Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
Follow us:

Tetrahydrocyclopentadiene

    • Product Name Tetrahydrocyclopentadiene
    • Alias THCP
    • Einecs 258-943-3
    • 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

    167359

    Chemicalname Tetrahydrocyclopentadiene
    Casnumber 4478-78-8
    Molecularformula C5H8
    Molarmass 68.12 g/mol
    Appearance Colorless liquid
    Boilingpoint 104-106°C
    Meltingpoint -85°C
    Density 0.79 g/cm³
    Solubilityinwater Insoluble
    Vaporpressure 32 mmHg (20°C)
    Flashpoint 0°C
    Refractiveindex 1.443
    Odor Strong, aromatic
    Stability Stable under recommended storage conditions
    Storagetemperature Store at room temperature

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

    Packing & Storage
    Packing Tetrahydrocyclopentadiene is packaged in a 500 mL amber glass bottle, tightly sealed with a screw cap and chemical-resistant labeling.
    Shipping Tetrahydrocyclopentadiene should be shipped in tightly sealed containers, protected from heat and sources of ignition due to its flammable nature. Transport under ambient temperature with appropriate labeling as a flammable liquid. Follow all local, national, and international regulations, including UN shipping requirements (UN1993, Class 3), and provide proper safety documentation.
    Storage Tetrahydrocyclopentadiene should be stored in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Store in tightly sealed containers made of compatible materials, such as stainless steel or glass. Keep away from oxidizing agents, strong acids, and bases. Proper labeling and secondary containment are recommended to prevent leaks and accidental exposure.
    Application of Tetrahydrocyclopentadiene

    Applications of Tetrahydrocyclopentadiene in Industrial Manufacturing

    Tetrahydrocyclopentadiene plays a key role as a reactive intermediate in several chemical manufacturing processes. As the original producer, we closely monitor the technical conditions, regulatory frameworks, and application feedback of our direct users. The following sections detail primary industrial application fields in which this material is consumed as a fundamental building block, referencing actual industry standards, process practices, and end uses.

    1. Cycloaliphatic Epoxy Resin Curing Agents

    Manufacturers of cycloaliphatic epoxy resins use this intermediate as a main feedstock in synthesizing specialty anhydride curing agents. Its unique ring structure allows precise engineering of the resulting anhydrides with tailored reactivity and thermal stability. Process engineers dose it in closed systems to minimize VOCs, and maintain batch records for traceability during high-temperature condensation steps. This application addresses composite systems for automotive, electrical encapsulation, and other high-performance molded goods.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006
    • IEC 60695-11-10 (flammability testing for electrical encapsulants)
    • UL 94 (plastics flammability testing)
    • ISO 9001:2015 (quality management systems for resin production)

    Typical usage ratio

    • 40%–65% by weight of final anhydride component, adjusted based on targeted viscosity and crosslink density.

    Downstream process integration

    • Charged directly into anhydride synthesis reactors to generate specific curing agents post-hydrogenation or Diels–Alder functionalization.

    Final product types

    • Epoxy composite resins for automotive structural parts
    • Encapsulation resins for electrical devices
    • Adhesives for engineered wood and construction panels
    • Coil coatings for industrial equipment

    2. Agrochemical Intermediate Synthesis

    Producers of advanced crop protection chemicals employ this molecule in multi-step synthesis routes to generate norbornene-derived pesticide scaffolds. Chemists control dosing to optimize yields and minimize byproduct formation throughout catalytic hydrogenation and cycloaddition reactions. Robust traceability and analytical monitoring ensure batch conformity to internal process specifications and international agrochemical standards.

    Industry compliance standards

    • FAO/WHO Joint Meeting on Pesticide Specifications (JMPS)
    • ISO 17025 (analytical laboratory management in agrochemical synthesis)
    • China GB 2763: National Food Safety Standard - Maximum Residue Limits for Pesticides
    • OECD Good Laboratory Practice (GLP) guidelines

    Typical usage ratio

    • 25%–45% by mole as a precursor in key cycloaddition steps; ratio varies with targeted isomer yield and downstream functional group appendage.

    Downstream process integration

    • Introduced in batch or continuous reactors in the presence of transition metal catalysts. Reaction output directly feeds into purification for active ingredient isolation.

