|
HS Code |
133643 |
| Product Name | 8-Mercaptoquinoline Hydrochloride |
| Cas Number | 37184-73-9 |
| Molecular Formula | C9H8ClNS |
| Molecular Weight | 197.68 g/mol |
| Appearance | Light yellow to yellow powder |
| Melting Point | 230-235°C (decomposes) |
| Solubility In Water | Soluble |
| Purity | Typically ≥98% |
| Storage Condition | Store at 2-8°C, protected from light |
| Synonyms | 8-Quinolinethiol hydrochloride |
| Ph Of 1 Solution | 3.5-5.5 |
| Hazard Statements | Irritant (H315, H319, H335) |
As an accredited 8-Mercaptoquinoline Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 8-Mercaptoquinoline Hydrochloride, 5 grams, is packaged in a sealed amber glass bottle with a clear, printed chemical label. |
| Shipping | 8-Mercaptoquinoline Hydrochloride is shipped in tightly sealed containers to prevent moisture and light exposure. Packaging ensures chemical stability and safety during transit. Proper labeling, cushioning, and handling precautions are applied in accordance with hazardous materials regulations. Shipping documentation includes safety data, and expedited delivery is recommended to minimize storage and transit times. |
| Storage | 8-Mercaptoquinoline Hydrochloride should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Protect it from light and moisture. Store at room temperature and avoid exposure to excessive heat. Ensure proper labeling and secondary containment to prevent spills or release. Follow institutional and regulatory guidelines for chemical storage. |
Applications of 8-Mercaptoquinoline Hydrochloride in Industrial Manufacturing8-Mercaptoquinoline Hydrochloride supports advanced manufacturing as a specialty intermediate, providing highly selective sulfur chemistry for both complex and targeted industrial syntheses. Below, we outline its established integration into downstream workflows across the chemicals, electronics, catalysts, and analytical laboratory sectors, with each scenario focusing on highly specific applications where this material delivers unique attribute advantages and compliance performance. 1. Chelating Agent in Hydrometallurgical Metal ExtractionLeading metallurgy processors utilize this compound as a chelating agent to improve selective metal ion recovery, particularly in refining and complex ore leaching operations. Its distinct sulfur-nitrogen functional groups capture trace metals under controlled pH, directly impacting extraction yields in gold, copper, and rare earth hydrometallurgy. The substance enters downstream applications during the aqueous solution treatment step, where it forms stable complexes that facilitate efficient separation during solvent extraction or precipitation. Professional operators set dosage levels by feed ore composition, balancing economic efficiency and environmental discharge requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Analytical Reagent for Elemental DetectionAnalytical laboratories and instrument manufacturers incorporate this material as a sensitive and selective reagent in the colorimetric and spectrophotometric detection of trace metal ions, such as mercury, cadmium, bismuth, and copper. This use leverages its ability to produce distinct chromogenic complexes in aqueous media, forming an integral part of standard protocols in food, water, and environmental sample analyses. Formulation teams standardize reagent concentrations to optimize quantification ranges and minimize background coloration, ensuring reliable instrument calibration and result reproducibility. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Intermediate for Organic Electronic MaterialsDownstream fabricators in the specialty electronics sector utilize this compound as a building block for synthesizing heterocyclic ligands in OLED emitters, advanced photoconductors, and sensor arrays. Its high sulfur reactivity and aromatic structure allow precise attachment onto extended π-conjugated molecules, crucial in the tuning of emission wavelengths, charge injection, or molecular alignment in device components. Chemical engineers dose this intermediate during pilot-scale synthesis, modifying proportions based on targeted functionalization density and solvent system compatibility for each custom molecule batch. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialized Ligand in Homogeneous CatalysisProducers of high-value fine chemicals and pharmaceutical intermediates apply this material as a specialized ligand to modulate metal-catalyzed transformations, such as C–S bond formation, cross-coupling, and hydrogenation. This step enables improved selectivity and turnover in organometallic catalyst systems based on palladium, platinum, or nickel. Process engineers empirically determine addition ratios in pilot or production reactors, focusing on maintaining catalyst integrity while minimizing excess ligand carryover. Applications require strict adherence to batch traceability and process documentation for regulatory and customer audits. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 8-Mercaptoquinoline Hydrochloride prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Having spent years refining our approach to specialty chemicals, we look at every new compound as both a challenge and an opportunity. When it comes to 8-Mercaptoquinoline Hydrochloride, there’s a story that goes beyond purity numbers and CAS codes. This isn’t a commodity item stacked on a warehouse shelf; it’s the result of a series of careful decisions and expertise learned from the real-world needs of chemists and engineers. Manufacturing isn’t a matter of formula alone—every step in the production of this molecule reflects lessons picked up from the bench and from feedback sent directly from researchers and formulators.
