|
HS Code |
205123 |
| Chemical Name | Zinc Iodide |
| Chemical Formula | ZnI2 |
| Molar Mass | 319.22 g/mol |
| Appearance | white crystalline solid |
| Density | 4.74 g/cm3 |
| Melting Point | 446 °C |
| Boiling Point | HI decomposes before boiling |
| Solubility In Water | very soluble |
| Cas Number | 10139-47-6 |
| Odor | odorless |
| Refractive Index | 2.14 |
| Stability | stable under recommended conditions |
| Ph | acidic (in aqueous solution) |
| Ec Number | 233-396-0 |
| Structure Type | orthorhombic (solid state) |
As an accredited Zinc Iodide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Zinc Iodide, 100g, supplied in a sealed amber glass bottle with tamper-evident cap, clear labeling, handling and hazard information. |
| Shipping | Zinc Iodide should be shipped in tightly sealed, labeled containers to prevent moisture absorption, following all relevant hazardous materials regulations. Store and transport upright in a cool, dry, well-ventilated area. Protect from physical damage and incompatible substances. Ensure proper documentation and compliance with local, national, and international shipping guidelines. |
| Storage | Zinc iodide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from moisture, acids, and incompatible substances. It should be kept away from direct sunlight and sources of ignition. Proper labeling is essential, and storage areas should be equipped with appropriate containment to prevent environmental contamination in case of spills. |
Applications of Zinc Iodide in Industrial ManufacturingZinc iodide serves critical functional roles in several specialized industrial sectors because of its chemical behavior, solubility characteristics, and compatibility with diverse production processes. As a direct manufacturer, we support formulation, process optimization, and regulatory compliance for industrial partners leveraging zinc iodide in tightly controlled downstream scenarios. Below, we detail real-world application domains structured around actual usage, industry frameworks, and integration within complex manufacturing operations. 1. Organic Synthesis Catalysts for Pharmaceutical IntermediatesDownstream fine chemical manufacturers utilize zinc iodide as a highly specific Lewis acid catalyst in selected pharmaceutical intermediate synthesis routes, particularly for facilitating halogen exchange reactions and iodine incorporation. With its reliable catalytic properties, it ensures consistency of critical step yields while minimizing adverse by-products. We consistently monitor incoming stocks for halide purity and meet trace metal requirements in tune with synthesis demands. Industry compliance standards
Typical usage ratio
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2. X-Ray and CT Imaging Contrast Agent FormulationMedical device and imaging chemical formulators rely on zinc iodide to achieve high-density, water-soluble X-ray contrast agents for diagnostic imaging. Its heavy atom character and low toxicity relative to organoiodine alternatives make it suitable for enhancement of imaging solutions used in non-human applications, instrument calibration, and select research contrasts. We control for pharmaceutical-grade purity and trace contaminants to avoid interference in sensitive imaging trials. Industry compliance standards
Typical usage ratio
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3. Electrolyte Additive for Rechargeable Battery ManufacturingZinc ion battery and specialty cell manufacturers use zinc iodide as a key redox mediator or electrolyte additive to improve energy density, electrode stability, and charge cycle life in aqueous and semi-aqueous systems. Its dissolution behavior and ionic interaction modulate the plating/stripping characteristics required in next-generation grid storage and backup systems. We monitor electronic-grade purity and guarantee negligible halogen contamination for battery-scale application. Industry compliance standards
Typical usage ratio
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4. Laboratory Reagent in Analytical Chemistry and SynthesisChemical analysis laboratories and specialty synthesis units require high-purity zinc iodide for use as a controlled iodine source, precipitation agent, and specific gravimetric standard for density measurements and trace detection protocols. Our QC processes address batch uniformity, absence of interfering ions, and strict documentation for regulated laboratory environments worldwide, including university research and contract testing. Industry compliance standards
Typical usage ratio
Downstream process integration
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Competitive Zinc Iodide prices that fit your budget—flexible terms and customized quotes for every order.
