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Β-Pinene

    • Product Name Β-Pinene
    • Alias 2,6,6-Trimethylbicyclo[3.1.1]hept-2-ene
    • Einecs 204-872-5
    • 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
    VTB
    Specifications

    HS Code

    578201

    Name β-Pinene
    Cas Number 127-91-3
    Molecular Formula C10H16
    Molar Mass 136.24 g/mol
    Appearance Colorless liquid
    Odor Pine-like, woody
    Boiling Point 166-168 °C
    Melting Point -62 °C
    Density 0.871 g/cm³ at 20 °C
    Flash Point 35 °C (closed cup)
    Solubility In Water Insoluble
    Refractive Index 1.485–1.487 at 20 °C
    Vapor Pressure 2.6 mmHg at 25 °C
    Autoignition Temperature 255 °C
    Ec Number 204-872-5

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

    Packing & Storage
    Packing Β-Pinene is packaged in a 500 mL amber glass bottle with a secure cap, clearly labeled with hazard and usage information.
    Shipping Β-Pinene should be shipped in tightly sealed, chemical-resistant containers, protected from light, heat, and sources of ignition. It must be labeled as a flammable liquid and handled according to relevant regulations. During transit, ensure proper ventilation and avoid contact with oxidizers or acids. Store upright to prevent leaks or spills.
    Storage Β-Pinene should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from heat, open flames, and sources of ignition. Keep it separate from strong oxidizing agents, acids, and bases. Protect from direct sunlight and static discharge. Ensure storage areas are equipped with appropriate fire suppression systems due to its flammable nature.
    Application of Β-Pinene

    Applications of β-Pinene in Industrial Manufacturing

    As a direct chemical manufacturer, we supply β-Pinene to a range of industrial sectors that rely on its unique monoterpene profile for synthesis and formulation. Below, we outline several key application scenarios, structured with detailed compliance, dosage, process, and product information based on real industry practices.

    1. Fragrance Ingredient for Fine and Industrial Perfumery

    Leading fragrance houses incorporate β-Pinene as a primary top-note modifier and as a source for further chemical transformation into aroma intermediates. We support perfume concentrates produced under tightly controlled batch processes, ensuring ingredient traceability and specification matching per IFRA guidelines. Technical adjustments allow integration of β-Pinene as a blending component as well as a precursor for terpenic notes after further reaction steps.

    Industry compliance standards

    • IFRA Standards, latest amendments (International Fragrance Association)
    • EU Cosmetics Regulation (EC) No. 1223/2009
    • REACH Registration (EU 1907/2006)
    • U.S. FDA 21 CFR 700 for cosmetic fragrance components

    Typical usage ratio

    • 0.1% – 3.0% by mass in fragrance oils; high-impact blends may reach 5% when used as synthetic intermediate for terpinolene or myrcene derivatives.

    Downstream process integration

    • Added during pre-mix or initial blending with essential oils and synthetic aroma compounds
    • Chemical transformation via acid-catalyzed isomerization or hydration followed by distillation in aroma chemical production

    Final product types

    • Eau de toilette and eau de parfum concentrates
    • Air care fragrance oils and home scent diffusers
    • Personal care fragrances (body sprays, deodorants)
    • Aroma intermediates for further synthesis

    2. Synthesis of Synthetic Camphor for Pharmaceutical Use

    β-Pinene has become an essential feedstock for high-purity synthetic camphor, which underpins several topical and oral medicinal applications. We deliver consistent grades to pharma API facilities, where it enters controlled oxidation and rearrangement steps under GMP systems. QC assesses residuals and stereochemical content to fulfill pharmaceutical monographs.