Producing 8-Mercaptoquinoline Hydrochloride isn’t just about reaching a chemical endpoint. From sourcing the correct precursors to monitoring the acidity during salt formation, each batch reflects hands-on involvement. We rely on high-quality quinoline materials and select hydrogen chloride with verified traceability. By screening for trace metals and regulating solvent breakdown products, we avoid problems that have cropped up in other supply streams—issues that have led to batch failures and analytical discrepancies for customers using substandard material.
Quality is not a moving target for us. Over the years, we’ve learned that trace contamination, even at low parts per million, raises downstream issues in research and synthesis. Each drum, bottle, or bag sent out gets checked directly for parameters that matter at the application bench: particle gradation, moisture content, and residual solvents. We identify solubility changes not just by calculation but by direct measurement, since small differences change behavior in your protocols.
In our conversations with research partners and technical managers, we’ve seen the range of needs open wider each year. 8-Mercaptoquinoline Hydrochloride plays a central role in chelation chemistry, organometallic synthesis, and chemical analysis. Across academic and industrial labs, chemists have found this compound especially useful as a bidentate ligand in coordination chemistry. Its mercapto group binds transition metals, while the quinoline ring stabilizes many complexes that are otherwise difficult to isolate.
Some customers enter the conversation with a clear view—they need this molecule to build up a catalyst, set up a fluorescence assay, or shield a metal center during a sequence. Other users discover it while troubleshooting a reaction with off-target reactivity or inconsistent performance in a complex matrix. We’ve worked hand-in-hand with technical teams who require performance repeatability through hundreds of syntheses. Consistency on our end, batch to batch, saves hours and often days in requalification and analytical retesting.
We supply 8-Mercaptoquinoline Hydrochloride in crystalline powder form, with particle size distributions characterized by laser diffraction and verified for flowability. Moisture content stays tightly controlled; drying protocols follow customer feedback on storage lifetimes and dissolution rates. Each year, the feedback loop from clients in high-throughput labs or long-term research projects shapes how we prepare our lots, whether for gram-scale benchwork or multi-kilogram pilot programs.
Purity remains critical, but in use we’ve heard that researchers often face issues beyond the basic assay value. Trace chloride or residual organic compounds reduce reproducibility and impact sensitive downstream processes. The best route has been real communication: process technicians and QA leads from client labs talk to our production team, and we adapt cleaning cycles, storage material selection, and monitoring plans as needed.
We stand apart from traders and bulk resellers by maintaining hands-on control of every stage. Third-party warehousing leads to product sitting past ideal shelf-life, which matters for a compound sensitive to atmospheric moisture and sunlight. We store under nitrogen when needed, and small lot production keeps turnover high and shelf time short. Each production run comes from a known source of quinoline, avoiding the cross-contamination common in outsourced packaging facilities.
Similar compounds sometimes show up in the market under varying names, with claims about enhanced reactivity or storage stability, but as direct producers we test these claims ourselves. Some competitors add stabilizers, which might sound good on paper, but these additions alter chelating performance or compromise downstream reactions. Our practice avoids unnecessary additives, focusing on getting the actual compound to the client as cleanly as possible.
We also notice differences in solubility and reactivity that don’t appear in the spec sheets. Batches prepared with slight solvent impurities tend to clump or dissolve erratically. We monitor the process to produce consistent lots that dissolve cleanly in your chosen solvents—reducing troubleshooting steps for the chemists at the bench.
Research users often cross boundaries between inorganic synthesis, analytical chemistry, and environmental science. Some of the most insightful feedback we receive comes from teams developing metal sensors or catalysts that sport unique selectivity profiles thanks to mercaptoquinoline ligands. This compound serves as more than just a chelating agent; it anchors new molecular architectures for luminescent complexes and catalytically active materials. By keeping in touch with scientists at the application level, we stay current with evolving challenges—cleaner extractions, more robust catalyst frameworks, and finer separation science.
Universities routinely request analytical-grade lots with full data annotation, including certificates of analysis with extended impurity profiles. Our production documentation covers specifics on process variance and raw materials, reflecting years of ongoing improvement. For commercial clients developing large-scale extraction processes, we offer tailored drying and packaging to meet stricter internal criteria. The shape and form matter for real downstream convenience; we discuss requirements, then tune the process accordingly.