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Zinc Iodide sits on the workbenches and loading docks of our plant for one reason: it works. The compound brings together two elements—zinc and iodine—into a simple salt that offers surprising complexity. Our production teams understand every step, from raw material selection through the controlled synthesis and final purification. There's a reason universities, laboratories, and manufacturers come back for Zinc Iodide again and again. The reliability is built right in, shaped by experience and relentless focus on purity.
We typically make Zinc Iodide in crystalline or fine powder form. Whether it's a 99% minimum assay, moisture content control, or batch-to-batch analytical traceability, the ties between process and performance show up in the end product. Those working in catalyst research or in electrochemical fields depend on the right chemical properties—they get exactly what the lab results say they'll get, every time.
Decades on the factory floor have taught us that details and consistency matter. Our standard Zinc Iodide offering arrives colorless to pale yellow, free-flowing, and ready to mesh with whatever workflow awaits. Particle size, flow characteristics, and impurity levels are not ledgers to be ticked off; they carry weight in synthesis, performance, and downstream process economics.
Other salts might promise similar roles, but we see why chemists stick with Zinc Iodide. Iodine in the +1 oxidation state makes this a reactive and soluble compound with a range of uses, often acting as a precursor or catalyst. The melting point falls low enough for easy handling without risking decomposition, while the solubility in water opens the door for aqueous-phase chemistry that demands predictable reactions.
Everyone from specialty glassmakers to organic chemists finds value in the purity and physical behavior. For laboratories working on detection chemistry, Zinc Iodide enables reliable cloud-chamber operation for alpha and beta radiation visualization. It’s the choice for those eager to create concentrated solutions that stay stable—perfect for radiography, analytical testing, and even obscure fields like organic light-emitting device experimentations.
We don't cut corners. Zinc Iodide might look straightforward, but the real difference rests in raw material quality, process discipline, and final product handling. Not all Zinc Iodide is born equal. Some grades harvested from poorly controlled environments bring heavy metal content past accepted limits or show up with clumping and discoloration, hinting at hydrolysis or atmospheric attack.
Years of in-house research convinced us that fine-tuning the synthesis temperature, controlling the iodine addition rate, and maintaining an inert atmosphere at certain stages consistently yields a purer, more stable product. After synthesis, every batch faces multi-stage filtration, moisture tests, and assay checks for both zinc and iodine. No mystery components, no guesswork about what’s in each package.
We welcome technical audits and routine customer feedback. The feedback loop runs straight back into operational improvement. Zinc Iodide leaves our facility only when it meets both the paper specifications and real-world performance standards. If you ever run into an application problem or analytical anomaly, chances are high our team will already know what happened—and how to fix it next time.
Zinc can bond with a handful of anions, producing salts with wildly different personalities. Zinc Iodide sits apart from its close relative, Zinc Chloride, with a molar mass and solubility profile that drive distinct choices in the lab and on the shop floor. Zinc Chloride draws on chloride’s reactivity but does not match the heavy atom or the unique complexing behaviors of iodine.
Try substituting with a Zinc Bromide or plain Zinc Sulfate, and you run into new roadblocks. Some boast high water solubility, but few can compete with Zinc Iodide in the realm of specialized radiography or organic synthesis. The atomic number of iodine underpins its use for x-ray contrast and specialty laboratory visualization. Substitution often requires reformulation, introduces unpredictable byproducts, or yields lower yields and stunted reaction pathways.
Chemists working on new compounds or refining existing methods notice right away—Zinc Iodide nudges reactions down a different chemical path. That’s the edge that keeps research teams coming back for more, rather than downgrading to something from the bulk commodity aisle. It’s not just about cost or nameplate purity. The consistency in crystal habit or powder texture, the reliable solubility, and the absence of non-volatile residue, all matter when it’s time to deliver accurate results or produce sensitive intermediates.
We have watched the market shift over the years. Early demand spiked from radiography and cloud chamber applications, then settled as analytical chemistry took off. Today’s users cover a broader spectrum: research into halide perovskite solar cells, pharmaceutical trials, thin-film deposition for electronics, and classic applications in dyes and specialized lubricants.