    Final product types

    • Pyrethroid insecticide actives
    • Herbicide intermediates for cereals and rice fields
    • Fungicide core compound libraries for global registration
    • Acaricide actives for orchard protection

    3. Adhesive Additive Formulation for Pressure-Sensitive Tapes

    The pressure-sensitive adhesive sector incorporates this raw material to adjust tack, peel strength, and aging properties of solvent-based and hot-melt formulations. Formulators blend it in precisely metered amounts, guided by rheometric testing, to tune block copolymer-based base resins. Strict QA protocols ensure that final adhesives conform to migration and low-VOC specifications required for use in consumer goods, automotive trim, and specialty label markets.

    Industry compliance standards

    • US FDA 21 CFR 175.105 (adhesives in contact with food packaging)
    • EN 16524:2013 (technical adhesive requirements for pressure-sensitive tape)
    • RoHS Directive 2011/65/EU (restriction of hazardous substances)
    • ISO 9001:2015 for adhesive manufacturing and QC procedures

    Typical usage ratio

    • 8%–18% by weight of dry resin mass; ratio may be fine-tuned to achieve required bonding time and peel resistance based on tape substrate.

    Downstream process integration

    • Added during melt blending or solvent phase; monitored to avoid phase separation and ensure consistent dispersion within the elastomer matrix.

    Final product types

    • Industrial masking tapes
    • Medical-grade surgical tapes
    • Self-adhesive filmic labels
    • Automotive wire harness wraps

    4. Synthetic Lubricant Base Stock Manufacture

    Producers of polycycloaliphatic synthetic lubricants utilize this specialty intermediate via hydrogenation and subsequent oligomerization steps to increase thermal stability, oxidative resistance, and viscosity index of finished base oils. Formulation chemists control the inclusion rate based on viscosity grade targets, with in-process monitoring for residual unsaturation ensuring compliance with OEM and environmental regulations for high-performance automotive, industrial, and compressor system lubricants.

    Industry compliance standards

    • API Group IV and V standards for synthetic base stocks
    • ACEA E9/E7 lubricant test protocols for heavy-duty engine oils
    • SAE J300 (engine oil viscosity classification)
    • ISO 14001 for production environmental management

    Typical usage ratio

    • 12%–28% by total synthetic base oil mass, adjusted by molecular weight and saturate target for blended grades (e.g., 5W40, 0W30 formulations).

    Downstream process integration

    • Processed in hydrogenation reactors prior to fractionation. Final blend adjusted and finished in dedicated lubricants blending facilities.

    Final product types

    • Passenger car synthetic engine oils
    • Industrial gearbox lubricants
    • Rotary compressor fluids
    • High-temperature chain oils

    5. Hydrocarbon Resin Feedstock for Paints and Coatings

    This compound functions as a major monomeric building block in the production of hydrogenated cyclopentadiene-based hydrocarbon resins. Resin plant operators control unit feed rates to optimize polymer softening point and color profile for paints and specialty coatings. Analytical testing confirms batch-to-batch consistency and ensures compliance with migration and odor requirements for finished decorative and industrial coatings.

    Industry compliance standards

    • US EPA 40 CFR Part 59 (regulation of VOC content in paints and coatings)
    • EN 71-3 (migration of certain elements in tableware and toys coatings)
    • ISO 9001:2015 (resin batch management and traceability)
    • China GB 24410-2020 (limit of harmful substances in coatings)

    Typical usage ratio

    • 35%–60% of monomer input per batch, varied based on resin softening point and color targets.

    Downstream process integration

    • Added continuously or as part of staged batch charges to polymerization reactors during resin synthesis; controls resin compatibility and final quality.

    Final product types

    • Industrial anti-corrosion primers
    • Decorative emulsion paints
    • Can and drum coatings
    • Traffic marking paints

    6. Fine Chemical Synthesis (Fragrance Intermediates)

    Specialty fragrance chemical makers rely on this precursor for the targeted synthesis of certain cycloalkene-aldehyde intermediates. Strict cGMP and batch control ensure purity, especially where intermediates will further react to generate compounds for personal care, air care, and high-end perfumery. High performance liquid chromatography and comprehensive documentation accompany each step to guarantee regulatory acceptance and downstream utility.

    Industry compliance standards

    • IFRA Code of Practice (International Fragrance Association quality)
    • EU Regulation (EC) No 1223/2009 (cosmetic products compliance)
    • ISO 22716:2007 (cosmetics GMP)
    • FDA 21 CFR 700 Subpart A (US cosmetic labeling and safety reporting)

    Typical usage ratio

    • 15%–30% by mole as intermediate, calculated relative to final aldehyde output and isomer selectivity during controlled oxidation or condensation.