    Industry compliance standards

    • USP-NF Monograph for Camphor
    • Ph. Eur. Monograph for Synthetic Camphor
    • ICH Q7 Good Manufacturing Practice for APIs
    • WHO GMP for active pharmaceutical ingredient processing

    Typical usage ratio

    • Feedstock conversion: 1.0–1.1 mol β-Pinene per mol camphor produced, accounting for process yield variances

    Downstream process integration

    • Introduced as initial reactant in chemical reactors under controlled oxidation with catalysts
    • Processed through camphene rearrangement and subsequent oxidation stages
    • Crystallization and distillation performed to isolate high-purity camphor from side fractions

    Final product types

    • Pharmaceutical-grade camphor crystals
    • Ointment bases for analgesic balms
    • Inhalant formulations and camphorated oils
    • Patches and liniments for topical applications

    3. Flavoring Intermediate in Food Processing

    Food ingredient plants utilize β-Pinene as a building block for flavoring agents deployed in confectionery, beverages, and processed foods. Controlled synthesis of myrcene and linalool, starting from β-Pinene, ensures traceability and compliance with safety standards. All processing adheres to food additive purity and labeling, with attention to allergen and contamination controls.

    Industry compliance standards

    • FCC (Food Chemicals Codex) standards for food-grade terpenes
    • US FDA 21 CFR 172.515 (GRAS flavoring substances listing)
    • EU Regulation (EC) No. 1334/2008 on flavorings
    • ISO 22000 Food Safety Management Systems

    Typical usage ratio

    • 0.005% – 0.1% of final product weight for direct flavor use; as precursor, conversion efficiency impacts usage, generally 0.8–1.2 equivalents per downstream target compound

    Downstream process integration

    • Hydrodistillation or catalytic conversion into target flavor molecules
    • Blending into liquid or encapsulated flavors in food-grade mixing tanks
    • In-process monitoring of terpene purity and off-note byproducts

    Final product types

    • Fruit and citrus flavor concentrates for soft drinks
    • Bakery flavoring syrups and pastes
    • Masticating chewing gum base flavors
    • Encapsulated flavor beads for confectionery

    4. Resin Modifier in Alkyd and Polyterpene Coatings

    Coatings manufacturers integrate β-Pinene as a natural resin modifier to adjust hardness, gloss, and tack in solvent-based and waterborne systems. Direct in-tank addition or in-situ polymerization steps yield terpene resins with tailored molecular weight. We supply technical grades that meet paint and coatings purity benchmarks while supporting batch-to-batch consistency.

    Industry compliance standards

    • ASTM D5630 for ash content in paint components
    • ISO 9001:2015 Quality Management for chemical production
    • RoHS 2011/65/EU for heavy metals in coatings
    • EN 71-3 Safety of Toys – migration of certain elements (for coatings in toy applications)

    Typical usage ratio

    • 2% – 15% by resin solids for alkyd and polyterpene matrix modification; dosage fine-tuned for balance of elasticity and adhesion

    Downstream process integration

    • Direct addition to alkyd resin cookers as softening and cutting agent
    • Participates in polymerization reactions with unsaturated binders
    • Post-synthesis incorporation during milling of pigment pastes or varnishes

    Final product types

    • Industrial binders for metal and wood coatings
    • Printing ink vehicles used on flexible packaging
    • Tackifier resins in pressure-sensitive adhesives
    • Floor varnishes and fast-dry lacquers

    5. Intermediate for Agrochemical Synthesis

    Agrochemical plants use β-Pinene as a starting material in synthesizing active agents and adjuvant compounds for pesticides and insect repellents. The terpene backbone supports chemical modification into bioactive molecules with required purity for field-grade formulations. Batch records and trace chemicals undergo strict scrutiny for compliance and environmental safety.

