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HS Code |
233072 |
| Cas Number | 763-29-1 |
| Molecular Formula | C6H12 |
| Molecular Weight | 84.16 |
| Iupac Name | 4-Methylpent-2-ene |
| Appearance | Colorless liquid |
| Boiling Point | 63-64 °C |
| Density | 0.701 g/cm³ |
| Melting Point | -117 °C |
| Refractive Index | 1.391 |
| Flash Point | -21 °C |
As an accredited 4-Methyl-2-Pentene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500 mL amber glass bottle with a secure screw cap, labeled "4-Methyl-2-Pentene," includes hazard warnings and handling instructions. |
| Shipping | 4-Methyl-2-pentene should be shipped in tightly sealed, properly labeled containers, protected from heat, sparks, and open flames as it is flammable. The chemical should be transported according to regulations for hazardous materials, ensuring upright position and secondary containment to prevent leaks or spills during transit. Handle with care and appropriate safety measures. |
| Storage | 4-Methyl-2-Pentene should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Keep it separated from oxidizers and acids. Properly label the storage area and avoid storing near incompatible substances. Use explosion-proof equipment and grounding procedures to minimize fire and static electricity risks. |
Applications of 4-Methyl-2-Pentene in Industrial Manufacturing4-Methyl-2-Pentene serves as a key intermediate in a range of specialized chemical production environments. Our manufacturing teams supply this compound to industrial users engaged in high-value downstream processing applications, ensuring strict adherence to relevant quality and safety requirements. 1. Specialty Olefin Polymerization for Advanced PolyolefinsIn polyolefin production plants, 4-Methyl-2-Pentene is utilized as a comonomer to achieve specific material characteristics for high-performance plastics. Manufacturing technicians meter the comonomer into slurry-phase or gas-phase polymerization reactors, allowing precise control over branching and crystallinity of the polymer backbone. Specialty film, sheet, and injection molding resins for demanding sectors leverage the molecular structure imparted by this input for mechanical strength, barrier properties, and optical clarity. Industry compliance standards
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2. Synthesis of Organic Intermediates for Fine ChemicalsProcess engineers in fine chemical manufacturing deploy 4-Methyl-2-Pentene as a tailored alkylation and carbon-carbon bond-forming intermediate. It enters as a substrate for catalytic transformations to yield target molecules used in fragrance, agrochemical, and specialty monomer synthesis. The compound’s defined structure lends itself to regioselective functionalization under precise reaction conditions, supporting downstream separation and purification. Industry compliance standards
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3. Raw Material in Industrial Lubricant Additives ManufacturingFormulation specialists in lubricant additive plants use 4-Methyl-2-Pentene to synthesize key alkylated derivatives, which act as viscosity index improvers and pour point depressants. The compound undergoes oligomerization and subsequent chemical modification to yield target molecular weight ranges, directly contributing to finished additive performance in automotive and hydraulic fluids. Quality assurance teams verify composition and reaction completion to maintain batch consistency. Industry compliance standards
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4. Precursor for Advanced Silane Coupling Agent SynthesisIn silane manufacturing, process engineers depend on 4-Methyl-2-Pentene as a controlled alkene input during hydrosilylation routes. It reacts with functional silanes in the presence of platinum-based catalysts to generate targeted organofunctional silanes. This step is fundamental for producing coupling agents that achieve enhanced adhesion and durability in composite materials and sealant formulations used in electronics, construction, and automotive assembly. Industry compliance standards
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5. Intermediate for Pharmaceutical Synthesis (API and Excipients)Pharmaceutical synthesis teams employ 4-Methyl-2-Pentene as a protected intermediate to construct active pharmaceutical ingredients and specialty excipients, especially where steric or regioselective control is required. It enters early-stage multistep syntheses and can undergo halogenation, epoxidation, or hydration to introduce functional groups. Process validation and batch release protocols ensure full traceability and compliance with continuous GMP requirements. Industry compliance standards
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Walking into our production plant early on a summer morning, you’ll notice the distinctive routine—the hiss of reactors, the click of valves, the rustle as drums fill in the warehouse. Among the products we run, 4-Methyl-2-Pentene often stands out for its balance of molecular stability and application flexibility. Our work with this chemical has not only shaped how we approach olefin production, but fine-tuned our understanding of customer expectations across segments from catalyst research to intermediate synthesis.
On the molecular level, 4-Methyl-2-Pentene includes a methyl branch on a five-carbon framework, a structure that is more than a simple formula on paper. For those who appreciate NMR and GC-FID graphs as we do, each batch’s purity and profile carry layers of history: the way you hold temperature at a certain stage, the speed you draw vapor overhead, every move affecting final isomer ratios. Our standard offering delivers a purity above 98%, with specification files available for those who need full analytical traceability.
Decades ago, some thought narrow distillation ranges were out of reach. Over the years, we found that careful fractionation and feedstock selection consistently control impurity carryover. In every tank we fill, uniformity stems from hard-won experience, not just automated metering. The result is a colorless liquid, faint hydrocarbon odor, and a boiling point close to 64°C. When transferred in bulk, each drum reflects rigorous sampling, not just standard spot checks. By investing in powerful spectrometers and bolstering employee training, we built a culture where there is no substitute for repeatable results.
