chemicalformula H6TeO6
    Molarmass 229.6 g/mol
    Appearance White crystalline solid
    Meltingpoint 136 °C (decomposes)
    Solubilityinwater Soluble
    Casnumber 7803-68-1
    Density 3.07 g/cm³
    Odor Odorless
    Ph Acidic
    Oxidationstateoftellurium +6
    Iupacname Hexahydroxidotellurium

    As an accredited Telluric Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Telluric Acid, 100g, is packaged in a sealed amber glass bottle with a tamper-evident cap and hazard labeling.
    Shipping Telluric acid should be shipped in tightly sealed, corrosion-resistant containers, protected from moisture and incompatible substances. It is classified as a hazardous material, so transportation must comply with relevant regulations (such as DOT, IATA, IMDG). Proper labeling, documentation, and secondary containment are required to prevent leaks and ensure safe delivery.
    Storage Telluric acid should be stored in a tightly sealed container, away from moisture, heat, and incompatible materials such as strong reducing agents and combustibles. Place the container in a cool, dry, and well-ventilated area, preferably within a dedicated corrosives cabinet. Proper labeling and secondary containment are recommended to prevent spills and ensure safe handling. Avoid exposure to direct sunlight.
    Application of Telluric Acid

    Applications of Telluric Acid in Industrial Manufacturing

    Telluric acid, produced in our controlled automated facilities, has become a niche but crucial specialty chemical for a series of advanced industrial processes. Leveraging high purity and tight particle size control, our telluric acid forms the foundation or additive for critical downstream applications across the electronics, metallurgy, catalysis, and advanced materials segments. These applications require precise manufacturing standards, reliable quality, and strict adherence to international compliance, making telluric acid indispensable for demanding B2B supply chains.

    1. Semiconductor Thin Film Deposition

    The high electronic and chemical purity of telluric acid makes it fundamental in the fabrication of tellurium oxide-based thin films for advanced integrated circuits and solar cell architectures. During chemical vapor deposition (CVD) and physical vapor deposition (PVD) processes, the controlled reduction of telluric acid produces thin films with exceptionally uniform stoichiometry, essential for microelectronic reliability. The integration of telluric acid into pre-deposition precursor mixtures directly influences film crystallinity, charge mobility, and device longevity, helping manufacturers meet strict dielectric and conductive layer tolerances.

    Industry compliance standards

    • SEMI (Semiconductor Equipment and Materials International) purity guidelines
    • JEITA (Japan Electronics and Information Technology Industries Association) standards
    • IATF 16949 for automotive electronics produced in ISO-certified cleanrooms
    • RoHS and REACH for environmental/worker safety in fabrication

    Typical usage ratio

    • 0.05–0.3 molar fraction in deposition precursor solutions, depending on target film thickness and composition; fine-tuned based on substrate area and final device architecture

    Downstream process integration

    • Mixed into aqueous or organic solvents for precursor baths immediately before vapor deposition or spin coating; reduction or oxidation occurs in situ during device wafer processing

    Final product types

    • Thin-film photovoltaic cells (CIGS, CdTe modules)
    • High-k dielectric layers in advanced logic ICs
    • Optical sensor chips used in imaging and LIDAR applications

    2. Catalysts in Industrial Oxidation Reactions

    Telluric acid functions as a specific oxidation catalyst precursor in the fine chemical and pharmaceutical intermediate sectors. By transforming into tellurium-based catalyst systems under controlled conditions, it boosts the selectivity and efficiency of oxidation steps, especially in synthesizing specialty aldehydes and ketones from alcohols. Producers benefit from stable reaction profiles, minimized by-product formation, and rapid conversion rates due to precise catalyst loading.

    Industry compliance standards

    • cGMP (current Good Manufacturing Practice) for pharmaceutical intermediates
    • REACH and GHS classification compliance for chemical processing safety
    • OECD guidelines for chemical process environmental handling
    • FDA process validation standards for pharmaceutical supply chain entries

    Typical usage ratio

    • 0.02–0.1 wt% of the total batch mass as a catalyst precursor, adjusted based on substrate reactivity and required oxidation yield

    Downstream process integration

    • Dissolved directly into reaction kettles after charge-in of organic substrates; precursor undergoes in situ activation before active catalytic cycle

    Final product types

    • Fine chemical oxidation intermediates
    • Pharmaceutical building blocks for APIs
    • Specialty aroma aldehydes for industrial fragrances

    3. Glass and Ceramic Pigments

    In the specialty glass sector, telluric acid serves as a controlled colorant and infrared-reflective additive, producing distinctive coloration and functional coatings with precise optical properties. Glass manufacturers rely on the predictable integration of telluric acid into molten glass or ceramic glaze formulations to achieve unique lustrous shades and enhance energy efficiency in architectural glazing. Its performance hinges on close monitoring of redox atmosphere and batch composition during melting.

