Cadmium Fluoride

    • Product Name: Cadmium Fluoride
    • Alias: Cadmium difluoride
    • Einecs: 232-222-0
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    625403

    Chemicalname Cadmium Fluoride
    Chemicalformula CdF2
    Molarmass 150.41 g/mol
    Appearance White crystalline solid
    Meltingpoint 1110 °C
    Boilingpoint 1740 °C
    Density 6.33 g/cm³
    Solubilityinwater Slightly soluble
    Casnumber 7790-79-6
    Crystalstructure Fluorite (cubic, CaF2-type)
    Refractiveindex 1.436
    Odor Odorless
    Bandgap 7.8 eV

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

    Packing & Storage
    Packing Cadmium Fluoride, 100g - Supplied in a sealed amber glass bottle with hazard labeling, tamper-evident cap, and desiccant packet.
    Shipping Cadmium Fluoride should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled with hazard warnings. It must be transported as a toxic and environmentally hazardous substance, following all relevant regulations (e.g., DOT, IATA). Protect from moisture, ensure secondary containment, and avoid contact with incompatible materials. Handle by trained personnel only.
    Storage Cadmium fluoride should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area. It must be kept away from moisture, acids, and incompatible substances. The storage area should be designated for toxic chemicals, clearly labeled, and equipped with appropriate spill control materials. Ensure access is restricted to trained personnel and follow all relevant safety regulations.
    Application of Cadmium Fluoride

    Applications of Cadmium Fluoride in Industrial Manufacturing

    Our cadmium fluoride supports high-precision processes in several advanced industrial fields. Each application scenario detailed below reflects authentic downstream markets where manufacturers incorporate this raw material to achieve demanding product specifications and process performance. This section provides B2B technical clarity for formulation, compliance, integration, and output targeting technical, R&D, and procurement audiences.

    1. Optical Glass and Infrared Lens Manufacturing

    Cadmium fluoride plays a critical role in the production of specialty optical glass and infrared transmitting materials, including high-grade fluorophosphate and chalcogenide glasses. These applications demand reliable transmission in the mid-to-far infrared spectrum and precise refractive index control. Incorporation of cadmium fluoride directly influences spectral characteristics while enabling unique color correction and low-dispersion properties tailored for high-performance imaging and laser optics.

    Industry compliance standards

    • ISO 12123:2010 (Optical glass – Raw materials)
    • IEC 60825 (Laser equipment safety standards, relevant for downstream laser lens use)
    • RoHS exemptions for cadmium in optical glass (EU Directive 2011/65/EU, Annex III 13a, 13b)
    • REACH Regulation (EC) No 1907/2006 – Cadmium compound registration and use restrictions

    Typical usage ratio

    • 0.2–2.0% by weight, depending on glass type and target transmission properties; typically adjusted based on desired infrared transmission and coloration control

    Downstream process integration

    • Batch melting with base glass formers at 950–1300°C, added at the fritting stage via precision dosing to ensure homogeneity; quality teams monitor pre-melt mixing and loss-on-ignition before fine-tuning melt schedules

    Final product types

    • Infrared transmission windows for spectroscopy
    • High-definition camera lenses for defense and semiconductor metrology
    • Laser optical components
    • Night vision and thermal imaging optics

    2. Fluorine-Doped Semiconductor Crystal Growth

    In compound semiconductor device fabrication, cadmium fluoride serves as a crucial doping source for introducing controlled fluorine ions during CdTe, CdZnTe, and related single crystal growth by Bridgman or Czochralski methods. This controlled doping adjusts carrier concentrations, fine-tunes electrical resistivity, and suppresses defect formation, aiding manufacturers in achieving high detector yield and consistent wafer electrical parameters.

    Industry compliance standards

    • SEMI MS2-0612 (Specifications for single crystal materials – cadmium telluride and cadmium zinc telluride)
    • ISO 9001-certified production systems for semiconductor materials
    • European REACH authorization for controlled cadmium use (Annex XIV)

    Typical usage ratio

    • 5–50 ppm (parts per million) fluorine equivalent, precisely metered for targeted doping levels according to device requirements

    Downstream process integration

    • Introduced into charged melts prior to directional solidification step; integration performed in glovebox or inert atmosphere to control volatile emissions and ion purity; analytical teams routinely validate incorporation by SIMS and Hall Effect measurement post-growth

    Final product types

    • X-ray and gamma-ray detector crystals
    • Substrates for IR focal plane arrays
    • Photovoltaic submounts and sensor wafers
    • Nuclear radiation detector modules

    3. Phosphor and Scintillator Synthesis

    In luminescent material production, the fluoride serves as a flux and crystal lattice modifier for rare earth–doped cadmium-based phosphors and scintillators. Its addition ensures increased emission efficiency, suppresses non-radiative losses, and optimizes the particle morphology for improved coating or compounding into screen and detector products. Quality-sensitive industries rely on batch-to-batch chemical accuracy for these demanding downstream uses.

