| HS Code | 811998 |
| Chemical Name | Potassium Gold Cyanide |
| Formula | KAu(CN)2 |
| Molecular Weight | 339.00 g/mol |
| Appearance | White to yellowish crystalline powder |
| Solubility In Water | Highly soluble |
| Melting Point | Decomposes before melting |
| Density | 3.38 g/cm³ |
| Cas Number | 13967-50-5 |
| Gold Content | Approximately 68% |
| Toxicity | Highly toxic |
| Main Use | Gold electroplating |
| Odor | Odorless |
| Stability | Stable under normal conditions |
| Storage Conditions | Store in a cool, dry, well-ventilated area |
As an accredited Potassium Gold Cyanide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A sealed, labeled 100g amber glass bottle with secure cap, featuring hazard warnings and manufacturer details for Potassium Gold Cyanide. |
| Shipping | Potassium Gold Cyanide must be shipped as a hazardous material in compliance with international regulations. It should be tightly sealed in corrosion-resistant containers, clearly labeled with appropriate hazard symbols, and transported under controlled temperature and humidity. Shipping documentation must include safety data sheets, and handling by trained personnel is required due to its toxic and reactive nature. |
| Storage | Potassium gold cyanide should be stored in a tightly sealed, corrosion-resistant container in a cool, dry, and well-ventilated area away from moisture, acids, and incompatible substances. The storage area should be secure and clearly labeled as hazardous. Protective measures must be in place to prevent exposure to light and potential release of toxic hydrogen cyanide gas. |
As a direct manufacturer of Potassium Gold Cyanide, we supply high-purity material for precision use in several demanding industrial sectors. Our production facility meets strict international QC standards, supporting critical applications across electronics, decorative coatings, specialty glass, and scientific instrumentation manufacturing. Below we detail the specific downstream integration of Potassium Gold Cyanide in real-world sectors, including regulatory standards, usage ratios, process roles, and the range of final finished products enabled by our material.
In the electronics industry, Potassium Gold Cyanide remains the primary gold source for high-reliability electroplating. Major downstream users, including printed circuit board (PCB) and component connector factories, depend on precise deposition to achieve consistent conductivity, corrosion resistance, and durability. Manufacturing process control requires strict monitoring of the gold complex concentration to deliver flawless, high-purity gold layers on copper, nickel, or other substrates in high-frequency circuit and microelectronic assembly lines. Material traceability, bath management, and solution stability directly impact finished part yield and critical reliability performance.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Luxury watchmakers, jewelry ateliers, and ornament manufacturers use Potassium Gold Cyanide for gold electroplating on non-gold substrates, producing uniform, durable, and visually flawless gold finishes. Strict process control is maintained to ensure consistent thickness, no visible color variance, and high adhesion, even on complex forms and fine details. Manufacturers select bath composition carefully to avoid nickel leaching or unwanted alloying, complying with jewelry toxicity and anti-allergen regulations in export markets. The process enables cost management while ensuring authentic visual and physical gold properties.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
The specialty glass industry utilizes Potassium Gold Cyanide for deposition of pure gold films in manufacturing dichroic glass filters, architectural glass, and optical components requiring precise IR reflectivity and electromagnetic shielding. Exact bath formulations and deposition current densities are closely guarded within production recipes, with manufacturers balancing gold layer thickness to achieve targeted optical interference, visible light transmission, and long-term adhesion during lamination or tempering. Quality systems track input purity and surface cleanliness, with downstream validation by in-line spectrophotometry and durability cycling.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Manufacturers of X-ray tubes, electron microscopy parts, and high-sensitivity detection systems require Potassium Gold Cyanide as a precursor for electroforming and fabrication of gold targets, grids, and electrodes. These applications demand highest available purity for gold films, as even minor contaminants diminish analytical performance. Traceability, contamination monitoring, and batch segregation form part of each supply agreement. Deposition occurs under tight environmental controls, with gold structure and morphology validated by XRF and spectroscopy prior to acceptance in medical or metrological devices.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Competitive Potassium Gold Cyanide prices that fit your budget—flexible terms and customized quotes for every order.
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From the early days of our factory floor to the present, we've handled Potassium Gold Cyanide with a focus shaped by daily practice, countless customer requests, and the demands of advanced electronics. We manufacture this chemical—often written as KAu(CN)2—to the highest purity, with our experience showing that trace contaminants can make the difference between flawless gold deposits and a scrap heap of defective parts. The importance of keeping sodium, iron, and nickel content to minute levels proves itself not in theory, but when precision plating for micro-connectors, semiconductors, high-frequency components, or luxury watch parts.
Our team has learned, sometimes the hard way, that one-size-fits-all thinking fails when you’re gold-plating at scale. Aerospace customers need reliability; fine-jewelry makers demand enduring luster; PCB manufacturers can’t tolerate a single anomaly in their circuits. The potassium gold cyanide we produce comes with models tuned for each use, because years at the reactor have shown us that deviation in composition or crystal habit complicates the process on every downstream line.
