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6-Fluoro-1-Indanone

    • Product Name 6-Fluoro-1-Indanone
    • Alias 6-Fluoroindan-1-one
    • Einecs 693-718-4
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    225911

    Product Name 6-Fluoro-1-Indanone
    Cas Number 156783-12-9
    Molecular Formula C9H7FO
    Molecular Weight 150.15
    Appearance White to light beige solid
    Melting Point 85-88°C
    Purity Typically ≥98%
    Smiles O=C1CCc2ccc(F)cc21
    Inchi InChI=1S/C9H7FO/c10-8-3-1-2-6-4-5-7(11)9(6)8/h1-3H,4-5H2
    Synonyms 6-Fluoroindan-1-one
    Solubility Soluble in organic solvents

    As an accredited 6-Fluoro-1-Indanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle labeled "6-Fluoro-1-Indanone, 25g, ≥98% purity." Features hazard symbols, lot number, supplier details, tightly sealed cap.
    Shipping 6-Fluoro-1-Indanone is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. It is transported under ambient conditions, following regulations for hazardous materials. Proper labeling and documentation are included to ensure safe handling during transit. Specialized packaging minimizes exposure to light and moisture, maintaining the compound’s stability and purity.
    Storage 6-Fluoro-1-Indanone should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Keep away from incompatible substances such as strong oxidizing agents. Recommended storage temperature is 2–8°C (refrigerator). Ensure appropriate labeling and follow standard laboratory safety procedures. Avoid prolonged exposure to air to maintain chemical stability.
    Application of 6-Fluoro-1-Indanone

    Applications of 6-Fluoro-1-Indanone in Industrial Manufacturing

    As a direct manufacturer, we supply 6-Fluoro-1-Indanone to a focused range of advanced industrial sectors. Our material undergoes strict quality control, supporting regulated manufacturing environments across multiple downstream markets. Below, we detail specific, field-validated application scenarios, including industry compliance frameworks, in-process integration, and the precise composition roles of 6-Fluoro-1-Indanone.

    1. Pharmaceutical Intermediate for CNS Active Compounds

    Pharmaceutical companies use 6-Fluoro-1-Indanone as a core intermediate in multi-step syntheses of central nervous system (CNS) drug candidates, particularly for selective monoamine reuptake inhibitors and related analogues. The material participates in the formation of complex heterocyclic scaffolds, which are key precursors in the preclinical development of proprietary active pharmaceutical ingredients (APIs). Downstream manufacturers integrate it during the early stage of the API route, where indanone structure is essential for molecular recognition and activity fine-tuning. Usage rates closely tie to stoichiometry rather than bulk blending, with each batch fully traceable under established pharma documentation systems.

    Industry compliance standards

    • ICH Q7 GMP guidelines for API intermediates
    • 21 CFR Part 211 (US FDA good manufacturing requirements)
    • European Pharmacopoeia (Ph. Eur.) for raw material controls
    • Chinese Pharmacopoeia reference monographs for laboratory-stage precursors

    Typical usage ratio

    • Exact molar equivalents calculated to substrate (typically 0.95–1.05:1, based on synthetic process yield)
    • Batch quantity adjusted per campaign scale and validation protocol

    Downstream process integration

    • Charged to reaction vessel as a primary building block in step 2 or 3 of multi-step organic synthesis
    • Reacted under controlled temperature with secondary nucleophilic agents
    • Monitored for isolated intermediate QC prior to subsequent cyclization or substitution steps

    Final product types

    • Small molecule CNS drug candidates (preclinical and clinical phase)
    • Cyclic alkylamine pharmaceutical APIs
    • Reference standards for neurological research studies

    2. Agrochemical Research & Development for Insecticide Synthesis

    Innovators in agrochemical active ingredient synthesis rely on 6-Fluoro-1-Indanone as a rigid core in novel insecticide candidates, specifically for design platforms exploring fluorinated fused-ring structures. The material enters custom synthesis campaigns oriented toward patent-protected crop protection molecules. Its unique substitution pattern is prized for predictable metabolic stability and selectivity. Application rates depend directly on synthetic route efficiency and regulatory documentation requires full traceability throughout pilot and scale-up batches.