    Industry compliance standards

    • EN 1748-2-1 for glass colorants
    • ASTM C1036 for glass quality assurance
    • ISO 13006 for ceramic glazes
    • REACH regulations on heavy metal content in consumer glass products

    Typical usage ratio

    • 0.01–0.1 wt% of batch weight, optimized for target hue intensity and infrared reflection; dosage varies with glass oxide baseline and final use (architectural vs. artistic glassware)

    Downstream process integration

    • Added to raw glass or glaze batches prior to fusion; complete integration occurs during high-temperature melting (1350–1500°C) or during glaze firing

    Final product types

    • Colored architectural glass panels with IR reflectivity
    • High-value ceramic tiles and decorative glazes
    • Art glass beads and specialty optical glassware

    4. Advanced Metal Alloy Additives

    Telluric acid is a direct precursor for tellurium alloying in the metallurgy industry, notably in the production of free-machining steels and copper alloys. Applied as an oxidant and element source in melting processes, it increases machinability by influencing microstructure and inclusion distribution during solidification. Strict dosing and integration are critical to prevent undesirable cast defects and to meet mechanical property specifications, particularly in aerospace and high-speed machining applications.

    Industry compliance standards

    • ASTM A582/A582M for free-machining stainless steels
    • ASTM B49 for copper alloy compositions
    • ISO 4948 for alloy designation rules
    • RoHS restrictions for metallic additives in consumer products

    Typical usage ratio

    • 0.02–0.2 wt% tellurium equivalent via telluric acid dosing, based on grade specification and melting method; higher end for specialty free-machining steels

    Downstream process integration

    • Introduced to the molten metal shortly before pouring; ensures full reduction of telluric acid and even element dispersion during alloy solidification

    Final product types

    • Free-cutting stainless steel rod and wire
    • Tellurium-copper bus bars and connectors
    • Specialty aircraft fasteners and electronic contact components

    5. Laboratory Analytical Reagents

    High-purity telluric acid is a critical calibrant and derivatization agent in analytical laboratories specializing in trace metal quantification. Its well-defined oxidation properties ensure reliable assay standards and facilitate redox titration methods. Laboratories performing environmental, geochemical, and quality assurance analyses use standardized telluric acid solutions to validate detection limits and to prepare reference materials for instrument calibration.

    Industry compliance standards

    • ISO/IEC 17025 for calibration laboratories
    • EPA SW-846 for analytical method validation
    • ASTM D5673 for trace elements in water by ICP-MS
    • International Laboratory Accreditation Cooperation (ILAC) traceability guidelines

    Typical usage ratio

    • 0.5–5 ppm in standard or spike solution matrices; exact level tailored to target analyte range and instrument sensitivity

    Downstream process integration

    • Diluted into calibration or spike solutions during standard preparation; employed at key points in assay or titration workflows

    Final product types

    • Certified reference materials for ICP and AAS trace metal measurements
    • Redox titration kits for specialty chemical analyses
    • Calibration standards used in environmental monitoring laboratories
    Free Quote

    Competitive Telluric Acid prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Introducing Telluric Acid: A Chemical Manufacturer’s Perspective

    Where Telluric Acid Starts in the Real World

    From the production floor, telluric acid (model: H6TeO6, purity options up to 99.9%) steps into our process with a reputation that often stays behind the scenes. Working directly with this compound for years, the team recognizes its strength in both its chemistry and its practicality. It crystallizes as a white, non-hygroscopic powder, a feature we appreciate because it cuts out the time spent trying to fight clumping or caking in storage bins. The experience is straightforward: pour, weigh, use.

    Telluric acid’s structure—built from orthorhombic crystals—grants stability many competitors lack. Some chemical manufacturers and labs look for purity and structural dependability especially when they pursue refining in the semiconductor or glass industries. We’ve learned firsthand that the purity and morphology of our telluric acid simplifies downstream processing, sidestepping unnecessary purification or extensive quality control measures. Since handling this material over the years, improvements have reduced dust and packing inconsistencies, both headaches in bulk shipments.

    The Chemist’s Workhorse: What It Actually Does

    Our clients in metallurgy and specialty glass production demand accuracy above all. Telluric acid fits into their process as an intermediate—used for growing crystalline tellurium dioxide, synthesizing metal tellurates, and serving as an oxidizing agent. It shines brightest in environments where reliability under high temperatures or strong acid conditions is non-negotiable.