Problems surface in unexpected ways. We’ve had calls about batch color variance and solubility curves that drift unpredictably between lots. After detailed batch investigations, we traced issues to minor differences in pH correction and trace solvent carryover. We tightened processes to exclude possible introduction of micro-impurities from glassware and mixed-metal process lines. This level of transparency lets us solve problems alongside end users, not after the fact, and helps build long-term trust.
Handling feedback often highlights improvements missed on paper. One team reported inconsistent surface activity in solution-phase testing; our investigation found that residual washing solvent was interacting with the end-use application in a non-obvious way. This kind of discovery guides our quality checks to cover not only standard assay and impurity screens, but subtle issues that affect function in the real world.
Such responsiveness has bred multiple collaborations, where clients share application context and we test modifications—be it drying step tweaks, additional screening points, or new packaging formats. Every update shapes the material properties in ways that never show in generic databases or supplier catalogs.
8-Mercaptoquinoline Hydrochloride stands out in its class for both purity and application breadth, but we also produce adjacent compounds that sometimes get cross-referenced by buyers new to the field. Understanding where the differences matter makes life easier for technical teams:
We focus on staying responsive to users who need more than just a vial with the right label. Sometimes it means helping a researcher clarify which quinoline derivative fits best, or guiding a process chemist in tuning conditions for metallation steps.
Our manufacturing process reduces waste by reclaiming both solvents and unused starting materials wherever possible. Regular audits of waste stream treatment ensure compliance and safety for both workers and surrounding communities. We’ve switched to closed-loop systems for solvent recovery, thanks to years of on-site studies into evaporative losses and environmental impact.
Inside the facility, safety stays at the forefront. Every batch run includes checks for residues and byproducts that might compromise not just product quality, but the safety of our team and the end user. We adjust cleaning and waste handling to minimize operator exposure and environmental release—learning lessons from years of process data and audits following regulatory updates.
Shipping the product to customer labs or production facilities demands just as careful a hand. We use tamper-proof containers that survive transport jolts, and packaging that shields from atmospheric moisture. Inner bags and outer boxes receive periodic review, tuned for field conditions reported from our distribution partners and direct customers.
Customers in regulated industries need not just a product, but a complete quality and regulatory package. Every lot ships with detailed certificates and process documentation. We track batch genealogy to resolve any question about source, storage, or analytical variance—making it straightforward for buyers to validate incoming material for their processes or regulatory submissions.
We adapt to evolving regulatory landscapes concerning chemical handling, reporting, and downstream application. Our documentation team works closely with production, ensuring every release matches both technical and compliance expectations from global users.
From lot traceability to impurity panels, our records anticipate questions from auditors, procurement officers, or research leads who need to pass stricter internal reviews. Technical teams value these practices, as missing documentation causes delays and complicates project workflows.
Direct feedback feeds everything we do. Years spent on the manufacturing floor have taught us that improvement comes less from grand redesigns than from small, continuous changes in response to user input. Comments from chemists about faster dissolution, cleaner baseline in spectroscopy, or longer shelf stability shape every production tweak.
We bring new technology into the plant only after real-world trial—not as a marketing point, but as a response to problems surfaced from actual use. Pilot-scale tests simulate actual storage and transport, so our teams work out kinks before scaling up and shipping to clients worldwide.
The compound’s story keeps changing, as applications in new research areas and industrial settings arise. We listen to new requirements from universities building environmental detection assays and from process chemists architecting novel synthesic routes. By rooting improvements in user reality, we achieve reliability, not just in chemical terms, but in what actually reaches the end-user’s bench.
Manufacturing 8-Mercaptoquinoline Hydrochloride is a hands-on, iterative project shaped by the people who use our product and the people who produce it. We draw on our technical background, open lines of communication with our customers, and an unflagging commitment to getting things right—not just on a certificate, but in practice. The compound continues to unlock possibilities for chemists and engineers in fields from catalysis to analytical detection.
For every drum or bottle that ships out of our plant, there’s a team standing behind the process, looking for ways to improve the next batch. We treat every inquiry not as a problem, but as a chance to refine our process and grow alongside the community we serve. The industry will likely keep driving complexity and new demands, but our approach—rooted in hands-on experience, real communication, and a focus on practical improvement—remains as steady as it ever was.