    Industry compliance standards

    • OECD Principles of Good Laboratory Practice (GLP) for pesticide R&D
    • FAO/WHO specifications on pesticide active ingredient synthesis
    • ISO 9001:2015 (quality management for process documentation)
    • China’s GB 4839-2016 guidelines for chemical pesticide technical requirements

    Typical usage ratio

    • 0.8–1.2 mole equivalent per designed molecule (adjusted for ring-opening or further derivatization steps)
    • Laboratory scale: 5–20 g per experiment; pilot: 500 g to 5 kg per run

    Downstream process integration

    • Initiates core scaffold construction in early-stage synthetic blocks
    • Introduced prior to fluorine-tailored derivatization (halogen exchange or coupling)
    • Subject to process development sampling for structure confirmation and impurity profiling

    Final product types

    • Experimental fluorinated insecticide candidates
    • Registered technical grade agrochemical intermediates
    • Analytical standards for in-house pesticide reference libraries

    3. Fine Chemical Synthesis of Specialty Tetrahydronaphthalene Compounds

    Producers of advanced fine chemicals incorporate 6-Fluoro-1-Indanone as a fluorinated precursor for ring transformation chemistry, especially Diels-Alder cycloadditions and selective hydrogenations needed to produce functionalized tetrahydronaphthalene derivatives. These products serve as ingredients in lubricant additives and specialty dye intermediates, where precise control of fluorine placement impacts thermal and chemical performance. Our material is dosed on a per-mole basis aligned with fine chemical transformation yields; the stepwise process requires tight input verification and traceability at all scales.

    Industry compliance standards

    • REACH (EC 1907/2006) for downstream chemical registration in the EU
    • ISO 14001 environmental management for industrial chemical synthesis
    • National standards for fine chemical purity (e.g., Japan JIS K 0116:2016)
    • China Chemical Industry Standard HG/T 3865-2008

    Typical usage ratio

    • 1.0 mole per mole adduct/synthon in cycloaddition; adjusts to 0.9–1.1 depending on excess needed for conversion rate
    • Process engineers define charge weight per cycle based on target batch yield (100 g to multi-kg)

    Downstream process integration

    • Introduced post-solvent charging as principal dienophile or ketone substrate
    • Reacted in high-pressure or catalytic hydrogenation units for tetrahydronaphthalene ring formation
    • QC checked for conversion and unreacted starting material prior to product workup

    Final product types

    • Specialty lubricant additive intermediates
    • Fluorinated dye or pigment precursors
    • Performance chemical compounding agents

    4. Advanced Material Research—OLED and Optoelectronic Compound Synthesis

    Material science laboratories and pilot production units utilize 6-Fluoro-1-Indanone as a starting matrix for constructing molecular building blocks in organic light-emitting diode (OLED) and optoelectronic device research. Its rigid bicyclic system, coupled with targeted fluorination, allows for electronic modification and emission wavelength tuning in specialty aryl compounds. Researchers incorporate our material at the initial step of arylation or condensation sequences, optimizing input ratio to molecule-specific optical behaviors. The whole synthesis is monitored for trace impurities and finished with quality testing for device integration.

    Industry compliance standards

    • ISO 14644-1 cleanroom standards for material fabrication environments
    • ASTM E2877-13 for organic material purity analysis
    • RoHS Directive (2011/65/EU) for electronic and optoelectronic material compliance
    • IEC 62474 declarable substance list for electronic manufacturing

    Typical usage ratio

    • Equimolar or slight excess (1.0–1.08 mole ratio) per fluorescent target molecule
    • Application-specific, from analytical bench scale (10–50 mg) to pre-commercial batch (50–500 g)

    Downstream process integration

    • Acts as initial precursor in solution-phase arylation, condensation, or metal-catalyzed coupling reactions
    • Processed under controlled-atmosphere to prevent degradation during functionalization
    • Screened for color purity and photoluminescence after synthesis