We don’t buy finished raw material and repack it. Each stage—dissolving gold under carefully managed cyanidation, removing byproducts, crystallizing, then drying—remains under our roof. Our chemists and engineers adjust variables in real time; batch after batch, they track purity with atomic absorption, check particle shape by microscope, even confirm color under controlled lighting. Every finished lot passes through hands and eyes trained to pick up patterns, spot trends in test results, and answer one question: will this batch deliver the results our customers expect in the tank?
Potassium gold cyanide is tricky. Sloppy purification or lazy rinsing at any step creates risk for end-users. One suspended solid or misplaced metal can seed non-uniform growth or pit the final finish. We’ve worked out empirical routines to limit these variables, keeping our gold/cyanide ratios tightly in tune. Factory operators who care about their output repeatedly ask for our material because they know what arrives is the product of compounding vigilance: zero cutting corners, constant recalibration of best practices, actual chemists reviewing actual numbers, and a feedback loop running from plating lines back to the synthesis vessels.
The product enters the market mostly in crystalline or powder form, shaded off-white, with free-flowing properties for direct dissolution into plating baths. We refine our potassium gold cyanide to a purity exceeding 99.9% total metal content. Rigorous moisture control prevents caking, a factor the industry sometimes glosses over but which matters for automated dosing. Particle size distribution, measured with laser diffraction, remains consistent from tub to tub—users who run continuous-feed in-line systems report smooth handling, no pattern of clumping, and reliable results at ultra-low dosing rates.
Our process, honed by years of feedback from plating companies both large and small, delivers confidence. Documents support every batch: ICP reports, gamma-ray scans (to verify gold isotope composition), and customer-specific analyses for trace elements like arsenic, lead, or platinum. A number of fabricators outside the electronics sector—think high-security contacts, decorative high-wear inserts, or sensor assemblies—also request custom blends with adjusted cyanide or potassium levels per their legacy processes, which our reactors can accommodate on practical timelines, not bureaucratic ones.
Potassium gold cyanide stands out in gold electroplating baths for two main reasons: process predictability and superior deposit quality. Anyone who’s ever watched gold build on a substrate sees immediately the difference between compromised feedstock and material that’s manufactured right. Our regular users typically operate at a gold content range suited to both decorative and technical finishes, somewhere between 0.5 to 10 grams per liter of bath, with current densities frequently hovering around 0.2–2.0 A/dm²—though the process engineers set these numbers based on actual workplace equipment.
Our material dissolves rapidly and completely, which reduces turnaround time for line changeovers and allows replenishment dosing with fewer headaches. The resulting gold plate comes out bright, adherent, and, in our experience, with minimal stress and porosity—a visible difference for customers who polish, engrave, or overplate further onto components. Where fine tolerance matters, such as wire bonding in semiconductor devices or gold finger/interconnect plating on printed circuit boards, our controlled composition eliminates the micro-defects, stray inclusions, or dull bands that plague facilities relying on inconsistent third-party suppliers.
We’ve tested the claims ourselves. Working in partnership with plating shops who let us take samples straight from their line, we’ve compared deposit thickness uniformity, hardness variation, and ductility across parts plated with our material versus generic or rebagged product. The difference manifests in every micron: lower standard deviations in thickness, less micro-cracking during post-process heating, lower transfer resistance measured at board contacts. Every batch that fails our control metrics gets scrapped, not recycled back in, since lingering underspec chemical sets the stage for costly rework or field failures.
Real-world trials underscore what years on the manufacturing floor teach: minor shortcuts in chemical composition multiply into major quality assurance nightmares. Since most end-users—the engineers designing cell phone contacts or medical sensor foils—can’t inspect each delivery themselves, we publish our independent analytical results and track any customer-reported issue back to the reactor log. These lessons have saved both us and our regular buyers costly downtime, field returns, and reputation hits.
Potassium gold cyanide occupies a unique position. On the one hand, alternatives like gold sulfite or thiosulfate salts promise “greener” processes, often marketed as safer in open-air workshops. In practice, industrial fabricators still rely overwhelmingly on potassium gold cyanide—not because it’s the only option, but because it consistently delivers both process simplicity and end-quality under high-throughput demands. Engineers working in defense, high-end telecommunications, and medical devices return to this tried-and-true chemistry for a simple reason: robust data support its stability, throwing predictable results whether working with alloys, heavy-mass parts, or the wafer-thin digital connector pins now so common in our devices.
Sulfite-based baths, for example, often struggle with leaching or uneven deposition, particularly when the line carries high volumes or integrates with legacy electronics. Thiosulfate salts need very specific pH and additive controls to avoid streaking or chalky finishes—not a trivial matter for anyone who needs to scale up output or meet international reliability standard tests. Our potassium gold cyanide products, shaped by years of in-plant tuning, let customers run their processes continuously with precisely monitored current density, temperature, and agitation without fighting unpredictable tank fouling or breakdown of exotic additives.