    Industry compliance standards

    • ISO 14717:2019 (Scintillators – Chemical composition and safety)
    • ASTM E1301 (Standard Guide for High-Purity Inorganic Chemicals for Fluorescent and Phosphorescent Materials)
    • ISO 14001 (Environmental management in chemical synthesis)

    Typical usage ratio

    • 1.5–4.0% by weight relative to host matrix, tailored by rare earth ion concentration and particle design targets

    Downstream process integration

    • Blend with host oxides and activators in wet or solid-state reaction; calcination at 800–1050°C under controlled atmosphere; process control teams calibrate mixture to achieve uniform crystal size and maximize luminescent output

    Final product types

    • X-ray intensifying screens
    • Gamma scintillator panels
    • Luminescent powder for security ink
    • Energy-dispersive detector elements

    4. Cadmium Electroplating for Electrical Connector Manufacturing

    In high-reliability electrical connector and switchgear production, particularly for aerospace and defense markets, manufacturers utilize cadmium fluoride to formulate electrolytes that enhance deposit uniformity and improve adhesion properties of cadmium metal coatings on copper and steel. This ensures connectors maintain corrosion resistance and low electrical contact resistance even in extreme environmental conditions. The formulation and process are carefully regulated for environmental and worker safety, tracking cadmium ion concentration throughout the plating cycle.

    Industry compliance standards

    • SAE-AMS-QQ-P-416 (Cadmium Plating, Aerospace standard)
    • EN 60998-1 (Safety for connector assemblies in electrical installations)
    • OSHA 29 CFR 1910.1027 (Cadmium exposure control in manufacturing)
    • REACH Regulation – Authorisation for cadmium in specific aerospace and military applications

    Typical usage ratio

    • 0.5–2.0 g/L as a fluoride ion source within cadmium plating bath composition; concentration managed based on bath loading and desired deposit characteristics

    Downstream process integration

    • Added during make-up of plating bath solution; incorporated with other complexing agents and brighteners prior to electrodeposition; monitored via titration and solution quality analysis during routine plating operations

    Final product types

    • Aerospace-grade circular connectors
    • Military switchgear terminals
    • High-voltage electrical contacts for transportation
    • Corrosion-resistant fasteners
    Free Quote

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

    For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.

    We will respond to you as soon as possible.

    Tel: +8615365186327

    Email: admin@ascent-chem.com

    Get Free Quote of Ascent Petrochem Holdings Co., Limited

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    Cadmium Fluoride: Hands-On Experience from the Manufacturer’s Perspective

    Every Batch Tells a Story

    In our production facility, Cadmium Fluoride starts life far from the finished chemical that researchers and industry experts rely on. The transformation begins with high-purity cadmium metal and hydrofluoric acid – each handled by a trained team accustomed to the unique hazards of the process. Behind the specification sheets, there is the daily reality of careful temperature control, continuous monitoring, and a clear goal: producing Cadmium Fluoride with consistent quality, free of traces that might compromise sensitive applications.

    Our model, CdF2 99.99%, is not simply a number on a tag. This purity level reflects a commitment that runs through each worker and each batch, confirmed by repeated analyses using ICP-MS and XRD technology. We choose not to add any sodium or potassium – two common impurities in low-grade batches sourced from outside the industry. Instead, our teams use closed-loop fluorination steps and inert-atmosphere drying, giving us predictable performance every time.

    Why Purity Matters—From Lab Bench to Factory Floor

    Customers reach out to us with very different projects. Some are working in crystal growth for infrared optics, where stray traces of alkali or transition metals will disrupt transmission and crystalline uniformity. Others call with battery research on their mind, seeking electrode material that behaves without unwanted side reactions across hundreds of cycles. Their needs overlap: neither will accept off-the-shelf, ambiguous reagents.

    We routinely ship Cadmium Fluoride as a free-flowing white powder, tight-packed in fluoropolymer liners. Some users handle grams, some handle kilograms. Across the spectrum, whether a facility is fusing it into glass, using it as a flux in metallurgy, or preparing high-density ceramic starting mixes, each expects stability in color, bulk density, and moisture sensitivity. A pale yellow tint or chalky texture signals a story of contamination or mishandling, not an issue we tolerate in our operation.