    Final product types

    • OLED emitter and transporter molecule precursors
    • Research-grade optoelectronic intermediates
    • Test panels and prototypes for flat panel display components
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    Competitive 6-Fluoro-1-Indanone prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    6-Fluoro-1-Indanone: A Manufacturer’s Perspective

    Walking through rows of reactors in our plant, I can immediately tell which area is running a 6-Fluoro-1-Indanone batch. The production has a distinct rhythm: precise feedstock additions, careful temperature ramps, and vigilant monitoring of purity levels. Over the years, I’ve seen how this molecule has grown in value for our clients in pharmaceuticals and advanced materials, revealing why our focus on process design, quality engineering, and innovation matters far beyond the raw numbers and technical labels.

    Core Identity of 6-Fluoro-1-Indanone

    Our 6-Fluoro-1-Indanone (CAS: 22259-51-8) is built around an indanone ring with a single fluorine atom at the six position. This molecular tweak—just a single fluorine—transforms indanone’s reactivity profile. Fluorination impacts not only how the molecule reacts chemically but also how it performs in the real world—in the lab, in the factory, in the final product. I’ve long appreciated how the strategic placement of this atom can influence a downstream synthesis and, sometimes, open the door to entirely new applications.

    Manufacturing at Scale: What Precision Delivers

    Our reactors run multiple scales, from kilo-labs dedicated to early-stage development to ton-scale vessels for established demand. Each run starts with raw materials qualified in-house—no cutting corners, no low-grade solvents coming in from untrusted sources. We’ve learned that strict incoming verification pays off in the final product’s consistency. Each batch is monitored by NMR, GC-MS, and HPLC. The process includes tightly controlled reaction times and temperatures, and we refine every stage to minimize by-products, which matters as downstream synthetic chemists can only work efficiently when impurities stay low.

    The crystalline product we harvest offers a purity greater than 99 percent. Experience taught us that going the extra few decimal points in purity can save customers days—or even weeks—in their own process development later. Those working on complex syntheses, APIs, or new materials don’t want to deal with unexpected contaminants or troublesome side-products.

    Model and Specifications In-Depth

    For customers we provide standard lots in the range of 100 grams to multiple kilograms, packaged under inert gas and light-protected to avoid any trace degradation. We do not use recycled solvents or bid-won intermediates to cut costs. Each lot leaves our site with a complete analytical dossier—NMR, purity by HPLC, single-point fluorine confirmation, and heavy metal testing. Over years in manufacture, our documentation system evolved due to customer feedback. A medicinal chemist doesn’t want to chase missing analytical information, so we cover every base proactively.

    Particle size, while not critical in most applications, can be tailored somewhat during crystallization—helpful for those scaling up or adapting to high-throughput screening. We ship in HDPE or glass, never metal, as fluorinated indanones can have unpredictable reactions to trace metals. Every day, our operators remind me where small practical decisions—such as container material or storage temperature—prevent downstream complications. Reliability comes from constant vigilance and learning from every batch.

    Real-World Usage: Why This Molecule Matters

    The most frequent users of our 6-Fluoro-1-Indanone are in medicinal chemistry teams designing CNS-active compounds, kinase inhibitors, or new heterocycle scaffolds. The fluorine atom offers predictable effects on electron density and metabolic stability. Over countless conversations with synthetic chemists, I’ve heard the same themes:

    No abstract word can capture seeing a customer’s key project hinge on your product’s availability and consistency. More than once we’ve expedited night-shift runs, because missing a single delivery slot could derail a partner’s clinical candidate launch or critical pilot build. The stress can feel heavy, but the satisfaction after a successful campaign is real.

    What Sets 6-Fluoro-1-Indanone Apart From Other Products

    Over years in this business, I’ve seen plenty of requests for simple indanones, or even fully-substituted indanone derivatives. But 6-Fluoro-1-Indanone fills a unique niche. Compare it to unfluorinated indanones like 1-indanone itself: you gain enhanced chemical stability, new reactivity options, and different bioisostere behaviors, all from a single atom. Compare it to multi-fluorinated or alkylated indanones: 6-Fluoro-1-Indanone offers a subtle, more predictable transformation pathway—a key detail when teams want control, not wildcards, in synthetic routes.

