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HS Code |
740032 |
| Cas Number | 1306-19-0 |
| Molecular Formula | CdO |
| Molecular Weight | 128.41 g/mol |
| Appearance | Brownish-red to dark brown powder |
| Odor | Odorless |
| Melting Point | 900 °C |
| Boiling Point | 1550 °C |
| Density | 8.15 g/cm³ |
| Solubility In Water | Insoluble |
| Vapor Pressure | Negligible at room temperature |
| Ec Number | 215-146-2 |
| Un Number | 2570 |
| Refractive Index | 2.49 |
As an accredited Cadmium Oxide [Non-Pyrophoric] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging contains 500 grams of Cadmium Oxide [Non-Pyrophoric] in a sealed, labeled HDPE bottle with appropriate hazard symbols. |
| Shipping | Cadmium Oxide [Non-Pyrophoric] should be shipped in tightly sealed containers, clearly labeled, and protected from physical damage. It must comply with hazardous material regulations, typically under UN 2570, Class 6.1 (toxic substances). Transport should avoid moisture, incompatible substances, and extreme temperatures, with proper documentation and safety data sheets included. |
| Storage | Store Cadmium Oxide [Non-Pyrophoric] in a tightly sealed container in a cool, dry, and well-ventilated area, away from incompatible substances such as acids and strong oxidizers. Ensure the storage space is labeled and restricted to authorized personnel. Protect from physical damage, moisture, and sources of ignition. Use corrosion-resistant shelving and avoid generating dust during handling. |
Applications of Cadmium Oxide [Non-Pyrophoric] in Industrial ManufacturingAs an established manufacturer, we supply Cadmium Oxide [Non-Pyrophoric] primarily for complex industrial sectors that demand strict compliance and precise formulation. Below are the core downstream segments, process specifics, and finished products relating to this raw material. 1. Electroplating and Surface Finishing for Aerospace ComponentsCadmium Oxide is extensively used in the preparation of cadmium plating baths for aerospace fasteners, landing gear, and critical fatigue-prone components. Its use enhances corrosion resistance and lubricity, especially where high reliability is demanded under extreme service conditions. Technicians dissolve Cadmium Oxide in sulfuric acid to make cadmium sulfate electrolytes for electrodeposition, strictly controlling metal ion concentrations, pH, and temperature to achieve uniform, adherent coatings. Plating lines must comply with industry-specific process and waste management requirements, with stringent QA testing of deposit thickness, porosity, and hydrogen embrittlement relief. Industry compliance standards
Typical usage ratio
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2. Cadmium Sulfide Pigment Manufacturing for Industrial CoatingsIn pigment synthesis, manufacturers convert Cadmium Oxide to cadmium sulfide (CdS) via direct reaction with hydrogen sulfide or sodium sulfide. This high-purity yellow pigment is a key component in specialty coatings for marine vessels, ceramic glazes, and temperature-resistant polyolefins. The pigment grade must consistently meet tight specification for heavy metal content, particle size, and color strength. Strict environmental controls are implemented during production to confine potential cadmium dust or vapor emissions, and only closed-system reactors are permitted under advanced plant standards. Industry compliance standards
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Final product types
3. Photovoltaic Thin-Film Manufacturing (CdTe Solar Cells)Cadmium Oxide serves as a precursor in the fabrication of transparent conductive oxides (TCOs), as well as p-type window layers, for cadmium telluride (CdTe) photovoltaic modules. Process engineers vapor deposit thin films using controlled chemical vapor deposition or close-spaced sublimation, integrating this material at tightly regulated substrate temperatures. The oxide form offers process stability and purity critical for large-scale PV manufacturing, with intensive QA over impurity levels and crystal phase consistency to maintain device efficiency. Environmental, Health, and Safety compliance is strictly monitored throughout the production lifecycle, including air abatement and waste capture systems. Industry compliance standards
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4. Nickel-Cadmium (Ni-Cd) Battery Electrode ManufacturingNi-Cd battery lines use Cadmium Oxide for paste preparation in positive and negative electrode plates. Workers blend the oxide directly with binders and additives, adjusting moisture and rheology to control plate density and porosity. The manufacturing environment maintains strict dust collection and closed handling to eliminate environmental exposure risk. Finished electrodes undergo sintering, calendering, and formation cycles, verified against performance and life cycle benchmarks. Regulated shipping and waste management protocols surround production facilities to align with global battery safety and recycling rules. Industry compliance standards
Typical usage ratio
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Competitive Cadmium Oxide [Non-Pyrophoric] prices that fit your budget—flexible terms and customized quotes for every order.
