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2-Furanboronic Acid

    • Product Name 2-Furanboronic Acid
    • Alias 2-Furanylboronic acid
    • Einecs 635-206-5
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    422461

    Chemicalname 2-Furanboronic Acid
    Casnumber 4461-54-1
    Molecularformula C4H5BO3
    Molecularweight 111.89
    Appearance White to off-white powder
    Meltingpoint 184-188°C
    Density 1.22 g/cm³ (estimated)
    Solubility Soluble in water, DMSO, and methanol
    Synonyms Furan-2-boronic acid
    Smiles B(C1=CC=CO1)(O)O
    Inchi InChI=1S/C4H5BO3/c6-5(7)4-2-1-3-8-4/h1-3,6-7H

    As an accredited 2-Furanboronic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 2-Furanboronic Acid is supplied in a 25g amber glass bottle with a tightly sealed cap, clearly labeled with hazard information.
    Shipping 2-Furanboronic Acid is shipped in securely sealed, chemical-resistant containers to prevent contamination and degradation. Packaging complies with safety regulations for hazardous materials, ensuring protection against moisture and light. Appropriate documentation and labeling are provided, and transport is conducted under controlled conditions to guarantee product integrity during transit.
    Storage 2-Furanboronic Acid should be stored in a tightly sealed container, protected from moisture, air, and direct sunlight. Keep it in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers. Store at room temperature or as recommended by the supplier. Ensure containers are clearly labeled and access is restricted to trained personnel.
    Application of 2-Furanboronic Acid

    Applications of 2-Furanboronic Acid in Industrial Manufacturing

    2-Furanboronic acid is a key intermediate in advanced organic synthesis, widely used by pharmaceutical, agricultural, polymer, and fine chemical manufacturers. As the direct producer, we supply this specialty raw material for precise integration into customer formulations and processes requiring high chemical purity and batch-to-batch consistency.

    1. Pharmaceutical API Synthesis – Suzuki Coupling Reactions

    Many complex drug candidates and patented active pharmaceutical ingredients (APIs) require heteroaromatic building blocks for their molecular frameworks. In pharmaceutical process chemistry, 2-furanboronic acid enables Suzuki-Miyaura couplings to introduce furan rings in the late-stage assembly of small-molecule drugs, especially anti-cancer compounds, kinase inhibitors, and CNS agents. Medicinal chemists rely on its controlled reactivity to achieve high selectivity with minimal byproduct formation, supporting regulatory submissions for new drugs.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for APIs
    • 21 CFR Part 211: FDA cGMP for Finished Pharmaceuticals
    • EU GMP Part II (APIs)
    • Ph. Eur., USP, JP impurity and elemental impurity guidelines for intermediates

    Typical usage ratio

    • 0.1–2.5 molar equivalents relative to halogenated aryl/alkenyl substrates, adjusted based on yield and selectivity requirements

    Downstream process integration

    • Added in coupling stage post-halogenation
    • Reacted with palladium catalysts and bases in solvent systems
    • Purified via chromatography and crystallization before API isolation
    • Residual levels monitored in regulatory filings

    Final product types

    • Branded and generic APIs with furan motifs
    • Advanced pharmaceutical intermediates
    • Clinical trial materials for oncology and CNS pipelines
    • Precursor stocks for custom medicinal chemistry campaigns

    2. Agrochemical Synthesis – Herbicide and Fungicide Intermediates

    In crop protection chemistry, furan-containing boronic acids serve as building blocks for synthesizing new-generation herbicide and fungicide molecules through direct arylation or Suzuki-Miyaura cross-coupling. Companies produce complex heteroaromatic active ingredients by incorporating the furan core into molecular scaffolds, improving bioavailability and degradation profiles for regulatory acceptance. Control over trace impurities and isomer profiles is essential for downstream field-testing and registration.

    Industry compliance standards

    • ISO 9001: Quality Management Systems for Agrochemicals
    • FAO/WHO JMPR guidelines for pesticide ingredients
    • OECD Good Laboratory Practice (GLP) for agrochemical R&D
    • Regulation (EC) No 1107/2009: EU Plant Protection Products approval

    Typical usage ratio

    • 0.5–3.0 molar equivalents per aryl/alkenyl halide intermediate, varying with molecular design and product batch size

    Downstream process integration

    • Charged during multi-step syntheses after initial halide substrate formation
    • Reactions under inert atmosphere in batch or flow reactors
    • Isolated by crystallization and solvent extraction to remove boron residues
    • Final actives formulated with adjuvants or granules for field trials

    Final product types

    • Selective herbicide and fungicide actives with furan moieties
    • Field trial samples for regulatory submission
    • Analytical reference standards for formulation QC
    • Base materials for further derivative formation

    3. Electronic Materials – Organic Semiconductor Monomer Preparation

    Organic electronics manufacturers incorporate furan-functionalized monomers into advanced semiconductors for OLEDs, OFETs (organic field-effect transistors), and photovoltaic cells. 2-Furanboronic acid undergoes palladium-catalyzed cross-coupling to give conjugated polymers and molecular semiconductors with furan linkages, supporting precise bandgap control and charge mobility in finished devices.