    Industry compliance standards

    • FAO/WHO specifications for technical materials (JMPS guidelines)
    • EU Plant Protection Products Regulation (EC) No. 1107/2009
    • ISO 17025 laboratory testing for agrochemical purity
    • China National Standard GB 20660 for pesticide products

    Typical usage ratio

    • Stoichiometric dosing: 1.0–1.5 molar equivalents in synthesis of cyclodiene-type compounds, adjusted for conversion yield

    Downstream process integration

    • Reacted in multipurpose synthesis reactors with phased additions and catalytic oxidation
    • Precursor charging at the start of heterocyclic transformation and cyclization steps
    • Distillation of intermediates prior to formulation blending

    Final product types

    • Insect repellent active agents (e.g., terpene-derived biocides)
    • Herbicide solvent carriers
    • Pesticide adjuvant additives for improved leaf coverage
    • Fungicide precursor intermediates

    6. Monomer for Synthetic Rubber and Elastomer Production

    In the elastomer sector, β-Pinene serves as a renewable monomer for polymerizing terpene resins and rubber modifiers. We supply high-purity fractions compatible with emulsion and solution polymerization protocols. Quality assurance confirms low sulfur and minimal non-volatile content to meet finished elastomer requirements.

    Industry compliance standards

    • ASTM D5652 for terpene polymer purity
    • ISO 9001:2015-compliant batch traceability
    • China GB/T 30776 for rubber modifier performance
    • REACH (EU) regulatory status for monomers in rubber manufacture

    Typical usage ratio

    • 10% – 40% by polymer solids in terpene-phenolic elastomer blends; ratio set by elastomer hardness and glass transition target

    Downstream process integration

    • Charged at initiation stage of bulk or emulsion polymerization reactors
    • Copolymerized with styrene, phenols, or butadiene monomers
    • Blending in pre-curing stage for compound modification

    Final product types

    • Synthetic rubbers for shoe soles and sporting goods
    • Hot-melt adhesive base resins
    • Sealant elastomeric compounds
    • Packaging film tackifiers
    Free Quote

    Competitive Β-Pinene 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

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    Certification & Compliance
    More Introduction

    Introducing Our Own Β-Pinene: Expertise Built from Experience

    As a direct manufacturer of β-Pinene, drawing on decades of experience in extracting and refining this terpene, we have learned more about this material than any trading house or generic reseller ever could. In the production halls and distillation towers, the smallest tweaks in temperature and raw material can mean the difference between premium quality and unwanted byproducts. For us, β-Pinene is not just a chemical code on a barrel. It’s a material handled daily, with stories written in every batch.

    The Heart of β-Pinene: Where It Comes From and What Sets It Apart

    β-Pinene is a monoterpene, usually extracted from pine trees and a range of other conifers. Its sharp, woody-green scent can be picked up in the deep woods but also wafts from every drum leaving our facility. β-Pinene’s clear liquid carries a purity that results not just from natural origin, but from hard-won hands-on work in separation, filtration, and polishing. While the standard specification of β-Pinene nominally falls above 95% purity (by GC, as per most industrial requirements), actual clarity and odor quality often end up decided by factors far less visible in a data sheet—equipment cleanliness, operator experience, and fresh, resin-rich feedstock. Over the years, we have refined our process so even challenging feedstock yields a product without the resinous “off” odors that less controlled runs can produce.

    Our β-Pinene stands out because our team recognizes the sensitivity of aroma compounds to iron, copper, and other trace contaminants. Once these get into the batch they stubbornly resist removal and compromise stability. Through in-house designed stainless column runs and specially chosen inert materials, we cut that risk down. We run regular sensory isolations and accelerated storage trials; not because any standard makes us, but because failure shows up quickly in this business and reputation walks on the same legs as results.

    Applications and How We Approach Them

    β-Pinene plays a key role in manufacturing synthetic fragrances and flavors, as a versatile building block for other important aroma compounds, notably linalool, citronellol, and pinene oxide. In our plant, we have watched customers from very different fields pick up β-Pinene for uses ranging from cleaning agents and adhesives to flavor creation and pharmaceuticals. The same clear liquid that adds notes to air-fresheners may support the starting steps in a pharmaceutical intermediate.