    Downstream process integration

    • Fed into oxidation or condensation reactors under inert atmospheres; intermediates further purified and processed to yield target aromatic compounds.

    Final product types

    • Cycloaliphatic aldehyde fragrance bases
    • Detergent and fabric care aroma additives
    • Room and automotive air freshener formulations
    • Cosmetic perfume blends
    Free Quote

    Competitive Tetrahydrocyclopentadiene 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

    Get Free Quote of Sinochem Nanjing Corporation

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    Tetrahydrocyclopentadiene: Production Insights and Practical Uses

    Introduction

    Producing Tetrahydrocyclopentadiene engages a blend of process control, hands-on expertise, and market awareness. In our reactors, this compound takes form through hydrogenation of dicyclopentadiene. The result is a clear, colorless liquid with well-defined purity and performance attributes—key to fulfilling industrial expectations. Our standard model targets a purity above 97%, with a boiling point near 170°C and low residual aromatics. Consistency runs deeper than just numbers on a certificate; it comes from years of optimizing reaction parameters, filtration, and distillation. We don’t push this product as a one-size-fits-all solution. Our experience producing and shipping this chemical has taught us how changes in feedstock, pressure, temperature, and post-processing impact downstream applications for our customers.

    The Chemical’s Character: Structure Meets Performance

    Tetrahydrocyclopentadiene stands out for its chemical backbone: a fully saturated five-membered ring. This framework delivers a combination of thermally stable and less reactive characteristics compared with its unsaturated cousins like cyclopentadiene or dicyclopentadiene. These distinctions matter most to adhesive, resin, and specialty chemical developers looking for intermediates with predictable behavior during formulation or polymerization. The material’s low odor profile, high boiling point, and clean volatility curve have real value for process engineers seeking lower emissions and easier handling. Each batch reflects not only the chemical’s innate structure but also the discipline behind our separation and purification steps.

    Production at Scale: Choices That Shape Outcomes

    Mass production of Tetrahydrocyclopentadiene involves more than feeding raw materials through a hydrogenation plant. Our production team tracks every stage, from catalyst maintenance to hydrogen supply, knowing that trace impurity levels can throw off a customer’s formulation or cause color drift in finished materials. We face real world variability in dicyclopentadiene supply—seasonal, regional, and sometimes weather-related. Our processes adapt. Sometimes we run small test batches with alternate feeds to make sure essential chemical fingerprints stay within our self-imposed tolerance limits. Process water, temperature gradients, run rates—all of these take on outsized importance when you produce this specialty product by the ton. Each adjustment ends up making someone’s job easier downstream—be it in the blending room or during final QC at the customer’s plant.

    Applications Driven by Manufacturing Reality

    Most requests for Tetrahydrocyclopentadiene come from industries shaping resins and adhesives, especially where regulatory or olfactory constraints drive the shift toward saturated ring intermediates. Here, the product serves as a precursor for hydrocarbon resins that appear in pressure-sensitive packaging, hot melt adhesives, or specialty coatings. End-users rely on its low odor and thermal stability to meet customer preferences—both aesthetic and legislative. Synthetics manufacturers sometimes use it to dial in hardness, tack, or flexibility profiles without flirting with side reactions common in unsaturated monomers. Our production line installs this product right at the intersection of chemistry and performance, making it easier for research labs or plant operators to reach their formulation targets.

    Difference from Related Materials

    Tetrahydrocyclopentadiene often gets mentioned alongside dicyclopentadiene or fully aromatic fractions such as cyclopentadiene. Years of working with these products make differences stand out beyond the molecular graphs found in textbooks. The hydrogenated form (tetrahydro-) delivers far less reactivity under normal storage or shipping conditions, sidestepping the auto-polymerization risks every tank farm operator dreads. We see sharper color retention in storage and much lower residue formation, which always ranks high among customers worried about downtime for line cleaning or filtration. Unlike unsaturated versions that sometimes need stabilizers or closely managed storage, our product enters most logistics streams with fewer special requirements.

    Every time a new customer asks about differences, we point to application data and real-world case studies. In resin production, Tetrahydrocyclopentadiene enables smoother polymerization runs, while lower double bond content means less chance of cross-linking in the wrong places. This not only conserves catalyst efficiency but also helps end-user products maintain the attributes expected by global brand customers. In comparison, dicyclopentadiene’s reactivity keeps it favored for curing and crosslinked applications—provided the plant accepts higher volatility and odor. We’ve seen Tetrahydrocyclopentadiene open new doors for manufacturers chasing compliance with emerging emission rules or launching products where scent sensitivity drives purchase decisions.