    Researchers tell us direct feedback, choosing telluric acid over sodium tellurate or tellurium metal mainly for its solubility and clean reactivity. It dissolves predictably in water, giving aqueous solutions that avoid introducing sodium or other counter-ion contaminants. This spells fewer downstream complications, less boilerplate troubleshooting, and cleaner final products.

    We use it as a starting reagent in our own facility to produce high-purity tellurium compounds. Years of experience prove it scales gracefully from beaker to industrial kettle, which matters more than marketing copy ever could. Other forms, like tellurium dioxide or sodium tellurate, often leave handling residues behind, and they bring in other elements that risk interference in delicate glasswork or catalyst production.

    Differences Compared to Other Tellurium Compounds

    On paper, many tellurium chemicals can seem interchangeable. From behind the loading dock, it’s clear that’s not true in the real world. Take tellurium dioxide: more stable during long hauls, but less versatile in chemical synthesis as an oxidizer. Sodium or potassium tellurates offer convenience in solution chemistry, although they often import unnecessary sodium or potassium, tipping sensitive reactions out of alignment.

    Telluric acid provides a chloride-free, alkali-free route, and this shows up in purity of end products. Customers making specialty optical glass report fewer inclusions when using telluric acid instead of sodium tellurate, which aligns with what we find in in-house testing—cleaner melts and fewer defects. Working alongside users in research labs, we found success rates higher for catalyst synthesis, and the final performance more consistent without the stubborn cationic additives from other tellurate salts.

    Practical Handling and Storage Insights

    Any manufacturer working with telluric acid notices it stands up well to demanding shipping schedules. Unlike more deliquescent oxidizers, it resists absorbing water during transport. This translates into less waste for both us and our customers. In the warehouse, our team handles it with routine dust controls and basic PPE. Stability means lower risk for off-gassing or container corrosion, so customers needing long shelf life or multi-year project timelines have better outcomes with minimal repackaging.

    Because we’ve moved metric tons across multiple continents, we see the benefit of its granular sizing and powder flow. No bottlenecks gumming up pneumatic lines, no sudden caking—each lot pours even and blends fast.

    Regulatory and Environmental Considerations

    Manufacturing and distributing telluric acid comes with responsibilities we take seriously. Its toxicity is moderate but manageable—comparable to other oxoacids like chromic acid, but safer than selenium-based analogues. We keep our processes closed and scrutinize air filtration to maintain workplace safety, staying in line with occupational exposure limits. Local environmental authorities also track effluent levels stringently. Our in-house systems neutralize waste so tellurium stays out of the water table. Chemical recycling programs on-site reduce both production losses and external disposal costs.

    Our regulatory compliance group reviews every shipment, certifying that all outgoing telluric acid meets REACH and relevant local standards. Through years of audits, this attention has built trust with both large industrial users and boutique research labs.

    Serving Glass, Ceramics, and High-Tech Sectors

    Our firsthand view of specialty glass and electronics sectors reveals the kind of small, persistent barriers that never make it into technical write-ups. Telluric acid streamlines the oxide introduction for colorants and for infrared-absorbing glass fibers, key for everything from observatory optics to fiber optic cables.

    Ceramics manufacturers depend on its oxidative strength at high firing temperatures. Compared to alternative oxidizers, telluric acid leaves fewer trace ions behind, which customers report improves consistency batch to batch in both pilot and production runs.

    The surge in energy storage and solar cell manufacturing brought new uses. Battery developers test telluric acid as a precursor for tellurium-based cathodes. They rely on its photoreactivity and oxidation state, which allows clean conversion to both elemental and intermediate forms, adjusting manufacturing parameters on the fly.

    Research Trends: Why Purity Matters

    Decades of customer results tell the story: lab results depend on chemical purity more than most marketing teams realize. Our highest-purity telluric acid grades support the demands of universities and start-ups exploring new catalysts and electronic materials. Recent years brought particular demand from nanomaterials researchers, who point out that trace contamination derails whole synthesis runs.

    We’ve measured our own batches to parts-per-million levels for key contaminants like arsenic and selenium. Street-level manufacturing experience shows even small changes in raw material source can affect these impurity profiles, so every new feedstock faces additional testing before full production.

    The Upstream and Downstream Difference

    From an operational side, telluric acid allows faster scale-up between bench and pilot production. Other tellurium compounds resist dissolving or require extra neutralization steps due to insoluble byproducts. Our feedback loops with customers identified that minimizing unnecessary variables strengthens process yield and reduces the tuning time on new process lines.

    Technical teams working with electronic materials use it for atomic layer deposition and synthesis of advanced telluride films. They value the reproducibility we can achieve, which cuts both cost and troubleshooting labor downstream.