    A batch destined for flavor compounding must meet expectations for taste, absence of “woody” notes, and residual substances well below strict thresholds. For fragrance applications, β-Pinene’s power lies in blending well with citrus and coniferous ingredients, lifting piney accords above dull limonene-dominated batches. We learned the hard way how even a faint trace of oxidation can disrupt delicate perfume balances, so our nitrogen-blanketed storage and quick-filling methods grew around these real-world trials. No flavor house or boutique distiller wants to discover spoilage or an unexpected note after blending; we built our traceability and QC methods with those demands in mind.

    Demand for bio-based solvents has grown, and β-Pinene’s performance surprised even the skeptics in cleaning and degreasing roles. The sharp, non-residual aroma, fast evaporation, and low aquatic toxicity, compared to some petrochemical alternatives, have made it a favorite among green chemistry advocates. Our customers in this emerging sector ask tough questions about long-term supply, seasonal variation in raw feedstock, and regulatory registration. Direct answers come only with hands-on sourcing and active communication with forestry suppliers. Living day-to-day with seasonal swings in oleoresin composition, we understand the practical limits and possibilities of this so-called “renewable” resource. Operating in regions where forest stewardship practices are under third-party monitoring, we can talk about both sustainable supply and the headaches that accompany real-world procurement.

    Why β-Pinene Is Different from α-Pinene and Other Terpenes

    Day in, day out, inquiries come in asking us to compare β-Pinene with α-Pinene, or even with other terpene isolates. The answer runs deeper than textbook differences. Yes, β-Pinene and α-Pinene are both monoterpenes and share the same molecular formula, C10H16. Yes, their boiling points and basic physical characteristics overlap. But in the still room, the split shows up quickly. α-Pinene delivers a bright, turpentine-like pine character, clear and almost biting. β-Pinene brings a woodier, greener aroma—less aggressive, subtler, and more versatile in blends. In flavor, β-Pinene avoids the harshness of α-Pinene, playing more as a “supporting note” rather than a top note. Chemically, β-Pinene opens the door to a wider set of value-added transformations. We run reactions that selectively convert it to myrcene, pinocarveol, or even further to compounds used in vitamin synthesis.

    Beyond pinene, the comparison to other terpenes—limonene, 3-carene, camphene—often begins with odor and volatility. Limonene, for example, has a more citrus, sweet lemon-lime touch, and lacks the “green” character of β-Pinene. Customers seeking replacement for petrochemical solvents, or drop-in bases for green formulations, find β-Pinene less aggressive than traditional turpenes—and also less prone to polymerization or residue after use. We worked out over multiple pilot-scale trials that β-Pinene’s lower propensity for forming heavy peroxides under normal conditions means less risk in long-term storage or shipping, especially when drum turnover slows at customer warehouses.

    In the Plant: What a β-Pinene Batch Means to Us

    Standing on the production floor, the aroma tells its own tale. Early in the distillation process, heavier terpenoid fractions strip away, leaving a heart-cut that must run clean and sharp. Operators listen to pumps and watch thermal probes closely, as a few degrees’ error can drag in unwanted isomers or heavier byproducts. We have seen over the years how every batch, with its small variations in “cut” point, shapes both the final product and its suitability for a specific application. Our long partnerships with customers came from honest reporting—if a certain distillation run might carry a hint of "off-note," transparency wins us trust. No spreadsheet can cover every possible variation, but experience does.

    We moved from old glass-lined setups to advanced fractionating columns not because a consultant recommended it, but because our original methods—while serviceable—could not meet the decreasing impurity thresholds set by the evolving flavors industry. We keep every run sampled and archived, and customer complaints—even rare—mean investigators can trace back not just to a batch, but to the day, operator, and feedstock origin. Each step improved not by theory alone, but by a willingness to look at what really worked, and what failed to deliver clean β-Pinene, time after time.