    Manufacturing this product is not like pushing out a bulk commodity. Handling fluorine sources, managing waste, and protecting team safety call for a higher level of care. Several times I have walked out onto the plant floor to troubleshoot a tricky filtration step, knowing that a small slip on process variables could introduce unwanted impurities. Each improvement in isolation and purification builds our hard-earned confidence—and that shows up batch after batch.

    Customer Experience and Feedback Loop

    Our work doesn’t end at the plant gate. Most technical discussions start with a scientist or procurement lead calling in with a specific question: how does the current impurity profile compare to last year’s lots? What happens under forced degradation? We don’t route these queries off to generic support; instead, the people actually running our process answer technical questions. The ability to guide a customer through the underlying chemistry—whether it’s a subtle NMR shift or the right storage conditions for long-term use—goes deeper than product data sheets.

    Some clients need to scale from grams to kilo labs within a month. Real-world chemistry does not wait on stale supply chains or slow internal reviews. Our process control strategies, from advanced solvent recovery to continuous feedback from analytic labs, grew out of working side-by-side with customers who face pressure to keep programs moving quickly. If we spot a shift in process drift or detect even a trace of new impurity, we notify users well before shipping—no surprises, ever.

    Critical Challenges in Fluorinated Intermediate Production

    Making fluorinated intermediates challenges any synthesis team. Handling the fluorinating agent takes steady nerves and technical know-how. Our site design keeps reaction zones isolated, with constant monitoring for fugitive emissions. Waste management for fluorinated byproducts is a daily operational focus, never an afterthought. Years ago, we invested heavily in scrubbers and chemical neutralization systems, which let us operate safely while staying compliant with regulatory standards.

    Another factor is workforce education. The newer team members train intensively with experienced operators before setting foot near a 6-Fluoro-1-Indanone batch. It does not leave anything to chance. We don’t run like a commodity chemical plant; every shift calls for vigilance, process knowledge, and communication.

    Regulatory and Quality Considerations

    Regulatory expectations grow stricter each year. As a manufacturer, we keep audit trails for every batch—with samples stored for reference and stability studies running in parallel. We report to health, safety, and environmental authorities with full transparency. Securing multi-country registrations of our material required a stepwise tightening of process specs, batch reviews, and documentation updates over several years.

    Customers sometimes ask if we can meet new or specific impurity thresholds for clinical or preclinical use. Our technical staff cooperates closely, tuning reaction conditions or investing in method development—even if it means upending established routines. It’s not theory: time and again, targeted improvements driven by customer projects forced us to reexamine assumptions and raise the bar on process robustness.

    Problem-Solving in the Real World: Adaptation and Flexibility

    Chemical synthesis rarely follows a script. Over and over, real production teaches that the best laid plans can run into a blocked filtration, a sudden solvent shortage, or a process deviation no one predicted at the outset. Years of experience taught us to keep backup options ready: alternative crystallization protocols, substitute solvents for emergencies, even temporary staff rotations for night runs. Our established culture values flexibility—long hours and open communication rather than rigid bureaucratic sign-offs.

    Freight reliability forms another essential piece of the supply puzzle. Disruptions can and do happen—weather delays, transport strikes, customs holds. To minimize the fallout, we work with reputable shipping partners willing to communicate in real time. There have been situations where, thanks to quick action and honest updates, we saved client deadlines that would have been missed by less responsive vendors.

    Learning from Customer Feedback and Market Trends

    Customer feedback often pushes us beyond comfort zones. One group in Europe needed a lower-sulfur specification for a highly sensitive synthesis. It required weeks of test runs and dialogue with raw material suppliers until we crushed the sulfur level below their threshold. Another pharmaceutical company pushed for an improved packaging method to streamline material transfer into gloveboxes. Our packaging technicians worked alongside the chemists, testing glass ampoules, triple-layer bags, and custom dosing scoops until the workflow matched their needs. Every successful adaptation becomes part of our base offering, so later clients don’t have to fight the same battle.

