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HS Code |
414162 |
| Iupac Name | 2-Chloro-2-methylbutane |
| Molecular Formula | C5H11Cl |
| Molar Mass | 106.60 g/mol |
| Cas Number | 594-36-5 |
| Appearance | Colorless liquid |
| Boiling Point | 85-87 °C |
| Melting Point | -110 °C |
| Density | 0.865 g/cm³ |
| Refractive Index | 1.411 |
| Flash Point | 2 °C |
| Solubility In Water | Insoluble |
| Structural Formula | CH3CH2C(Cl)(CH3)CH3 |
As an accredited 2-Chloro-2-Methylbutane 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, tightly sealed, with a hazard-labeled sticker displaying “2-Chloro-2-Methylbutane” and safety warnings. |
| Shipping | 2-Chloro-2-methylbutane should be shipped in tightly sealed containers, protected from heat, sparks, and open flames. Label as a flammable liquid, and follow local, national, and international regulations. Ensure proper ventilation and use compatible packaging. During transport, segregate from oxidizers, acids, and strong bases to prevent dangerous reactions. |
| Storage | **2-Chloro-2-methylbutane** should be stored in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep container tightly closed and properly labeled. Store away from incompatible materials such as strong oxidizers and acids. Use an approved, corrosion-resistant container, and follow all safety regulations for flammable, volatile organochlorine compounds. |
Applications of 2-Chloro-2-Methylbutane in Industrial ManufacturingAs a direct manufacturer of 2-Chloro-2-Methylbutane, we support established chemical and pharmaceutical sectors with material integration into several core downstream production chains. Below, we outline key application scenarios proven by industry adoption, where our product fits essential performance, formulation, and compliance needs. All details reflect practical factory use based on regulatory conformity, real dosage ranges, validated processes, and actual end markets. 1. Pharmaceutical Intermediate Synthesis for Anti-Infective APIsMany pharmaceutical producers utilize 2-Chloro-2-Methylbutane as an alkylating agent during the synthesis of certain anti-infective active pharmaceutical ingredients (APIs), including intermediates in the production route of macrolide antibiotics. It is selected for its effective introduction of tertiary alkyl groups into complex molecules under controlled laboratory and plant conditions, contributing to specific pharmacophore construction aligned with international drug standards. Quality assurance throughout synthesis requires consistent material performance and purity thresholds validated by rigorous in-process and end-product testing. Industry compliance standards
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2. Agrochemical Intermediate Production in Herbicide SynthesisThe crop protection sector applies 2-Chloro-2-Methylbutane as an alkylating intermediate, predominantly in the stepwise construction of active herbicidal compounds bearing tertiary butyl moieties. Manufacturers value this building block for enabling regioselective substitution, ultimately affecting molecule activity and selectivity. Ensuring traceability from raw material input through final agrochemical batch is mandatory for compliance and downstream marketability. Industry compliance standards
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3. Fine Chemical Manufacturing: Extraction Solvent ComponentIn fine chemical manufacturing, 2-Chloro-2-Methylbutane is integrated as a nonpolar solvent component or as a phase-transfer catalyst for selective extraction operations, especially where controlled solubility is required for isomer and impurity separation. Operations rely on reproducible solvent properties and controlled batch-to-batch specification adherence to minimize cross-contamination and ensure consistent output during final crystallization or isolation steps. Industry compliance standards
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4. Custom Synthesis for Perfume and Fragrance Intermediate SupplySpecialty fragrance chemical firms source 2-Chloro-2-Methylbutane for its controlled alkyl group introduction during the multi-step synthesis of complex aroma molecules. The compound acts in selected substitution reactions to impart desired volatility and olfactory profile specifics, supporting tailored fragrance intermediate manufacturing under extensive quality and traceability systems required by the cosmetics sector. Industry compliance standards
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Inside our plant, 2-chloro-2-methylbutane keeps its place on our production floor for good reason. This tertiary alkyl halide surfaces in our chemical lineup for its unique structure: a four-carbon backbone capped with two methyl groups and a reactive chlorine atom attached to the second carbon. CAS number 594-36-5 identifies it across global frameworks, but for us, the story starts long before the label goes on the drum. The compound’s clear, volatile nature has demanded thoughtful storage, careful transfer, and dependable monitoring to ensure only top-grade product ever leaves our facilities. Our chemists monitor not just basic purity but also water content, isomeric composition, and trace residue levels. We take batch consistency as seriously as our safety training—both protect our customers and our team.