    Trust Built on Evidence, Not Claims

    No customer wants theory; they want proof. Over the years, countless pilot trials and full-scale runs have shaped the specifications we promote. Each batch that goes through our facility brings data—chromatographic profiles, stability benchmarks, particle counts. When a customer’s team needs details, our technical support steps up with complete process records, living up to the expectations of partners who must answer to QA managers or regulatory bodies. This cycle—produce, test, validate—has fostered a culture where engineers, operators, and QC chemists all see their role reflected in satisfied repeat orders.

    Adhering to practical standards rather than the minimum regulatory tick box stands central in our approach. Product recalls, customer line stoppages, or adverse downstream events always weigh on our leadership and floor crews alike. We’ve invested in inline analytics and rapid responsiveness—even if it means late-night troubleshooting or last-minute process tweaks. Real transparency means sharing both clean wins and rare off-spec batches, giving purchasing agents and production managers honest appraisals of process risk. This level of diligence is not learned from safety manuals or by watching the market—it’s earned, batch by batch, through every tank, drum, and sample shipped.

    Handling and Integration: Field Notes from Manufacturing

    Physical handling and integration challenges shape how plant engineers or formulators think about Tetrahydrocyclopentadiene. The material flows easily at ambient temperatures and resists gumming or polymer buildup, even during extended transfer lines or holding periods. This tracks back to milligram-level impurities removed during distillation. Drum handlers and bulk managers value this absence of off-odors and residue, making tank changeover less of a headache. While unsaturated analogs bring special storage requirements or catalyst inhibitors—often adding cost and risk—our material typically avoids those extras. Less downtime, less troubleshooting, fewer filter changes. It’s the difference between treating a raw material as a wild card or as a predictable supply chain partner.

    In formulation labs working with adhesives, performance tweaks come down to feedstock purity, physical blending characteristics, and chemical compatibility with base polymers. Our Tetrahydrocyclopentadiene presents a lighter footprint in terms of VOC contribution and odor signature. This aids regulatory filings—particularly in markets pushing stricter emission controls or targeting the consumer wellness segment. Chemists aiming for adhesive tack, cohesive strength, or appearance consistency get to focus on the outcome, not on battling upstream variability. Every ounce of chemical purity earned during production multiplies its value tenfold at the bench or in scale-up.

    Bottlenecks and Solutions: Learning from Real Batches

    Manufacturing always throws up roadblocks. We’ve seen raw material shortages, unexpected catalyst degradation, and even weather events that shift the process’s thermal profile. None of these events show up in finished product brochures, but they make or break a consistent Tetrahydrocyclopentadiene supply. To manage this, production planning works alongside raw material sourcing every single week. Any process bottleneck triggers a fast investigation, whether it’s an equipment anomaly or a subtle feedstock shift. Remote monitoring, quick lab analysis, and close ties with logistics routes all keep production on track. Continuous staff development proves essential—every new reactor operator gets hands-on exposure to upset conditions before managing a full shift. Lessons learned from these events now appear in our internal guides, shaping both preventive maintenance and upgrade priorities.

    On the customer side, the most reported technical questions focus on blending challenges or unexpected reactivity during polymerization. Our technical support leans heavily on archived case studies and regular feedback loops with formulation partners. Real adjustments—such as slightly altering storage temperature or tweaking catalyst ratios—often do the trick, far outweighing theoretical fixes. Sometimes, we’ll run joint trials and share data, allowing downstream production to dial in for batch-to-batch repeatability. This approach not only flags us as more than a faceless supplier but also gradually removes frictions our industry once considered inevitable.

    Regulatory Environment: Navigating Complexity with Evidence

    Across global markets, regulatory requirements for chemical products grow more nuanced and region-specific each year. Tetrahydrocyclopentadiene has passed through evolving frameworks, requiring certificates for purity, traceability, and increasingly, for process emissions. We keep dedicated compliance staff focused on routine audits and robust documentation—ensuring full traceability for each shipment. Regulatory teams regularly review our process data, making it easier to respond promptly to customer questions on provenance, purity statements, or safety-related disclosures. Our years in the business teach us that compliance is not static. Each new piece of legislation triggers internal reviews and hands-on process adjustments rather than just paperwork. Adopting best available techniques for emission control and waste minimization forms part of each annual CAPEX plan.

