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HS Code |
142371 |
| Chemicalname | Potassium Tetrachloroaurate |
| Chemicalformula | KAuCl4 |
| Molarmass | 390.00 g/mol |
| Appearance | Yellow crystalline solid |
| Solubilityinwater | Soluble |
| Density | 3.51 g/cm3 |
| Casnumber | 13874-02-7 |
| Odor | Odorless |
| Ph | Acidic (in aqueous solution) |
| Hazardclass | Oxidizing agent |
As an accredited Potassium Tetrachloroaurate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 25g, with secure screw cap, labeled "Potassium Tetrachloroaurate," hazard warnings, and manufacturer details displayed. |
| Shipping | Potassium Tetrachloroaurate is shipped in tightly sealed containers to prevent moisture exposure and contamination. It is classified as a hazardous material and must be handled according to local, national, and international regulations. Always ship with appropriate labeling, safety data sheets, and in packaging that ensures stability during transit. |
| Storage | Potassium Tetrachloroaurate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from incompatible materials such as reducing agents and combustible substances. It should be protected from light and moisture. Proper labeling and secure storage are essential to prevent accidental exposure. Access should be limited to trained personnel, and appropriate spill containment measures should be in place. |
Applications of Potassium Tetrachloroaurate in Industrial ManufacturingPotassium tetrachloroaurate serves key functions within specialized chemical processes across several advanced manufacturing sectors. As a manufacturer, we support industries that require precise gold-based intermediates for catalyst systems, electroplating technology, analytical reagents, and nanomaterial development. Below, we detail main downstream applications, focusing on compliance, dose, production use, and resulting products. 1. Precious Metal Catalysts for Chemical SynthesisFine chemical manufacturers rely on potassium tetrachloroaurate as a gold precursor in the formulation of homogeneous and heterogeneous catalysts. Process engineers dissolve and incorporate the material into catalyst preparation stages, using it to deposit gold onto support media or to generate gold complexes. The gold loading, purity, and residual chloride content directly affect catalytic efficiency in oxidation, hydrogenation, and C–C coupling reactions. Downstream quality control monitors trace impurities, ensuring reproducibility and adherence to process validation protocols in batch and continuous production. Industry compliance standards
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2. Noble Metal Electroplating for Electronics ManufacturingElectronics manufacturers use potassium tetrachloroaurate as the main gold source in bath formulations for precision electroplating. Component fabricators design baths to control deposit thickness, grain structure, and adhesion of gold films on contacts, connectors, and microelectronic parts. The raw material’s solubility and ionic stability impact both efficiency and uniformity in deposition, critical for achieving low resistance and corrosion-resistant surfaces. Strict control of bath contaminants and depletion is enforced, and traceability audits confirm lot-to-lot consistency. Industry compliance standards
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3. Analytical Reagents and Standards in Chemical LaboratoriesAccredited analytical laboratories utilize potassium tetrachloroaurate to prepare gold reference solutions and in gold-specific colorimetric and spectrometric assays. Laboratory managers value product traceability, batch purity, and detailed certification for trace-metal analysis, ensuring reliable results in elemental gold quantification, environmental monitoring, and highly regulated testing routines. All handling follows official protocols for analytical reagent use, with validation against international standards. Industry compliance standards
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4. Production of Gold Nanoparticles for Medical and R&D ApplicationsSpecialty nanomaterial manufacturers select potassium tetrachloroaurate as the starting gold salt for controlled synthesis of gold nanoparticles at different sizes and morphologies. Researchers and process chemists precisely adjust reducing agents, surfactants, and reaction kinetics to tailor particle size, surface chemistry, and batch stability. Each lot undergoes rigorous purity analysis and sterility protocols when targeting medical device coatings, diagnostic test reagents, or bioimaging probes. Regulatory documentation must support GMP production if destined for biomedical applications. Industry compliance standards
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Producing Potassium Tetrachloroaurate (KAuCl4) draws upon decades of focused experience. This gold compound represents one of the most versatile and reliable gold chemicals in controlled research and industrial applications. As original manufacturers, we recognize KAuCl4 not as a generic salt but as a critical reagent that needs purity, consistency, and dependability batch to batch. These qualities go far beyond common commodity-grade chemicals.
Many years in this field reveal one fact time and again: reproducibility in chemistry depends on input quality and process control. Our facility refines metallic gold under rigorously controlled environments. We avoid recycled gold sources that risk cross-contamination. Only with primary controls can undesirable trace metals be kept out, allowing us to offer a material that meets the most exacting laboratory and electronics standards.
Gold, when reacted with high-purity hydrochloric acid and potassium chloride under precisely-set conditions, yields Potassium Tetrachloroaurate of deep color and reliable reactivity. Minor variations create major changes in reactivity or decomposition profile, so batching, solution chemistry, wash cycles, and filtration must follow strict protocols. These steps separate our product from others made in less scrutinized loops, limiting surprises further down your workflow.