Seasoned operators here notice the subtle smells and appearance shifts in this clear liquid, telling them when an impurity threatens to creep in or if a process drift needs a closer look. Years of hands-on handling have introduced lessons about temperature management and material compatibility. Stainless steel, glass, well-maintained seals—these choices guard against corrosion and preserve the shelf life. From the storage tanks to the loading platform, everyone knows complacency shortens the life of equipment and jeopardizes purity.
At standard room temperature, 2-chloro-2-methylbutane’s physical properties make bulk transport and transfer achievable with pumps rated for low-viscosity and volatile compounds. We design processes around its moderate boiling point and low solubility in water, using specialized venting and closed-system handling. This ensures minimal vapor loss and maximum recovery, which matters when scaling up for regional or international shipping.
In-house quality runs more than a lab test; every drum reflects hundreds of tiny decisions made over the production campaign. We gravitate toward specifications that balance industrial utility with safe handling: moisture below 0.05%, purity above 99.5%, low acid content, and minimal halide impurities. These criteria are based on feedback from end-users—pharmaceuticals, agrochemical syntheses, and research labs all voice similar needs, even if batch sizes change. Oddly enough, it's the non-chemists—those on maintenance or logistics—who first spot imbalances. Any hint of discoloration or unexpected odor flags a problem and triggers a full review.
Chlorinated alkanes rarely leave room for error. Uncontrolled residues, trace metals, or contaminants can trigger downstream processing headaches like fouled catalysts or skewed product ratios. We learned early how fine-tuned distillation, rigid leak tests, and regular plant hygiene determine the difference between smooth turnover and costly rework. There’s tenacity in keeping each lot identical to the last. When margins are tight, our customers depend on receiving the precise product they ordered, not some near-match susceptible to runaway side reactions.
Our foremen keep records that stretch back decades, logging every tweak: minor changes in raw material supplier, adjustments in reflux duration, or modifications in drying protocols all get captured. This long-view tracking surfaces subtle issues—many not caught by a single round of QC—and allows us to optimize yield and minimize waste generation over time. What started as a basic solvent offering evolved through feedback from process engineers and bench chemists who valued reproducibility above all else.
Chemical routes requiring 2-chloro-2-methylbutane often revolve around its role as an alkylating agent. The tertiary structure offers steric hindrance and stability, facilitating particular nucleophilic substitution reactions common in research and production settings. We’ve supported custom synthesis groups needing reliable starting materials for anticholinergics, specialty agrochemicals, and fragrance intermediates. They share stories about past headaches with lower-grade feedstocks: harsh side reactions, scavenger overloads, and purification bottlenecks. The feedback loop from these customers often shapes our own internal protocols for drying, degassing, or filtering before dispatch.
For those less familiar, not all chloroalkanes behave the same way under reaction conditions. 2-chloro-2-methylbutane’s tertiary carbon atom stabilizes resulting carbocation intermediates, which opens reactive pathways distinct from its isomeric or primary-chlorinated cousins. Traditional textbooks might gloss over these distinctions, but at scale, that difference can mean higher yields and lower costs—or conversely, costly batch failures. Our staff maintains reference samples from prior years and routinely checks new stock against these benchmarks. This tracking aids customers who experience unexpected yield drops or altered reaction profiles, as aging or subtle impurity buildup can quietly degrade results.