    Safety, Handling, and the Real Hazards (and Myths)

    Decades in this industry teach safety lessons the hard way. β-Pinene, despite its natural origin, behaves as an irritant—prompt hand, eye, and respiratory protection are needed on the line. Larger leaks or spills, especially in areas with poor ventilation, can create a flammable atmosphere quickly. We learned long ago that airy “it’s just a plant extract” talk doesn’t keep anyone safe. Drumming up, unloading, or pumping β-Pinene means constant vigilance—static control, fire safety plans, and proper PPE. That extra layer of vapor-tight valves and nitrogen-blanketing took years to get right. Improper storage allows peroxides to develop; shipments without antioxidant stoppers in hot weather showed us what happens otherwise.

    Some myths continue in the wider marketplace, especially the idea that β-Pinene is “safe because it’s natural”. As manufacturers, we’ve seen that people exposed repeatedly can develop sensitization and allergic contact dermatitis. Our plant medical protocols call for regular checks and quick response for any sign of skin sensitization. Regular training, signage, and hazard reviews, not checklist compliance, have kept our team healthy in the daily reality of β-Pinene handling. Keeping open communication with customers about the real-world risks, rather than glossing over with greenwashing, became one of our key commitments.

    Quality Assurance: More than Test Results

    Quality assurance, for us, means more than a library of COAs and technical brochures. On the ground, every load undergoes not just chromatography, but also human sensory testing—with trained panels reviewing off-odors and confirming clarity. β-Pinene, being volatile and easily oxidized, can develop unexpected notes if exposed to metal contaminants, oxygen, or high temperatures. We keep tight control from extraction to storage; years when we relied only on lab analysis, some subtle “off” notes slipped through, teaching us to pair science with real-world sensory checks.

    Every batch ships with a full breakdown of lot-specific findings on aroma, appearance, and GC profile. When a flavorist calls asking about a certain background note, we answer with confidence because our tracking covers each processing variable. If a niche application, such as chiral syntheses, needs further detail on trace isomer ratios, we develop that data in collaboration, not in ignorance. Our experience with large-scale international clients, especially those with third-party audits, keeps our standards above “minimum” and pushes us to improve with every year.

    Some customers value reduced d-limonene traces; others demand a threshold on oxidized products below what standard listings permit. Listening to evolving needs, as health and safety or environmental regulation shifts, means constant updates to internal specs, not just relying on yesterday’s paperwork.

    Supply Chain: Lessons from the Trenches

    Running a β-Pinene production line means working through the ups and downs of global supply. Raw oleoresin comes from forests, not factories, and that brings both unpredictability and opportunity. Some years, storm damage or harvesting restrictions tighten supply and push up cost; others bring surplus. Sitting down with forest managers, sometimes facing community or environmental group questions, adds extra layers to managing costs and expectations.

    We operate with a forward-thinking inventory approach. Supplier contracts with transparent yield and traceability clauses keep our feedstock pipeline steady, while close partnerships with logistics firms minimize transport degradation risks. Any value chain is only as strong as its weakest link. If a drum waits too long at a humid port, or customs clearance drags on, peroxide risk and compositional changes threaten the batch. Having lived through more than one “shipment gone wrong,” we learned proactive shipping and robust packaging protocols pay for themselves in customer satisfaction.

    Communicating shipment updates, exposure risks, and anticipated delays openly—rather than making excuses—brings us closer to our customers’ reality. Investment in training upstream harvesters reduces contamination at the start, lowering future rejection rates and waste. For us, treating partners upstream as long-term colleagues rather than “vendors” creates a spirit of mutual support. This stability shows in the reliability and consistency of our β-Pinene shipments year after year.

    Innovation and the Push for Better β-Pinene

    Customer demands do not stand still. Today, next-generation formulators are exploring β-Pinene as a “platform molecule” for new green chemistry transformations. Researchers are developing new oxidation catalysts, greener esters, and more efficient downstream derivatives. Direct involvement with these innovators, and regular plant tours for technical teams, spark ideas for both improved yields and cleaner, low-impact processing.