    Comparing Ours to What’s Out There

    Cadmium Fluoride is a tale of sources. The market carries everything from recycled, off-color scrap to fresh crystals grown for the electronics sector. We grew tired of seeing competitor offerings yellowed by transition metals or shipped in corroded drums. Our answering move was to emphasize robust containment, thoughtful reagent sourcing, and regular spectrochemical screening. Instead of vague guarantees, we share recent batch certificates outright.

    A common confusion we hear concerns the blend of fluoride-based salts. Customers might compare our Cadmium Fluoride to potassium or calcium fluorides used for etching glass or as fluxes. These stand on different ground. Cadmium Fluoride introduces a suite of optical and electrochemical properties rare among fluorides. Where some salts cloud glass or react with surrounding matrix ions, ours produces sharper grain boundaries and less extraneous reactivity at elevated temperatures.

    Concerns sometimes rise around product form – granular versus powder versus lump. Due to the low melting point (approx. 1100°C) and hygroscopic nature, we avoid crumbled batches. We invest in fine-milling, always under dry, inert atmosphere, and implement double-bagging with robust sealing. In transport and storage, these steps matter more than most realize. Moisture ruins Cadmium Fluoride quickly, and traces of water amplify its toxic profile. Our team’s discipline in this respect comes from hard-learned lessons, not promotional slogans.

    Specific Applications that Rely on Cadmium Fluoride

    The diversity of uses for Cadmium Fluoride surprised us in our early years. Most inquiries fell into three main categories: optical crystal growth, glass manufacturing, and advanced ceramics. Over time, requests grew more specialized. Some asked for ultra-dry powder for vapor deposition. Others needed sub-micron grain size for research in superionic conductors. Still, the broad base remains.

    Infrared optical manufacturers count on us for single crystals. They want no inclusions, low birefringence, and melt behavior consistent across multiple runs. Our experience told us to focus on the removal of trace iron and copper – two elements most likely to cause discoloration and absorption losses. Battery materials researchers, especially those working with lithium systems, look for electrochemical stability, which we benchmark through cycling tests in our own lab. They share their feedback, letting us further tune synthesis parameters and morphology.

    Historically, glassworks and enameling outfits have added Cadmium Fluoride in small amounts to alter refractive index and color properties. These users demand batch-to-batch reproducibility, as their results depend on consistent flux activity and minimal off-gassing. We track every kg back to a specific production lot, making recall and process audits realistic when unusual results arise.

    Safety: Beyond Labels and MSDS

    Momentum builds on the safety side, both from regulation and workplace experience. Hydrofluoric acid’s reputation is notorious – but Cadmium itself requires just as much wariness. From our end, every worker in our Cadmium Fluoride line receives medical monitoring and safety refreshers. We built our facility with engineering controls that move dust and vapor away from breathing zones, not toward them.

    Packaging exits our production line only after moisture check and visual inspection. Export shipments pass customs with UN-certified drums, thick wall liners, and marked so that every partner downstream knows exactly what they’re handling. We’ve dealt with customers who inherited poorly labeled “white powder,” forced to halt production because their old stock was hydrated and partially decomposed. They wanted reliability, and through that struggle, we saw the value of controlled atmosphere storage—not as theory, but as daily physical practice.

    Cadmium Fluoride Versus Other Cadmium Compounds

    Over time, both regulators and users have approached us about switching to other cadmium salts – nitrate, sulfate, or even oxide. Some of these offer lower toxicity profile or more water solubility. We make Cadmium Fluoride for situations where only this compound’s unique structure fits. Certain optical crystals won’t grow right except with fluoride ion’s small size and high lattice energy. Research into materials for radiation detectors found nothing could match CdF2 for fast response at low temperatures. Battery engineering efforts show other cadmium salts lack the robust, moisture-resistant behavior of fluoride.

    On the downside, Cadmium Fluoride demands more respect in handling – its dust is more invasive than that of the simple oxides, and the fine powder clings to tools and gloves. Our processes evolved to minimize handling, encourage automation, and keep the smallest practical working quantity on deck. Control isn’t a slogan—it’s a record we’re proud to show in every third-party audit.