Customers running automated batch equipment express appreciation for our efforts to eliminate batch-to-batch variability. They want confidence that the liquid in tank #75 this quarter behaves the same as last year’s supply from tank #12. By collaborating directly with these end-users, we fast-track improvements in filtration particle size, leak detection, and packing materials, all based on their specific demands. It’s a partnership focused less on marketing and more on mutual problem-solving.
Operators sometimes lump 2-chloro-2-methylbutane with other primary or secondary chloroalkanes, but not all alkyl chlorides serve the same role. Primary chlorides—like 1-chlorobutane—display vastly different reactivity. Their lack of branching doesn’t support the same carbocation stability, which shifts reaction outcomes. Tertiary is what sets 2-chloro-2-methylbutane apart for certain transformations.
We field requests comparing our product to tert-butyl chloride, a smaller—but structurally similar—compound. In our experience, the additional carbon in 2-chloro-2-methylbutane’s backbone alters boiling points, handling requirements, and solvent compatibility. In temperature-sensitive processes, this means revised protocols. We share detailed handling guides rooted in actual pilot plant experience, not just theoretical data. Even small supply interruptions highlight the effort in finding a true like-for-like replacement for tertiary halides; substitutions may work in lab conditions but often trigger scale-up difficulties.
Over the years, we’ve seen customers attempt to swap in less expensive secondary halides, only to encounter slower reaction rates or poor selectivity. The unique steric environment and electron-donating effects in our compound often improve alkylation outcomes, especially where yields matter. It’s these small, structure-driven distinctions that influence process economics, especially where feedstock cost and purity drive the bottom line.
Production of 2-chloro-2-methylbutane places a real emphasis on occupational safety. The compound’s volatility and chemical reactivity make containment a top priority, not an afterthought. We balance material throughput with the health and well-being of our workforce. Over the years, investments in closed transfer lines, upgraded ventilation, and robust monitoring mitigate both vapor exposure and environmental emissions. We’ve learned the value of proactive engagement with employees, not just rule posting. Shift supervisors encourage ‘stop and check’ during every batch changeover. That real-time vigilance from everyone on the floor has flagged issues before regulators or customers ever notice.
The drive toward lower emissions and responsible waste management guides plant improvements. Chlorinated byproducts create unique demands for solvent recovery and air scrubbing systems, both in terms of performance and repair requirements. Staff maintenance teams focus on regular inspection—leaks or fouled exchangers can turn a compliant operation into a risk overnight. Years of working with external auditors has shaped our documentation, but day-to-day vigilance remains the real guardrail. Small spills or leaks mean fast response; the expectation is that every operator clocks out having done their part to protect the work environment and those living nearby.
Customers increasingly ask about lifecycle footprint and sustainable sourcing. To meet these demands, we’ve implemented tighter controls on chlorinated waste, invested in efficient incineration, and kept records to track end-of-life product streams. We open lines of communication for downstream users eager to plug gaps in their own supply chain sustainability. It’s part of a larger shift happening across manufacturing, where data sharing builds trust and long-term relationships beyond any one contract.
Feedback loops between our production plant and user base have redefined what we consider ‘acceptable’ product quality. Early conversations focused only on basic purity and packaging; today, the dialogue digs deeper. Research groups share results from pilot runs and syntheses—showing us real differences as product batches vary. End-users flag subtle attributes such as trace mineral content or variable reactivity in side reactions.
In response, we continue to challenge our own teams. Technicians take pride in tracking process variables and analyzing byproducts during campaign runs. If a customer calls about a failed reaction or unexpected result, we respond quickly with investigation and follow-up. Continuous improvement programs mean everyone—pros, novices, new hires—bring observations forward without fear of blame. These programs feed directly into how we devise new cleaning protocols, improve throughput, and tighten up transfer methods.