4-Methyl-2-Pentene’s value doesn’t stop at its purity. We see the downstream impact every time a client comes back for a new order—pharmaceutical labs, resin manufacturers, specialty rubber developers, and fragrance companies all look to leverage its reactivity. The double bond, sitting on the second carbon, offers a handle for further transformations: hydroformylation, oxidation, or alkylation. Its methyl branch influences branching in the final product, which can enhance yield and tweak physical properties. We’ve watched engineers use this molecule as a feed for polyolefin experimentation, and we’ve heard from chemists working on fine-tuning surfactant intermediates.
Throughout years of running our reactors, we notice subtleties others overlook. In one instance, a client struggled with a yield drop during polymerization trials, only to discover that the isomer content in their previous supplier’s product was far outside tolerance. Once our 4-Methyl-2-Pentene replaced their feed, batch consistency snapped back. Their throughput improved, waste dropped, and troubleshooting hours fell away. Problems like these push us to guard every production stage—from feedstock delivery through finished-goods sampling.
To those who’ve handled multiple hydrocarbon streams, the question often comes up: Why choose 4-Methyl-2-Pentene instead of simpler pentenes or hexenes? Experience tells us that substitutions may appear simple on paper but often derail downstream steps. Its branched structure and precise location of the double bond make a difference in selectivity, reactivity, and volatility. For instance, linear pentenes generally deliver less control in selective alkylations, and heavier branched olefins introduce volatility and handling challenges absent in 4-Methyl-2-Pentene.
The methyl substitution at the fourth carbon means this molecule gives a unique profile in oligomerization or metathesis, contributing to the backbone structure of advanced polymers. In contrast, using less-branched alternatives can introduce off-target products or force process conditions into tighter operating windows. For those scaling up, the reproducibility of reaction outcomes matters. Our customers have learned hard lessons from product switches dictated by a sense of short-term savings—only to spend more on rework and waste. 4-Methyl-2-Pentene earns its place by minimizing those chances.
Chemistry doesn’t happen in a vacuum, and neither does the handling of volatile organics. Our plant staff, whether veterans from the earliest shifts or newer hands learning on the floor, treat 4-Methyl-2-Pentene with the respect it deserves. Vapor pressure in summer heat, for instance, reminds us to check all gasket seals before any transfer. Respiratory protection and spill control aren’t afterthoughts. Each tanker is loaded only after a full leak inspection, and operators run drills to simulate line breaks or accidental releases.
The chemical’s flammable nature leads us to prioritize grounding and bonding procedures, and the low flashpoint means we constantly reinforce careful purging of any ignition sources. Over the years, we’ve worked with regulatory auditors from local and international agencies, refining our approach each time new standards emerge. Compliance comes not just from ticking boxes but from sharing lessons learned during actual incidents—those tense moments that challenge, but ultimately reinforce, plant discipline.
Supply chain hiccups—everyone in chemicals sees them eventually. Feedstock delivery delays, shipping container shortages, fluctuations in energy prices, or new regulatory hurdles can all throw schedules off. Our experience with 4-Methyl-2-Pentene’s demand cycles taught us to buffer inventory, invest in multi-modal transport partnerships, and double down on raw material source vetting. There is no quick fix for a rail shipment stuck at a border crossing, but backup plans and transparency soften the blow.
Periodically, rising global demand for specialty intermediates prompts reevaluation of capacity. Our engineers run the numbers on expansion, weighing the risks of overbuilding against the reality that once a customer depends on you, you can’t afford a missed shipment. Our strategy grew out of honest conversations with both crew and clients. More storage tanks, not just larger reactors, often make the difference during swings. Ultimately, reliability in supply matters as much as purity, and both require disciplined long-term planning.
Over time, the difference between the manufacturer and a simple reseller becomes clear. As a producer, we manage every detail from raw input to final packaging. We answer for the batch’s total hydrocarbon profile, the instruments used to monitor process drift, the recordkeeping spanning decades. Some new entrants try to skirt these investments, passing through product from another site and rebranding it with a fresh label. Our customers don’t just spot the difference in paperwork—they see it in the way their processes run.
In practice, even minor slip-ups during synthesis, storage, or even process troubleshooting can snowball through a plant or research laboratory. One shipment with off-spec distillation range can lock up a reactor step, force unplanned cleaning, or compromise a scale-up. The stakes demand a level of process ownership only reachable with experience. We don’t just ship 4-Methyl-2-Pentene with an eye on today’s margins; we document, continuously review, and improve every on-site operation. That approach delivers peace of mind for our partners, who rely on us for their most sensitive applications.
Every year, we ask key customers to share how material performance impacts their research or commercial runs. One resin developer spoke about recent improvements in product stability, directly traced to narrower impurity profiles in our 4-Methyl-2-Pentene. By investing in better phase-separation steps, we shielded their downstream products from contamination. A fragrance formulator pointed out lower odor background rolled through into more predictable aroma blending. Hearing these reports closes the loop: it’s not just about numbers in a spec sheet, but real-world gains in benches and on plant floors.