Our KAuCl4 stands out for its fine granular or crystalline appearance and consistent high-purity analysis. We keep chloride, sodium, and transition metal contaminants below detection limits through closed-loop systems and high-frequency quality testing. Spectroscopic verification underpins every lot released.
We typically deliver the product in sealed, light-blocking containers. Air-tight packing prevents moisture uptake and guards against gradual hydrolysis or photo-decomposition. Each unit bears a unique lot code to link it back to source gold and batch conditions, which enables full traceability.
Across academia and advanced industry, Potassium Tetrachloroaurate plays a significant role in the deposition and formulation of gold catalysts, conductive inks, electrolyte solutions for plating, and chemical sensors. Chemists value its solubility and gold(III) valence, lending itself to both direct reduction and ligand exchange processes. In catalysis research, especially where precise surface atom placement matters, the starting compound’s purity can dictate success or failure in achieving desired particle size distributions or selectivity.
In analytical chemistry, KAuCl4 gets used to test for organic and inorganic analytes using sensitive colorimetric assays. Its reactivity and gold atom accessibility prove critical when synthesizing gold nanoparticles used for biosensing platforms or as carriers for drug delivery systems. In these routes, secondary components such as sodium or copper ions—even at parts per million—sometimes poison surface chemistry or catalysis, making meticulous raw material selection absolutely essential.
Many researchers ask us about distinctions between KAuCl4 and related gold compounds. Potassium Tetrachloroaurate, with its gold(III) center, stands apart from simpler gold(I) salts like Potassium Dicyanoaurate, which serve different chemistries requiring lower oxidation states or cyanide ligands. Gold(III) chloride (HAuCl4), while similar in some reactions, arrives in solution form and often contains more free acid. That can interfere in base-sensitive syntheses or when neutral solution processing is required.
Choosing KAuCl4 over HAuCl4 often comes down to storage stability, risk of hydrolysis, and the context of reaction design. Our solid crystalline material withstands longer term storage, gives easier stoichiometric handling, and reduces the margin for error in weighing. In comparison, some other suppliers operate as traders who may dilute or repackage hydrochloric solutions—our controlled solid production allows for full transparency and greater user trust.
Both gold(I) and gold(III) compounds enable access to gold-based materials, yet the balance of safety, environmental handling, and downstream chemistry often points researchers back to solid potassium tetrachloroaurate. In plating or nanoparticle manufacture where solution behavior and gold ligand exchange are tightly mapped, chemists prefer a compound whose behavior has been validated across thousands of consistent batches, not improvised from disparate sources.
As a company invested in close collaboration with scientists and engineers, we work directly with advanced laboratories, electronics manufacturers, and nanomaterials developers. Frequently, our customers require more than just a fine powder—they need deep answers regarding trace contaminant profiles, solution pH stability, and decomposition kinetics. Our internal laboratory runs continuous in-process analysis, employing ICP-MS and rapid spectrophotometric checks. We can offer historical performance data, so researchers gain confidence not only in the immediate delivery but also in the long-term reliability demanded by scale-up projects or regulatory submissions.
The development of new sensors, gold-based pharmaceuticals, or catalytic processes often requires iterative tweaks to starting gold resources. Being able to consult the original production batch details, trace the source gold, and confirm there were no supply chain substitutions empowers our partners to meet ever-evolving standards in electronics, health, and environmental chemistry.
A seasoned manufacturer views Potassium Tetrachloroaurate not solely through a technical lens, but also through the prism of environmental responsibility and practical on-site handling. We design product volumes and packaging to minimize waste and simplify recycling of used containers. Our shipping focuses on compliance with international transport protocols for precious metal chemicals. Through active engagement with regulatory bodies, we routinely update our practices to reflect evolving benchmarks for environmental safety.
On the use side, laboratory and industrial users face the reality of dealing with soluble gold(III) waste. We provide guidance based on real-world procedures for responsible collection of spent solutions, and we can support gold recovery schemes—a significant benefit as gold prices fluctuate. Many of our users in academic settings benefit from case studies where spent potassium tetrachloroaurate is directly recovered and returned to our refining cycle, closing the loop sustainably.
We do not simply ship a product and walk away. Our team includes chemists with practical laboratory and industrial synthesis experience. Every year, we assist with dozens of troubleshooting scenarios—whether it concerns unexpected reduction products, handling advice in a humidity-prone cleanroom, or solution compatibilities for electrochemical applications. Many common questions focus on solution pH management, best solvents for dissolution, or how to precondition glassware to avoid side reactions from surface residues.
These interactions inform improvements in our production and enable us to publish useful technical bulletins. We share insights about storage practices, shelf-life indicators, and mitigating decomposition over time. Customers talk to real people with track records of bench work rather than generic technical support reading from a script.