Trade shows and technical symposiums give us insight into sector shifts, while formal plant audits deliver hard numbers on areas for procedural improvement. Our research staff conducts collaborative trials with users testing new solvent blends or alternative reaction media—sometimes using our product and sometimes comparing alternatives, so we see the nuanced ways equipment, batch size, and process timing all affect outcomes. This open channel allows us to anticipate coming trends or regulatory shifts before they hit the mainstream.
Scaling 2-chloro-2-methylbutane from pilot to commercial quantities means solving more than simple logistics. In the lab, small glassware tolerates minor impurities or heat surges. Over a metric ton run, the same minor blip can balloon into lost product or costly downtime. Our engineers have worked through heat exchanger scaling, vapor pressure control, and pressure-swing distillation to ensure each throughput ramp delivers consistent output.
We allocate resources for in-plant troubleshooting: flow monitoring, thermal imaging, and corrosion mapping all serve as early warning systems for hardware fatigue or contamination. Regular shutdowns provide the crucial window for deep cleaning and system recalibration. By placing skilled operators in control of automated systems, we catch drift quickly and avoid runaway scenarios. The lesson remains the same: prevention always beats expensive repair after the fact.
Customer partnerships have pushed us to offer a range of package sizes—from drums to intermediate bulk containers—so each user manages risk and inventory just as they require. We tailor logistics to minimize transfer steps and reduce exposure points. Collaboration with hauliers led us to implement vapor-tight packaging, real-time temperature monitoring, and stricter chain-of-custody documentation. The goal is straightforward: every user receives 2-chloro-2-methylbutane in the condition specified—no surprises.
Regulations around chlorinated organics tighten year by year. Our compliance team tracks material restrictions and reporting obligations, from regional registration numbers to updated material safety standards. More than a check-box exercise, compliance shapes everything from tiered response plans to staff retraining. Engagement with regulatory bodies, both domestic and overseas, ensures no shipment faces avoidable customs delays or rejection because a rule update slipped through the cracks.
Years of experience have taught us the importance of transparent documentation—full batch traceability supports not just product recall, but instills confidence in partners and users. Regulatory audits push us beyond minimums and spark cross-department reviews of our blending schedules, emissions logs, and packaging records. We report thorough data on composition, analytical method validation, and periodic requalification. This mindset has paid off in terms of customer trust, especially from those operating in high-regulation sectors such as pharmaceuticals and agriculture.
We review global developments to stay ahead of risk—watching international conventions on Persistent Organic Pollutants, shifts in labeling protocols, and transportation rules for hazardous materials. This vigilance hasn’t only prevented shipment delays; it has also fueled investment in research and technical upgrades to meet emerging expectations for lower emissions, responsible stewardship, and transparent sourcing. Policymakers increasingly look beyond product safety and focus on lifecycle responsibility; we align our improvements accordingly, sometimes ahead of legislation.
Decades of manufacturing 2-chloro-2-methylbutane have honed our perspective, blending hands-on know-how with a clear focus on progress. Customers turn to us for a compound that performs in the real world, not just on paper—where tight process controls, responsive packaging, and responsible handling converge. Our teams on the plant floor, in logistics, and throughout quality assurance build value one drum at a time, motivated by problem-solving and continuous improvement.
Each ton shipped carries a history of lessons: how to spot batch drift, how to troubleshoot unexpected reactivity, and how to tweak systems to cut emissions without cutting reliability. Customer feedback continues to refine our standards, and internal pride ensures each shipment reflects not just specifications, but a commitment to reliability, transparency, and safety.
In an industry obsessed with margins, we never lose sight of the details that really matter: honest collaboration, frontline vigilance, and a willingness to evolve as the market, technology, and regulations change. 2-chloro-2-methylbutane serves as more than just a line in the catalogue—it stands as a shared success, delivered by a team committed to every stage from raw ingredient to final application. That track record—earned through years of lived experience—remains our greatest strength.