    Global Distribution and Customer Feedback

    Shipping experience over decades covers every climate and region—Asia, North America, Europe. Stable packaging and moisture-resistant design reduce spoilage and failures. Feedback from importers and users often points to reduced off-spec shipments with our latest grades of telluric acid. We incorporate those real-world insights directly into batch control and QC documentation, closing the feedback loop for process improvement.

    Where research clients used off-brand or “lab-prep” telluric acid in the past, they reported irregular grain size, higher contamination, and batch-to-batch variability. Direct from the manufacturing floor, we set particle size ranges and batch consistency in production, which rolling QC data confirm with every lot.

    Challenges in Production

    Telluric acid is not a commodity chemical—processing demands hands-on monitoring and specialized equipment. Variations in raw tellurium sources create fluctuating yields and unpredictable impurity profiles, pushing our in-house teams to adapt purification protocols. We invest in source control for raw materials, tracking by mine and lot, to keep the final product within specifications.

    From time to time, process bottlenecks arise due to changes in supply chain or regulatory limits on byproducts. Our teams solved these with incremental improvements: more robust filters, upgraded crystallizers, and enhanced air monitoring. Each gain in reliability transmits directly to finished tellurium products customers receive.

    Safety and Process Reliability

    Working chemistry at this scale in a hot, high-throughput environment brings hazards. We train our operators in real-life situations, not just textbook scenarios. Containment protocols match the real ways telluric acid can spill: powder flow, dusting, and residue. Through ongoing training and cross-shift feedback, we reduced incidents and near-misses in the plant year after year.

    For transport and handling, our logistics partners stress robust labeling and tamper-proof seals. We don’t cut corners on truck or container screening, understanding that even safe chemicals in the wrong hands can create headlines for the wrong reasons.

    Customer Problem-Solving and Tech Support

    Real-world challenges come up during scale-ups, especially for newer clients. A common challenge is undissolved powder in high-concentration solutions. Our technical team found solutions by tweaking stirring speed and adjusting pH, rather than switching to alternative raw materials. This saved clients extensive R&D time and cost. In glass production, we worked with technical teams to adjust batch loading and reduce bubble formation, a problem unique to switching between telluric acid and tellurium dioxide.

    Another frequent topic is compatibility with automated dosing equipment. Our lessons from years in automation design led us to ensure particle sizing stayed consistent—helping clients avoid blocked lines or uneven mixing.

    Supporting Regulatory and Environmental Sustainability

    Attention to sustainable manufacturing is not just a line for us—sourcing, production, and waste handling reflect a commitment to long-term viability. Effluent treatment cycles allow us to recover tellurium values from waste streams before discharge. We see regulators focus on trace elements and discharge limits, so adoption of closed-loop systems ahead of legal requirements mitigated both regulatory risk and ecological impact.

    Our continuous improvement strategy revisits each stage, from mine source audit to finished drum. These iterative changes helped us lower energy use during high-temperature crystallization, further reducing the environmental footprint.

    Training, Experience, and Team Knowledge

    There’s no substitute for a team well-versed in the quirks of telluric acid handling. Many of our senior technicians worked with earlier generations of equipment, giving context to every process upgrade. Hands-on knowledge carries over to predictable scale-up, safety assessments, and client troubleshooting support.

    Training programs focus on practical, procedure-driven responses to spills and batch inconsistencies, reinforcing what works in the field, not just on paper.

    Looking Forward: Where Telluric Acid Leads Innovation

    The next wave of research and industrial technology depends on materials that work every time, not just once in an ideal lab. Telluric acid, as we’ve manufactured and shipped for years, proves reliable for traditional industries like glass and ceramics, but also for leading-edge sectors such as energy storage and advanced electronics.

    Our own R&D invests in ways to bring down batch variability, minimize trace impurities, and improve process energy efficiency. Future applications—solid-state batteries, hybrid catalysts, novel semiconductors—count on chemical building blocks with proven track records, not marketing hand-waving.

    Final Thoughts From the Manufacturing Floor

    What separates real-world manufacturing from data sheets and comparison tables is the lived experience: the warehouse operator clearing up after a messy shipment, the process technician finding an unexpected contaminant spike, the QC manager signing off batches after hours of testing. We’ve seen telluric acid perform across decades, across continents, and in hands-on processes big and small.

    It comes down to reliability. By controlling every step—raw material sourcing, purification, packing, and technical support—we offer more than just chemical supply. For those who care about reproducibility, traceability, and safety, telluric acid produced with close attention to every detail unlocks current technologies and supports developing applications we’re only starting to imagine.