    Industry compliance standards

    • ISO 9001:2015 for advanced electronic materials
    • RoHS Directive for hazardous substance restriction in electronics
    • JEDEC standards for performance testing
    • IEC 60747 for semiconductor device quality

    Typical usage ratio

    • 1.0–1.1 molar equivalents relative to aryl halide co-monomers, fine-tuned for polymer molecular weight control

    Downstream process integration

    • Incorporated in controlled Suzuki coupling or Stille coupling stages
    • Solvent, temperature, and palladium ligand adjusted to prevent polymer branch defects
    • Purified for trace metal removal before thin-film casting or ink formulation
    • Material characterization using GPC, NMR, and UV-Vis for electronic grade batch release

    Final product types

    • OLED and OPV functional layer monomers
    • Conducting polymers for flexible electronics
    • OFET channel material pellets
    • Graphene-furan hybrid precursors

    4. Fine Chemical Synthesis – Specialty Fragrance Intermediates

    Industrial fine chemical processors employ furanboronic acids as intermediates for high-value aroma compounds with furan-based structural motifs. Through targeted coupling and subsequent functional group transformations, production chemists craft furan derivatives that feature in synthetic flavors, premium perfumery bases, and fragrance compositions, ensuring stability and olfactory performance. Stringent quality control is implemented due to regulatory scrutiny in fragrance end-use.

    Industry compliance standards

    • IFRA Standards for fragrance ingredient safety
    • REACH Regulation (EC) No 1907/2006 for chemical registration
    • ISO 22716: Cosmetic GMP
    • US FDA 21 CFR Part 182 (Generally Recognized as Safe, GRAS) for flavor ingredients

    Typical usage ratio

    • 0.8–2.2 molar equivalents in fragrance precursor synthesis, adjusted per olfactory target and impurity limitation

    Downstream process integration

    • Coupling performed post-protection/deprotection of sensitive groups
    • Processed in jacketed reactors with precise temperature control
    • Purification by distillation and preparative chromatography for odor profile purity
    • Trace residuals monitored per IFRA/REACH guidelines

    Final product types

    • Furanyl flavor additives
    • Aroma chemicals for perfumery
    • Base stocks for fine fragrance compounding
    • Furan-based essence enhancers in luxury scented products
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    Competitive 2-Furanboronic Acid prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Understanding 2-Furanboronic Acid from a Manufacturer’s Perspective

    The Essentials of 2-Furanboronic Acid

    Every day on the production floor, we encounter requests for high-purity 2-Furanboronic Acid. Chemists in research and pharmaceutical labs push for consistency, clarity, and no surprises in their materials. Our team responds by producing this compound to rigorous standards at our facility. We use advanced synthesis and purification techniques that bring the best out of every batch.

    2-Furanboronic Acid, with CAS number 14047-29-1 and molecular formula C4H5BO3, draws strong interest across fine chemical and medicinal chemistry fields. The molecular structure features a boronic acid group attached at the 2-position on the furan ring, providing unique reactivity patterns. This functional group opens pathways for Suzuki-Miyaura cross-coupling — a trusted route to constructing carbon–carbon bonds. No other boronic acid gives this precise combination of aromatic ring reactivity and boron moiety flexibility.

    The Steps We Take: Delivering Purity and Consistency

    On the shop floor, quality comes down to habits and discipline. Every batch travels through several QC checkpoints — HPLC assays, NMR confirmation, water content checks using Karl Fischer titration, and TLC analysis. Bourning over the glassware, inspecting the endpoint, and reading the chromatograms shape every order we deliver.

    Consistency feels personal in specialty manufacturing. Imagine a researcher counting on the same behavior from lot to lot, without setbacks or lost time. Our 2-Furanboronic Acid is routinely supplied at ≥98% purity, but our lab monitors possible trace contaminants lower than the eye can spot. Most chromatograms we run show such a clean baseline that repeat customers notice how little batch variation they meet, even on parallel runs.