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The business of making chemicals for the world’s industries calls for dependability and hands-on attention at every step, from sourcing raw cadmium to turning it into a suitable oxide. Cadmium Oxide [Non-Pyrophoric] has earned its reputation as a backbone material in manufacturing, electroplating, electronics, and pigments. Our experience in producing cadmium-based compounds shines through in how we approach challenges often overlooked by traders and casual resellers. In refining each batch, we go beyond the minimum: purity, batch-to-batch consistency, particle size management, and trace impurity removal decide if the finished oxide actually provides what our clients want—not just technical compliance, but real, predictable results in their lines and labs.
People working in labs and production lines rely on us to supply cadmium oxide without the headaches of pyrophoric risk. Standard cadmium oxide powders, poorly handled, can catch fire if splashed into air due to their particle structure and high surface area. Our non-pyrophoric model avoids this hazard. Through decades of project-based learning, we developed a controlled oxidation process that shapes the oxide crystallites and aggregates in a way that removes the capacity for sudden self-heating or ignition. This isn’t just a checkbox for regulations: workers can transfer, measure, load, and dissolve our product at room temperature using normal protective gear, without facing the risk of flare-up. The reduction in accident reports over the years where our material replaced generic “grade” product speaks for itself. Every time a plant manager calls to confirm a shipment, it tells us the product has earned its place on the factory floor.
Most buyers notice purity levels—usually reported as a percent on a paper spec sheet. From a manufacturing view, this isn’t about marketing; it's about the chemistry that unfolds when cadmium oxide meets the process. For solution-prepared coatings and plating baths, trace metals and residual chlorides or sulfates interfere with electrical behavior and bath homogeneity. We saw early on that simple calcination—roasting low-grade cadmium on a line and capturing the product—created wild swings in both physical and chemical properties. By redesigning the flow using vacuum filtration and controlled atmosphere roasting, we pull residual salts and volatile metals well below detectable limits. Several glassmakers and battery engineers reported that with generic oxides, color drift or efficiency drops would waste days of production. With our non-pyrophoric oxide, color and conductivity hold true from lot to lot, and the maintenance teams spend less time chasing down process drifts that traced back to impurities.
Clients ask why not just use standard cadmium oxide powders. The difference shows up in the places where production flow and scaled reactions leave little room for error. For instance, in the pigment business, making certain reds and oranges, the oxide blend’s absorbance and particle stability dictate both shade and longevity. In thick film electronics, screen printers and metallization shops depend on minimal agglomeration and easy dispersion into pastes. Laboratory users—synthesizing organometallic complexes, testing catalysts—value a finely calibrated particle size and shape. We keep regular conversations with these front-line users, taking samples off our line and working into their processes, not just bench demos. Their feedback shapes how we filter, dry, and blend each batch, and when problems arise, they connect clearly to the subtle mismatches that only come from lived experience in the shop.
End users from battery line engineers to ceramicists know that specifying a product means looking beyond a table of numbers and asking: will it perform over hundreds of cycles and dozens of environmental shifts? The specifications we use reflect this philosophy. Typical purity runs at least 99.5% by metal content—checked by atomic absorption, not by simple mass balance. Loss on ignition, which points to hydration or loosely bound volatile residues, holds well below 1%, thanks to our drying protocols. Sieve analysis and laser diffraction controls mean that the largest and smallest particles always fall within the tight range our regulars have come to expect. Our process avoids the ultrafine fractions that would risk dustiness or reassume pyrophoric qualities. We supply the product in robust, sealed drums and kegs that prevent caking or moisture pickup, extending shelf life even in humid climates.
Guidelines from safety agencies help, but they can’t substitute for fundamentally safer products. As manufacturers, we shoulder the responsibility of making cadmium oxide solid enough that it doesn’t suspend readily into air, yet free-flowing enough that operators don’t need to dig or smash lumps when charging reactors. We test every batch for flow properties under normal handling. Decades of supplying to sites with varying degrees of automation taught us that real safety comes from the product, not just the paperwork attached. Reports from plating shops and pigment rooms that previously struggled with fugitive dust have dropped sharply since they switched to our non-pyrophoric product, and that feedback drives us to maintain this standard.