    Some ask if a switch to barium or strontium fluorides substitutes function for cost. In our experience, once a process is built around Cadmium Fluoride’s fusion temperature, volatility, and fluxing effects, nearly all alternatives compromise the end result. Demand pushes us to keep refining process efficiency on our side – to keep bottlenecks and energy consumption in check – rather than altering the core chemistry for convenience.

    Environmental Responsibility: A Matter of Daily Attention

    Worries about cadmium’s environmental and toxicological signs show up in every industry meeting. We’ve seen the regulations become stricter, but we also took our internal standards further. Our wastewater leaves no detectable fluoride or cadmium. We deploy ion-exchange systems to polish rinse water, and run closed-loop scrubbing for acid off-gas. The team records every drum received and shipped: cradle-to-grave tracking isn’t optional, it’s what keeps us welcome in the community.

    We encourage users to work on staged recycling and recovery. Our facility offers return collection for scrap crystallizer cake and out-of-spec product – not as a service line, but to keep avoidable risk away from landfill and incinerator streams. Over the past decade, we’ve partnered with customers to support process design that minimizes waste. Experienced handlers in research environments know to reserve surplus, monitor moisture during storage, and limit open handling. The difference between a single-use campaign and a renewed batch is environmental stewardship made tangible.

    What Sets Our Cadmium Fluoride Apart

    We’ve measured ourselves against more than price. Over our years in the field, certain core principles shape our Cadmium Fluoride product. The raw material never comes from spent electronic scrap or reworked plating waste. Our purity benchmarks aren’t just marketing—each lot faces third-party confirmation. Instrumentation is hard-wired into our process control; routine sampling and retention support fast investigation of any reported variation.

    A few customers requested luminescence-grade CdF2 crystal. These orders demand extra patience and more extensive purification steps. The preparation shifts from bulk chemical expectations to ultra-trace control, as even minute iron or rare earth ion traces can frustrate the growth of transparent, defect-free crystals. We built clean rooms, invested in hydrofluoric-resistant reaction vessels, and trained a core group of staff just for these high-end customers. These investments surfaced not because theory suggested it but because working scientists and engineers needed this from us.

    Our production logs grew from short checklists to thorough documentation—origin of raw cadmium, acid concentration records, every high vacuum oven runtimes, and sample storage conditions. This approach relieves customers of hidden surprises and helps their purchasing, handling, and documentation keep pace with regulatory needs. From customs to compliance audits, detail in documentation helps everyone avoid unnecessary delay.

    Feedback and Continuous Improvement

    Our Cadmium Fluoride wasn’t the best on the market overnight. Feedback came from both successes and failures. Once, a customer flagged issues with pinhole defects in their grown single crystals. Our team responded by switching to two-stage purification, followed by reanalysis at both intermediate and final stages. The problem faded. In another instance, a large glass furnace experienced foaming after a material change. We ran side-by-side simulation firing in our own lab, then refined the exclusion of magnesium and aluminum from the upstream supply.

    We moved to faster inline moisture analysis after a storage mishap taught us how much hydrolysis can occur during warm, humid days. Field complaints sometimes sound daunting until you open the process log, find the root cause, and adjust—not just for that lot, but in how the production team monitors and responds in the future.

    Every month, we evaluate the analytical equipment—ICP, XRF, residual gas analyzers—to ensure confidence in every certificate we issue. Instrument drift is a real issue, and so is analyst fatigue. By splitting up these responsibilities, rotating teams, and auditing the auditors, we keep performance wide awake. New hires shadow veterans for months before taking the responsibility for sensitive steps such as the transfer of dried powder from reactor to final packaging.

    Looking Ahead: Partnering Beyond the Sale

    Innovation in Cadmium Fluoride applications continues, and we keep pace by supporting custom runs—adjusting grain size, tuning particle surface chemistry, extending purity grades at the request of academic and industrial innovators. Some research labs want hands-on support for unusual synthesis or vapor transport. We have opened our process for collaborative pilots, letting customers witness purification and packaging in real time.

    Automation and digital tracking became less a selling point and more a necessity as scale grew. Robotic powder handling reduced incidents of contamination and exposure in the filling room. Digital logs tie every drum to its test history and allow rapid retrieval if a technical question surfaces weeks or even years later. In this way, the dialogue with our customers shapes our facility as much as any individual equipment choice or product tweak.

    Working with Cadmium Fluoride over the years reinforced a simple truth: the results achieved by users depend as much on trust in the source as on the chemical’s sticker label or theory. That trust grows on hard-won experience, persistent quality auditing, and the belief that open channels between manufacturer and customer build the best end results.

    Top