    The Chemistry — What Sets 2-Furanboronic Acid Apart

    To the synthetic chemist, choices matter. Aromatic boronic acids present many faces: substitutes, ring systems, steric hindrance, electronic influences. Out of all these, 2-Furanboronic Acid sits in a sweet spot for cross-coupling partners, especially with heterocycles. Furan’s electron-rich nature brings positive reactivity in Suzuki reactions. The 2-position boronic acid often delivers yields and selectivities that other ring systems can't quite match.

    Our technical group has worked with pyridine, thiophene, and phenylboronic acid analogs. Some run into solubility barriers or decompose without warning. Furanboronic acids keep pace even at higher catalyst cycles. Where the furan ring shines is in the gentle handling of heat-sensitive or biorelevant motifs — giving medicinal chemists far more room to innovate.

    Usage Stories: Expanding Synthetic Possibilities

    A short survey of inbound requests offers a window into how customers use 2-Furanboronic Acid. One order destined for an agrochemical project outlined a plan to couple the furan ring onto a library of potential antifungal agents. The feedback after project completion told us the acid’s mild reactivity and robust carbon–carbon linkage allowed their research team to screen dozens of analogs by modular assembly.

    Another long-term partner in oncology research relies on 2-Furanboronic Acid for building furan-linked aryl scaffolds. Their comments highlight how failures with other boronic acids forced synthetic reroutes, but with the furan derivative, reactions run smoothly and yield intermediates pure enough to proceed directly to isolation and biological evaluation.

    We have also received technical feedback from academic groups exploring new glycomimetic ligands—areas where boronic acids serve as carbohydrate recognition elements. The furan variant slots naturally into these designs, offering a compact, oxygenated ring system. Less steric congestion, more predictable binding, and the ability to tweak electronics without major re-optimization. On the manufacturing side, scalable syntheses stay reliable, which keeps sample turnaround fast even as order volumes rise.

    Model Selection and Specifications—Practical Insights

    Our product line includes 2-Furanboronic Acid in multiple packaging sizes, from gram-scale vials for university labs to kilogram lots for pilot-scale pharmaceutical use. We regularly ship material with purity exceeding 98% (as determined by HPLC and NMR). Particle size falls within a narrowly controlled range, avoiding clumps or dust hazards. Each lot ships with its own Certificate of Analysis (COA), reflecting the current batch’s exact purity and water content instead of a generic average.

    Moisture sensitivity sometimes troubles boronic acids. In contact with humidity, partial hydrolysis may occur, yet our custom packaging eliminates most exposure. Every bottle comes foil-sealed in nitrogen-backfilled glass, ensuring stability upon arrival and during storage. This kind of careful packing is born not just from supplier checklists, but learned lessons from customers experiencing degraded or off-spec products from less attentive vendors.

    Meeting Customer Expectations—What Matters in this Market

    A fortune in specialty chemistry hinges on trust. Research timelines have tight budgets and even tighter deadlines. Our customers do not want last-minute substitutions or slow bottlenecks. They need to know the next shipment matches the current one. Over the years, this transparency has earned long-standing relationships built not just on our word, but on a pattern of performance that matches or exceeds industry standards.

    Open communication defines how we work with our partners. Sometimes a researcher needs a special grade, such as extra-low metal contaminants for catalysis studies. Other times, a formulation group requests a particular solvent system for easier dissolution. Each inquiry triggers a real conversation, not a standard sales answer. The production chemists involved learn project goals and offer honest feedback about what is possible, drawing from daily hands-on experience.

    2-Furanboronic Acid: Sourcing and Sustainability

    Sustainable manufacturing matters more every year. Our approach seeks not only safe chemistry, but also efficiency and minimal waste. Boron sources can sometimes involve environmentally challenging intermediates, so we have shifted toward greener synthetic steps and solvent recovery systems. With each incremental improvement, we reduce both our carbon footprint and residual chemical burden.

    By recapturing solvents and streamlining purification, we also manage costs for our customers. Waste does not equate to value for anyone in the supply chain. The push for sustainable production reinforces a core idea: what works best for the environment often also makes our business more resilient. And our customers can be confident they are not supporting short-sighted practices, but contributing to a more responsible specialty chemical industry.

    Comparing 2-Furanboronic Acid to Other Boronic Acids

    Questions come in daily about how 2-Furanboronic Acid stacks up against similar compounds. From our synthesis desks, the differences become evident in practice:

    These differences are not powers listed in data sheets, but realities proven by dozens of pilot projects and repeated inquiries. Handling these subtle points keeps our products relevant, and guides how we train our technical support staff. The market’s demand for 2-Furanboronic Acid continues to expand, pushed by both diversification of molecular targets and better reaction protocols published each year.