    Market demand for 6-Fluoro-1-Indanone remains cyclical, rising with each new generation of CNS drug development or materials science innovation. Instead of riding the wave passively, we track key published patents and patent expiry trends. Direct communication with biotech firms and research groups lets us anticipate spikes in demand and avoid the pain of shortfalls or gluts, both of which create avoidable headaches.

    Long-Term Commitment to Safety and Growth

    Safety is not a slogan; it’s a way of life for our team. Fluorinated indanones call for more than routine engineering controls—dedicated PPE, customized ventilation, and swift emergency drills keep every operator sharp. We invest in regular training and new process technologies to limit human error. On multiple occasions, safety improvements suggested by line engineers became new site policies.

    Growth of our 6-Fluoro-1-Indanone offering means balancing quality assurance, regulatory readiness, and research agility. Instead of banking on economies of scale, our company culture encourages incremental improvement. Team meetings focus as much on what went wrong and how to fix it as on celebrating smooth batches. This relentless scrutiny becomes a competitive edge, especially as new uses for this molecule keep popping up in global literature and customer correspondence.

    Responsible Waste Management and Sustainability Efforts

    Responsible chemical manufacturing extends beyond what happens inside the plant. Each production run creates waste—especially with fluorinated intermediates. Over the last decade, we invested in new waste treatment processes, including specialized incinerators and recycling reactors to handle spent solvents. These moves go beyond regulatory compliance; they boost morale and let us partner with clients pursuing green chemistry goals.

    By finding new outlets for byproduct streams—sometimes collaborating with local academic labs—we reduce landfill loads and environmental risk. This aspect doesn’t show up in the product specification sheet, but it creates foundation for long-term business stability. Customers pay attention to supplier sustainability profiles, not just purity and price.

    Trust Built Over Time: Lessons from the Field

    Trust takes years to build and only minutes to lose. Customers often share how reliability and transparency play the decisive roles in supplier selection. They want consistent supply, upfront disclosure of process changes, and the confidence that regulatory documentation is proactive—not assembled last minute. We accept site audits, share detailed process validation data, and keep open lines for all questions, technical or otherwise.

    Mistakes do happen. We learn more from honest post-mortems than from easy wins. Once, a mislabeling incident led to a month of root-cause analysis and retraining—hard lessons that drive improvements for years to come. Reviewing historical records and performance dashboards with our staff cements the shared discipline that customers depend on.

    Continuous Innovation: Future for 6-Fluoro-1-Indanone

    Chemistry moves fast. Every year brings new needs from customers, whether it’s improved impurity control for clinical syntheses or packaging suited for automated dispensing. In direct discussions, scientists often share their wish lists—different isomer ratios, less dusting during transfer, even unique particle morphologies for dosing robots. Our ongoing investments in process optimization come straight from these real-world requests.

    Looking forward, we see expanding applications for 6-Fluoro-1-Indanone in high-performance materials, next-generation fluorinated pharmaceuticals, and even niche agrochemical intermediates. Building capacity in advance—before the next rush—lets us meet demand quickly and keep customer programs moving without bottlenecks or delays.

    We see the value of anticipating regulatory trends, developing "greener" synthesis methods, and joining multicenter research efforts. This is not just about commercial advantage—it is about maintaining our customers’ trust and contributing positively to our industry’s future.

    Summary: Worth of Deep Experience

    6-Fluoro-1-Indanone production carries layers of detail, responsibility, and adaptability that go far beyond off-the-shelf commodity synthesis. Every stage—from methodical sourcing and rigorous in-process control, to problem-solving under real manufacturing conditions, to adapting for each end user’s needs—reflects decades of hard-earned know-how. Our team’s daily focus on precision, reliability, honesty, and sustainability shapes every batch we produce. In a fast-evolving chemistry landscape, that commitment sets us apart and delivers value where it truly matters: in the hands of people creating tomorrow’s breakthroughs.