Any manufacturer dealing with gold cyanides faces a stark reality: safety protocols govern every step, not just for the factory but also for downstream users. We handle every batch according to regulatory best practice—sealed transfer, stringent PPE, round-the-clock monitoring, secondary containment, and recycled process water. In return, customers benefit from a chemical that, while inherently hazardous, comes with data-backed confidence in quality and purity. Over the years, we’ve seen the real impacts of safety lapses elsewhere: cyanide releases that close down plating shops, contaminated parts reaching high-stakes supply chains, or workplace injuries from improper storage and handling.
To address these risks, our packaging and transport systems follow industry-leading protocols, including tamper-evident seals, triple-layer containment, and regular inspection throughout transit. For buyers working to upgrade environmental performance, we offer closing-the-loop programs: used rinse waters can be shipped back to our site for gold recovery and cyanide destruction, cutting total environmental burden. Offering training and technical support, not lip service, has reduced incident rates among our partner shops—proving that diligence from the sourcing plant brings real-world safety improvements, not just paperwork.
We’ve walked factory isles as chemists, engineers, and process auditors, watching new technologies ripple through the downstream sectors. Advanced electronics, thin-film sensors, even sustainable jewelry fabrication: each pushes gold plating to new limits. Potassium gold cyanide, with its long track record, now finds itself employed far from the classic barrel and rack plating lines. We’ve crafted custom batches for micro-patterning with photoresist masks, atomic-layered thin films, and additive manufacturing prototypes where standard salts simply fail to deposit pure, ductile gold.
With direct feedback from R&D teams, we’ve adjusted product grades: lab packs with sub-microgram impurity specs, calibrated for scientists who can’t risk secondary contamination; bulk batches for automated PCB lines designed to minimize labor and error. In each case, the voices of researchers, machinists, and product reliability managers shape our product customization, because a real-world supplier answers technical calls, shares batch history, and adapts without losing focus on safety or transparency.
No two jobs run the same. Sometimes, a plating tank will start producing streaks or pinholes, and the root cause tracks back to a subtle shift in make-up water or a contaminant from an auxiliary process. We keep a direct line open for customer troubleshooting. If someone calls about bad adhesion or spots on their finished gold, our technical team pulls sample retains from matching production lots, runs parallel reanalysis, and—where needed—adjusts recipes without long corporate delays. People running production lines have returned to us with problems ranging from bath instability to drags in gold laydown rate, and because we control our own synthesis, we can respond rapidly.
Years in the business have taught us that process optimization means more than technical specs; it means a collaboration. We’ve seen plating shops cut reject rates in half by adopting slight modifications to our cyanide-gold ratio or filtration tips gleaned from our long-term data sets. Consistency, traceability, and responsiveness—all deliver value you won’t find in a transactional supplier.
As electronics shrink, and the value of every micron of gold climbs, precision in chemical composition becomes more critical. In the last decade, requests for even narrower particle size distributions, lower sulfate and chloride allowances, and tailored additive compatibility have increased. We’ve invested in advanced analytical equipment to catch shifts before they leave our facility. The trust that OEM component makers show in our product comes from decades of outcome-focused production.
Competitors may chase cost savings by relaxing standards or substituting lower-purity inputs, but the end-user notices. They ask for references not just for price, but for verified performance over months and years of production. We publish failure rates, production records, and long-term reliability data openly with our customers—evidence speaks clearer than ungrounded marketing. Industry knows the value of a partner who sticks with the details no matter the order size.
There’s practical value in buying direct from a manufacturer who understands every process detail. Distributors or traders often cannot answer technical questions for end-users facing actual line problems. Our production logs, raw material trace sheets, and real-time testing protocols offer confidence beyond a simple certificate. If an issue arises, we don’t point to a shipping manifest; we open our laboratory records and process history, track down the step where deviation occurred, and offer corrective material or advice based on actual production knowledge.
Factory experience breeds best practices you can trace: maintenance of storage conditions, experience with post-product recycling, familiarity with on-site plating bath optimization. Customers benefit from supply resilience, technical support, and stable inventory because chemical manufacturing, unlike brokerage, means taking responsibility for every bag shipped and every kilogram of gold locked into customer parts.
Potassium gold cyanide remains a critical raw material for anyone demanding excellence from gold electroplating. Our decades in manufacturing bring an honest understanding of what it takes to produce not just high-purity chemical, but reliable results across industries and generations of evolving technology. From the smallest R&D lab to the largest connector manufacturer, those who value their end product choose gold cyanide born of real expertise, day-in and day-out process control, and a culture of transparency earned on the shop floor rather than handed down by marketing departments.