Cadmium oxide’s value lies in its chemical stability—both in storage and in service—yet this stability must balance with readiness to react or dissolve under the proper conditions. A lesson from the early days: high-surface-area fine powders might deliver high reactivity, but they risk over-reactivity and accident. Our current process manages crystallite size to stay firmly in the sweet spot, so that dissolution for catalyst or plating bath prep goes smoothly with stir bars or gentle heating. Electrochemical users rely on this, and so do pigment blend operators. Years of watching batches through colorimetric and conductivity testing have shown us that controlling the internal structure of particles outperforms simple grinding or blending—giving our partners a usable, “predictable” reagent.
The discussion pops up often: what really separates non-pyrophoric from the generic grades on offer? We measure the difference not in theoretical claims, but in reported near-misses and plant stoppages where pyrophoric oxide led to smokey flares or internal heating. Generic material, especially if milled too finely or poorly stored, hangs in the air and can auto-heat when split open or spilled. Our non-pyrophoric material maintains a denser, less reactive surface, resisting the onset of combustion. This property came not from a single discovery, but ongoing refinement after conversations with incident investigators, insurance consultants, and the hands-on maintenance teams who mop up after accidents.
Battery researchers, pigment manufacturers, glassmakers, and metal finishers all seek something different from cadmium oxide. We learned that canned solutions rarely fit all. In batteries, the oxide’s performance in positive electrode composition depends on the particle’s ability to disperse in pastes and its tight control of trace iron or nickel contaminants. Glassmakers look for clear fusion into borosilicate or silicate melts, with no tint or striation that signals batch inconsistency. Pigment producers rely on color development and stability, tracking against standard chromaticity charts. Years in the lab taught us to address these distinct needs by shaping each lot, and refusing to supply “one size fits all” material, regardless of what basic spec sheets claim.
Investment in analytical tools pays off, but hands-on feedback keeps our process honest. Each new client scenario—unexpected color shift in a pigment mill, a plate line losing conductivity overnight—triggers a review with our production lead and, if needed, a pilot batch run to isolate the root cause. This approach set our oxide apart from distributor-grade material, where outcome reporting usually stops at the dock. Trusted customers become our research partners, flagging subtle performance changes so we return to the line and make real changes, not just redline a document. Over the years, this loop built confidence out on the shop floor and made our oxide a staple in several flagship products built worldwide.
Manufacturers of cadmium compounds have a front-row seat to environmental, health, and legal concerns. Long before regulatory agencies set today’s exposure limits, we put in place closed circuit systems and multi-phase filtration to capture airborne cadmium from the first point of reaction. Every cycle of roast, blend, and filter is monitored and logged, because escape of even a few milligrams per cubic meter becomes significant by the ton. Revising our facility to meet and often exceed local and international emission standards was a learning experience—spurred in large part by our own observations, not waiting for government enforcement. This commitment spares buyers the headaches of using poorly controlled feedstock and helps guard the health of the neighborhoods around our plant, not just our own crew.
The needs of our regular buyers keep us searching for incremental improvement, from packaging designs that survive long-distance transport in wet seasons to modified grades for niche research in electronics or polymers. Collaborative ventures with universities have led to tweaks in surface treatment, opening up options for specialized catalyst and sensor use, still grounded in our core process. Every new requirement—lower dust, higher dispersibility, sharper particle cut—translates into hands-on trials at the pilot scale. Without direct manufacturing control, these adjustments become impossible to implement or verify. As the industry keeps changing, our position directly in the process lets us adjust with real agility, not just add a mark-up and pass down a spec sheet.
From the first barrel we shipped, we made clear that our identity rests on being a real producer—not a bulk shipper or paperwork broker. Our sales and technical staff walk the line with R&D and production, from raw material check-in to final packaging and post-sale follow up. We built our reputation batch by batch, learning the pitfalls of scaling up a hazardous but essential compound, and standing with buyers after the ink dries on the order. In the world of cadmium chemistry, where lives, jobs, and reputations hang on predictable supply, loyalty builds not from branding but from the predictability shown over years of shared work.
Years at the furnace, on the blending floor, and in the test bench taught us that the true mark of success comes in quiet cycles—with batches moving easily, workers finishing their shifts without accident, and clients reporting not just “compliance” but actual results. By putting the work in up front—tightening controls at every link in the process, listening to the people who depend on the product most, and making quality changes based on field experience—Cadmium Oxide [Non-Pyrophoric] from our line does more than meet a market, it solves real problems in real environments. Not every buyer notices the painstaking details; the best ones do, and their long-term trust is proof of what direct manufacturing brings to the table.