    In the flavor field, even subtle improvements in purity can shield end-users from costly recalls or flavor profile drift. For adhesive and synthetic resin makers, the push for maximum purity isn’t always about aroma—often it's about processability and downstream performance. Real-world use cases, reported from customers’ own lines—such as shelf-life data, polymerization behavior, or residue testing—reveal the difference between textbook claims and daily realities.

    Our ongoing R&D partnerships—especially with universities and independent labs—help us test new processing aids, optimize energy usage, and monitor forward-looking regulatory changes. Reducing energy and water footprints, while meeting strict purity requirements, demands more than off-the-shelf solutions. We run side-stream recovery for byproducts, pilot cogeneration energy, and audit our total waste output annually. Our willingness to invest in these improvements stems from customer requests, not abstract targets.

    Environmental Responsibility

    Manufacturing β-Pinene places us at the intersection of chemical industry and forest ecosystems. Our participation in forest stewardship and sustainable resin extraction means careful oversight of sourcing practices. Oversight is not just about certificates; it’s about walking the land with harvesters, investing in enrichment plantings, and supporting local community infrastructure.

    Waste management is a daily reality. Leftover hydrocarbons and terpene residues, when not handled correctly, create waste streams that can challenge both the environment and local regulators. We focus on solvent recovery and secondary product streams—turning a common “waste burden” into additional revenue and avoiding landfill or illicit disposal.

    We don’t claim zero environmental impact—nobody running an industrial plant honestly can. But daily focus on improvements, transparency with outside auditors, and partnerships with ecosystem researchers help us push in the right direction. Long-term relations with communities near our operations mean quick response if issues arise.

    Market Trends, Challenges, and What the Future Holds

    Markets remain unpredictable. Demand spikes for natural flavors, cleaning products, or pharmaceutical precursors can shift overnight. New regulatory pressure in target markets, especially Europe and North America, sometimes means additional documentation, traceability, or process changes. Years of fluctuating pine resin production, swings in transportation costs, and emerging synthetic alternatives mean flexibility matters most in meeting customer needs.

    We track research into synthetic bio-pinene production, from fermentation or engineered microbes. Such processes offer promise for enhanced control, but have not yet matched the economic scale or sensory quality of natural extraction, especially for high-demand fragrance and flavor applications. We stay in contact with innovators in these fields, ready to invest when bench claims become commercial reality. Flexibility, rather than blind optimism or pessimism, keeps us ahead in this evolving sector.

    Continuous investment in both staff—through training and skill development—and plant modernization supports resilience. Employment of local technicians, experienced operators, and chemists in our regions supports both quality and local economic development. Resilience grows from the workforce knowing the material, batch by batch, better than any outside observer.

    Direct Manufacturer Relationships: What They Mean to Our Customers

    Customers working directly with us benefit from immediacy of information and adaptability. Supply questions, quality doubts, or new project requirements go straight to the team handling the next batch of β-Pinene, not a distant helpdesk. Our plant teams can make batch adjustments or investigate quality issues right at source. In many markets, buyers deal only with intermediaries—separated from the actual producer by layers of brokers and repackagers. We believe in building direct technical relationships so that feedback moves both directions.

    This transparency and adaptability, born out of daily practice and a willingness to face challenges head-on, builds the kind of trust you cannot buy with certificates or standard statements. Customers stay with us for ten, twenty, or thirty years not out of inertia, but because they see the value in straight, experience-based answers—and the willingness to act on them.

    Contact and Approach

    For those seeking not just a commodity terpene but a partner who understands β-Pinene from extraction to application, we welcome detailed project inquiries and technical discussions. We are open about what our β-Pinene can—and cannot—do, and invite challenges both for standard aroma and demanding specialty requirements. Thanks to our commitment to expertise, safety, and collaboration, our customers benefit from more actionable information and better results, year after year.