From our position as a dedicated chemical manufacturer, we see the continual evolution of gold chemistry in areas like electronics, catalysis, biomedical device fabrication, and environmental analysis. Potassium Tetrachloroaurate serves as one of a shrinking group of gold chemicals that can reliably bridge the laboratory-to-production scale divide without compromise or uncertainty.
Trade and distribution take value only as far as the original material’s provenance and the producer’s commitment to transparency. Stories in the trade press about “batch variability” may sound abstract until an experimental outcome relies upon a notoriously tricky gold ligand exchange. Comparing lots from different origins, we have tracked subtle patterns of incomplete crystallization or excess potassium chloride inclusion, even among suppliers reporting “analytical grade.” Our internal testing and deep knowledge of reaction dynamics let us correct issues upstream, sparing users the expense and delay of downstream troubleshooting.
Reliability might not attract headlines, but it is the foundation of credible research and consistent production outcomes. In this spirit, we keep detailed production logs and run additional quality checks for partner industries—sometimes even providing pre-testing against proprietary customer methods. We use these opportunities to tune aspects such as moisture content, crystalline granule size, and packaging design. Over time, our responsiveness reflects in the loyalty of laboratories who trust every delivery to perform as expected, every single time.
We observe that as regulatory oversight deepens, both in the EU and worldwide, traceability and purity now translate directly into research grant accountability and product approvals. For emerging gold chemistry, particularly in medical and electronics sectors, the consequences of poorly characterized gold input show up in costly revalidation cycles or denied filings. Careful input selection saves time, supports reproducibility claims, and meets regulatory scrutiny.
As experienced hands, we promote a full-lifecycle view of Potassium Tetrachloroaurate—from sourcing primary gold, through usage, to final recycling. For laboratories or industries aiming to recover gold, we provide process advice and, in many cases, facilitate direct metal return for reprocessing. This approach not only recovers material value but also shrinks the environmental footprint. By keeping impurities low in our product, recovery streams handle far fewer interfering substances—meaning higher yield and easier purification.
Direct communication with users allows us to share methods for in-situ gold recovery, neutralizing gold(III) residues, and complying with site-specific environmental controls. Many institutional clients now report that following our recommended recycling and minimization techniques measurably cuts both costs and regulatory burden. Waste reduction starts by choosing a manufacturer who shares this ethic from the foundation up.
Every year we adjust batch protocols and final packaging based on how our users interact with Potassium Tetrachloroaurate in fast-changing scientific environments. Robotics and automated pipetting platforms, for instance, now require free-flowing materials and zero-humidity packaging. New cleanroom protocols have led us to revise outer container specifications, responding directly to feedback from semiconductor fabs and contract research organizations.
We invest in equipment upgrades that reduce microplastics and potential organic residues, informed by customer findings in high-sensitivity surface science. By actively inviting feedback and benchmarking against lab and production needs, we fuel a process of continuous, collaborative improvement instead of one-way supply.
In an age where chemical sourcing reveals gaps between stated and delivered quality, manufacturers shoulder responsibility for putting trustworthy material in scientists’ hands. For us, partnering with long-term users means open communication channels, frequent project progress check-ins, and keeping technical support always within reach. We provide not only rigorous specifications but detailed batch histories, so researchers or buyers never have to trust blindly.
In serving a global community of innovative minds, we understand how failure to control input quality can ruin months of work or kill a promising line of research. Potassium Tetrachloroaurate earns its place in leading-edge labs not from tradition alone, but because we stand behind our material with a level of accountability that cannot be matched by less experienced or less transparent suppliers.
Having seen a range of user workflows, we know that simple protocol adjustments enhance safety and efficiency. Always store the compound away from direct light and moisture—which can both degrade the gold(III) center. Use dedicated tools and glassware for weighing and dissolving to prevent trace contamination. Employ closed containers and glovebox environments where ultra-pure outcomes are needed. Avoid using steel or aluminum labware, as trace corrosion products sometimes catalyze unintended reductions or gold plating.
For solution preparation, dissolve only in freshly prepared, high-purity water or laboratory-grade solvents. Immediate use after solution preparation yields the most consistent outcomes in nanoparticle synthesis or catalysis. In plating, monitor pH and temperature closely—this information, clear from our product guidance, comes from applications data rather than general chemistry texts.
From every angle—input selectivity, process transparency, hands-on technical support, environmental stewardship, and strict quality protocols—we approach Potassium Tetrachloroaurate as a benchmark material. Our process reflects lessons only learned by making, testing, and refining in-house. Feedback, not marketing copy, guides our choices in both synthesis and support. We know the product because we make it, from start to finish, and we support researchers and producers with the same diligence we demand in our own plant.
If your aims depend on confidently sourced gold(III) chemistry, our commitment to integrity, capability, and user success stands ready with every unit shipped. From individual researchers to large institutions, reliability and expertise remain our promise—beyond the label, inside every bottle of Potassium Tetrachloroaurate.