We have also learned from missed marks. One partnership in specialty elastomers initially stumbled, with trial batches revealing unexpected side-reactions under customer conditions. In response, we intensified our speed in analytical turnarounds and added new tests for select performance-limiting by-products. Transparent reporting—good or bad—drives these continual improvements. Every feedback cycle reinforces the core principle: listening to those who use our 4-Methyl-2-Pentene produces better outcomes for everyone.
Markets for specialty olefins broaden each year. Sectors like functional coatings, pharma intermediates, and next-generation polymer systems now demand not just generic hydrocarbons, but tightly-profiled chemicals like 4-Methyl-2-Pentene. We respond by reinvesting in process automation, in-line monitoring, and talent development for the next generation of plant operators. In R&D, the push continues to explore new transformation pathways, aiming for lower emissions, higher yield, and more selective reactions while keeping the backbone product consistent.
Raw material sustainability grows in significance. Sourcing practices now take center stage, with tightened traceability requirements and renewed focus on lifecycle impacts. From experience, we know that continuous relationships with reliable suppliers reduce disruptions, but also allow for early alignment on new sustainability standards. Customers have asked about bio-based options and circular chemistry principles, and while 4-Methyl-2-Pentene remains fundamentally hydrocarbon-based, these questions shape our evaluations for future feedstock stream diversification.
Every production cycle brings its own surprises. Sometimes it’s a sudden off-odor in a distillation fraction or an unexpected deviation in the isomer ratio. Our approach always centers on rapid, transparent troubleshooting: cross-functional teams, immediate sample pulls, advanced analytical review, and holding further deliveries until we locate and solve the issue. Speed matters, yet accuracy can never slip; a rushed fix without root-cause analysis often creates more trouble. The culture we’ve built means operators, shift leads, and managers coordinate instead of siloing information.
Unexpected by-product formation challenged us in the past—prompting a new level of vigilance with temperature ramping and tighter control of inert atmospheres in critical reactors. Customers call on us with their own troubleshooting questions, and we open plant logs and provide fresh run data, not just generic advice. These interactions, built on trust and experience, lower the risk of downstream product failures and foster creative problem-solving on both ends.
Working face-to-face with researchers and process engineers gives us real-time feedback on how our 4-Methyl-2-Pentene is actually being used in pilot programs and full-scale production. We’ve been asked to adjust impurity limits for specific projects or develop alternative packaging for easier integration into automated warehousing. Sometimes that means extra filtration, capped oxygen content, or unique container lining. In each case, we dive into lab results and engineering consultations to shape the final product profile, not just push out a generic formulation.
Beyond physical product, our technical team fields calls on reaction conditions, blending considerations, and storage solutions. Our years as hands-on manufacturers, not resellers, inform this advice—whether it means tweaking agitation rates, adjusting additive dosing, or prepping storage tanks for turnover. Every small change on the production floor carries ripple effects, and we’ve seen enough projects to spot trouble before it grows.
Customers count on consistency, immediate support, and the ability to adapt. Direct supply cuts out layers of delay and uncertainty. During periods of market tightness or quality drift in the broader supply chain, those ties get tested. We supply documents, batch-level data, and direct troubleshooting—because we have full visibility from raw material tanks to outbound trucks. This level of involvement often prevents cascading delays and lets our partners plan with confidence.
We’ve seen situations where intermediaries tried to “fix” off-spec material through blending or relabeling, only to pass those headaches on to others. Being the original manufacturer, we set and monitor the quality standards from the start, and we don’t rely on opaque supply chains. Any challenge that surfaces, whether in application or delivery, reflects directly on us, so we invest accordingly. Our commitment to long-term customer relationships means no shortcuts in quality or service.
Improvement never stops, even for mature chemical streams. Regular audits, internal and independent, update our methods and documentation. Each year, new toolkit additions—modular distillation towers, advanced in-line analytics, real-time reaction monitoring—raise the ceiling for process control, further reducing tolerances for quality drift. Applying Six Sigma and lean manufacturing principles, we reduce waste at every step—not just for margins, but for environmental stewardship.
Ongoing training sessions keep our crew sharp; experimenters on the line learn to spot subtle deviations that software alone might miss. Networking with other producers and technical groups, we share non-competitive lessons, knowing industry safety and innovation rise through collective expertise. Modern manufacturing in chemicals is a living process. The trust we build through every shipment of 4-Methyl-2-Pentene is earned one day at a time, shaped by past successes and hard lessons alike.
From a manufacturer’s perspective, 4-Methyl-2-Pentene represents more than an entry on a list of available chemicals—it is a product whose performance hinges on process knowledge, end-to-end quality control, and a collaborative connection with those who depend on it. Our experience as direct producers shapes every aspect of how we supply this chemical, from raw material sourcing through to delivered drum. By focusing on long-term reliability, technical support, and uncompromising standards, we ensure customers receive exactly what their processes demand—batch after batch, year after year.