    End-users in the resin or adhesive markets push for material declarations in product stewardship, often because their customers demand it. We supply detailed breakdowns, not just at the certificate-of-analysis level but also including longitudinal purity and stability tracking. Customers report that this transparency simplifies their own certification and regulatory filings, especially for applications in food contact, consumer goods, or sensitive industrial environments. By building on solid experience and lived technical involvement, we deliver more than compliance; we become a trusted contributor to our customer’s long-term regulatory strategy.

    Supply Chain and Logistics: Minimizing Disruption

    Shipping chemicals like Tetrahydrocyclopentadiene revolves around timing, temperature management, and the reality of global transport bottlenecks. Whether the destination is domestic or half a world away, our shipping staff tracks temperature and pressure profiles continuously, minimizing risks during transit. Packaging choices—from specialized drums to ISO tanks—come straight from years dealing with leaks, contamination incidents, or unexpected delays at customs. Each tank, each drum draws scrutiny before loading. Purity, moisture, and contamination checks don’t stop at the plant boundary. We instituted a redundant documentation process for all outgoing shipments, allowing quick responses to customs or safety inspectors along the way.

    Every detour in the supply chain costs money or burns up customer goodwill. Rather than waiting for external logistics partners to flag issues, we keep direct lines open with freight providers, customs brokers, and—most importantly—the recipients’ own warehouse teams. This lets us respond to rerouting requests, shipment tracking, or document amendments in real time. Even in supply crunches or logistics gridlock, we work to keep our finished goods moving, whether that means splitting shipments, switching containers, or calling in backup carriers. Our ground-level experience leads to fewer surprises and steadier fulfillment even during market turbulence.

    Customer Engagement and Continuous Feedback

    Every plant manager, technical director, or head of procurement brings a distinct set of needs and pressures. We encourage direct dialogue—structured and unstructured—with these decision makers. Plant visits, technical workshops, and open forums with our laboratory team deepen our understanding of practical application challenges, whether it's a formulation sticking point or a raw material inconsistency. Feedback influences production batches more quickly than any annual survey or distant market report can.

    Detailed conversations with customer R&D teams have led to production line tweaks, minor specification adjustments, and even strategic investments in new purification equipment. Whenever customers flag recurring challenges—be it trace odor, viscosity drift, or stability under variable storage—our tech teams swing into action, running parallel tests and sharing updates at every step. Regular feedback loops mean we rarely get blindsided by performance complaints or regulatory questions, instilling confidence that every drum of Tetrahydrocyclopentadiene entering a new facility has passed through innumerable hands and checks.

    Sustainability and Future Innovation

    Sustainability marks a real pressure point for the chemical industry. We are not exempt. Our production line for Tetrahydrocyclopentadiene incorporates energy recovery, closed loop solvents, and increasingly, a push to minimize byproduct waste. Decisions to install heat exchangers or invest in water recycling don’t come from public relations drives but from ongoing efforts to drive down both cost and environmental footprint. Detailed tracking of emissions, waste, and energy use inform not just reporting but also day-to-day operational shifts—one step at a time, grounded in factory floor realities.

    Looking forward, we anticipate customer demand for Tetrahydrocyclopentadiene to track with stricter environmental and product stewardship regulations. We’re preparing for this by partnering with universities, investing in catalytic process improvements, and participating in downstream user groups focused on greener polymer chemistries. Product development now cycles through both market needs and life cycle analysis. Every incremental improvement—whether in catalyst longevity or reduced batch emissions—feeds into future specifications, future audits, and, eventually, lower total cost of ownership for our partners.

    Why Experience Matters

    Industrial chemistry never stands still. Every operator who has spent years on the production line knows there’s more to a chemical than its SDS or spec sheet. Real insight grows out of the situations handled, anomalies resolved, and the direct calls fielded from partners on the other end of the pipeline. Our focus in manufacturing Tetrahydrocyclopentadiene rests not on abstract commitment, but in daily discipline—cross-checking, troubleshooting, and working side by side with customers and co-workers alike. Whether it’s the design of a pump seal or a subtle change in monomer purity, every minute on the line informs how we refine, ship, and support our product.

    Customers return for more than certification or attention to detail—they want confidence built on evidence, not empty assurances. Tetrahydrocyclopentadiene may seem just one ingredient among thousands in the global chemical market, but for those producing, shipping, or transforming it into new applications, the story is one of continuous learning and steady improvement. As long as the industry demands quality, we continue to shape production around hard-won experience, careful process management, and the belief that each batch connects us back to every bench chemist, plant operator, and product developer relying on our work.