    Handling and Safety Considerations

    Our experience shows 2-Furanboronic Acid remains manageable in daily operations with ordinary lab precautions. The fine powder does not present unusual toxicity, though some users report mild irritation with excessive skin contact. The real concern centers on moisture pick-up and subsequent hydrolytic degradation. Unopened product in sealed bottles resists this, but users should minimize time spent weighing in open air and transfer the powder using dry tools and gloves.

    Disposal should follow standard boron-containing compound guidelines, avoiding water drains or municipal landfill. We advise all users to reference local chemical protocols and that our technical support remains available for questions about waste minimization in their application context. Safety is always partnership work, not a one-sided document.

    Challenges We’ve Addressed – From Sourcing to Delivery

    Logistics can frustrate research teams on tight timelines. Our factory has learned where the biggest shipment delays originate: customs clearance, incomplete paperwork, and poor packaging in transit. Years ago, we standardized documentation to avoid unnecessary customs holds, and developed robust packing techniques that withstand abusive shipping conditions. Whether a shipment heads to a New York university or a pharmaceutical hub in Basel, the same attention tracks each package’s progress from our warehouse to the final lab bench.

    On some occasions, off-cycle demand would cause supply shortfalls if we were not agile. We keep a buffer inventory of finished 2-Furanboronic Acid and exercise real-time production scheduling. This discipline allows us to buffer spikes and keep fill rates high. Warehouse organization, combined with digital inventory management, keeps fulfillment smooth even during surges at quarter-end.

    Looking Forward: Demand Trends and Collaborative Growth

    Growth in cross-coupling chemistry continues raising demand for specialty boronic acids. As functional materials and pharma intermediates become more complex, researchers require reliable building blocks for modular synthesis. Our technical teams watch new publications, tracking novel coupling partners and evolving ligand-catalyst systems to anticipate customer needs before new trends reach peak demand.

    We have begun supporting combinatorial chemistry research as well, shipping sample sets of 2-Furanboronic Acid with pre-characterized impurity profiles. Our R&D division works directly with synthetic chemists at major organizations, collecting feedback and even running parallel pilot reactions to help optimize conditions. This dialogue keeps our production aligned with the real, evolving needs of the lab.

    Supporting Documentation and Transparency in Supply Chain

    Every outgoing lot has a full integrity record: from raw material sourcing and batch-specific analytical data to results from external reference labs. More customers now ask for details beyond purity—such as heavy metal content, certificate of origin, and residual solvent analysis. We answer these requests not through generic answers, but tailored records, giving clear transparency from synthesis to shipment.

    This thorough documentation does not slow shipping; rather, it speeds acceptance at the customer’s site. Our record-keeping reduces the friction of incoming QC, accelerates project start times, and cuts instances of material rejection. Documentation is more than red tape—it’s a tool for both sides to move faster and with greater confidence.

    Feedback Loop—Scientific Partnership Over Transactions

    True progress comes not from order fulfillment alone, but repeated feedback building a stronger field. We invite every customer to share their synthetic results, formulation experience, or analytical observations—good or bad. This flow of information shapes our process tweaks or triggers full-scale R&D investigations, sometimes leading to new product grades or a functional improvement that matters across the broader customer base.

    The most productive changes in our process often begin with an email or phone call: a researcher walks us through their procedure, points out where another supplier’s 2-Furanboronic Acid caused issues, and asks if we can pinpoint a cause. Our analytical chemists get to work, benchmarking reactivity and impurity profiles, and then help that customer overcome a problem that would escape detection by companies focusing only on volume, not performance.

    The Manufacturer’s Responsibility

    Beyond just making and shipping 2-Furanboronic Acid, we see ourselves as part of the progress in synthetic chemistry and allied industries. We take our responsibility seriously: avoiding supply chain disruptions, training our staff to spot minor variances, and revising process documentation as knowledge advances. This approach keeps us honest, effective, and trusted by customers working on the next generation of molecules—whether for health, materials science, or agriculture.

    Every day, our team asks: does this batch move someone’s project forward? Did the last shipment perform as expected? No formality, marketing jargon, or paperwork can replace a reputation built one gram at a time.

    Final Reflections from the Floor

    There is no single solution to every synthetic challenge, just as there is no universal chemical building block. In our shop, we treat 2-Furanboronic Acid as more than inventory. The exacting care behind each batch, the collaboration with users, and the small refinements based on user feedback distinguish our product from a simple commodity. These habits come from years in chemical manufacturing—mistakes learned from and tweaks hard-won through attention to detail.

    For researchers, development chemists, and process scientists, reliability counts more than promises. We expect continued advancement in the field, with furanboronic acids at the center of many breakthroughs, simply because we keep making sure the basics—purity, reactivity, transparency—always meet or exceed expectations.