We often consult with customers tackling iodine-deficiency issues in animal feed or those working in materials science, trying to graft iodine-rich components onto organic frameworks. Zinc Iodide offers both the reactivity of iodine and the biological trace element properties of zinc, giving it an edge over alternatives that either lack reactivity or cannot integrate into nutritional science programs.
With the rise of sustainable chemistry, some customers chase greener synthesis routes. Zinc Iodide, though not always headline material, fits in as a tool for cleaner, more selective halogenation reactions. For academia and corporate labs alike, reliable performance without secondary contaminants means fewer headaches at the verification stage—and a proven path to scale-up when pilot studies succeed.
We face the same cost fluctuations and supply chain shocks as everyone else in the field. Quality zinc and iodine sources demand careful vetting. Our teams don’t rely on the spot market for critical ingredients. Instead, we've built long-term supplier relationships, and every incoming shipment runs through identity and purity screens. Storage conditions—dry, temperature-controlled, and segregated—block the slow decay that’s all too common in less carefully managed inventories.
Our material handling teams know how to keep cross-contamination at bay. We operate isolated reaction lines for iodide products, avoid shared hoppers, and run frequent equipment flush-outs. Finished Zinc Iodide dries under controlled airflow, then faces another round of visual and analytical tests before it lands in packaging. From 500-gram laboratory bottles to industrial-scale bulk bags, the standards don’t relax for volume.
Our logistics crew follows through to the last mile. Zinc Iodide shipped out in mid-summer or the depths of winter reaches its destination in the same state it left—free from caking, excess moisture, or transit-induced breakdown. We update handling advice based on customer feedback and shipping seasonality, so warehousing delivers the same chemistry, week in and week out.
As environmental regulations change and new industry standards emerge, the requirements for transparency, traceability, and safety have gotten tougher. Our own commitment is simple: make what we claim, document everything that matters, and support customers before, during, and after a purchase. In the world of specialty chemicals, reputation grows over years but can erode overnight from a single slip.
A handful of market entrants favor volume over verification, but shortcuts rarely save money in the long run. Downstream customers have grown more sophisticated—querying not just the certificate of analysis, but also batch history, material origin, and environmental impact. Our site audits and compliance programs stretch back decades, letting anyone who visits trace the whole story from receipt to shipment. That’s the backbone for real trust, not just a marketing claim.
Researchers and manufacturers want new forms—ultra-fine, high-purity, low-halide for semiconductor needs, or blended grades for specific formulations. We respond by innovating on the production line, shifting from traditional batch processes to more controlled continuous synthesis. Investments in inline monitoring and digital batch recordkeeping catch anomalies fast, keeping poor material off the line. We encourage direct engagement, whether for custom particle sizing or advice on new applications, because customer knowledge moves the whole industry forward.
We are not disconnected from end uses. When a college laboratory demonstrates particle tracks to budding chemists, or a radiologist relies on Zinc Iodide in contrast preparation, those end results depend on every choice made in our facility—quality control, formulation, even packaging. For many, it’s a simple order or a line item on a purchase list. For us, it’s the result of years on factory floors and in meeting rooms, working out solutions that improve the product, batch after batch.
Competition remains fierce, and customer pressure for better pricing, flexibility, and support only grows. Still, cutting corners doesn’t appeal to us. Instead, we double down on what works—tight process oversight, transparency, and willingness to change when the science says change is needed.
Zinc Iodide stands as a testament to chemistry’s blend of art and engineering. Its apparent simplicity hides the care, effort, and judgment that there is behind every kilogram produced. Each drum and bottle carries the signature of the people who made it—from plant operators watching gauges and temperatures, to lab analysts measuring purity shifts. We know customers stake their results, jobs, and often reputations on the consistency of our product. That’s not something we take lightly.
As markets evolve and uses diversify, the core values underpinning our Zinc Iodide production guide us every day: listen, learn, refine, and deliver exactly what the science requires. Because chemicals are more than formulas and numbers; they represent the trust built between manufacturers and the industries, institutions, and individuals who depend on them every day.