|
HS Code |
235426 |
| Iupac Name | (E)-3,7-Dimethylocta-2,6-diene-1-thiol |
| Molecular Formula | C10H18S |
| Molecular Weight | 170.32 g/mol |
| Cas Number | 1117-21-9 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 226-228 °C |
| Density | 0.897 g/cm³ (at 20 °C) |
| Refractive Index | 1.485 – 1.490 |
| Flash Point | 93 °C (closed cup) |
| Odor | Strong, garlic-like |
| Solubility In Water | Insoluble |
| Storage Temperature | Store at 2-8 °C |
| Smiles | CC(C)=CCC/C(C)=C/CS |
As an accredited (E)-3,7-Dimethylocta-2,6-Diene-1-Thiol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 25 mL, screw cap, hazard labels for flammable liquid and toxic material, sealed for chemical stability. |
| Shipping | (E)-3,7-Dimethylocta-2,6-diene-1-thiol should be shipped in airtight, leak-proof containers under cool, well-ventilated conditions to prevent release of vapors. Proper labeling, protective packaging, and adherence to local regulations for flammable and irritant chemicals are required. Avoid exposure to heat, sunlight, and incompatible substances during transport to ensure safe delivery. |
| Storage | (E)-3,7-Dimethylocta-2,6-diene-1-thiol should be stored in a tightly sealed container, away from light, heat, and sources of ignition in a cool, well-ventilated area. It should be kept separate from oxidizing agents and acids. Proper labeling and secondary containment are recommended to prevent leaks, and personal protective equipment should be used when handling the substance. |
Applications of (E)-3,7-Dimethylocta-2,6-Diene-1-Thiol in Industrial Manufacturing(E)-3,7-Dimethylocta-2,6-Diene-1-Thiol is a specialty organosulfur compound widely used as a key building block in several downstream manufacturing segments. As a dedicated chemical raw material producer, we supply this compound for targeted formulation and synthesis needs that require strict compliance with regulatory and performance benchmarks. Below are select, verifiable application sectors that integrate this intermediate at commercial scale. 1. Fragrance Intermediate for Fine and Functional Perfume FormulationManufacturers in the fragrance sector incorporate (E)-3,7-Dimethylocta-2,6-Diene-1-Thiol for the development of high-impact citrus and grapefruit notes. The thiol functionality delivers a signature top note critical to premium end formulas. Its use is subject to formula-specific IFRA (International Fragrance Association) maximum concentration guidelines and is deployed by blending with natural and synthetic aromatic bases. Customers often adjust the ratio by target intensity and product category, resulting in diverse fragrance compositions for both fine fragrance and mass-market personal care. Industry compliance standards
Typical usage ratio
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2. Thiol-Modified Polymer Synthesis (Elastomers and Additives)Elastomer and specialty polymer producers utilize this thiol for controlled sulfur cross-linking during production. Its inclusion facilitates mechanical property adjustments and enhances chemical resistance in final resins. The compound enters reaction schemes where thiol-ene coupling or thiol-ene click chemistry is required, providing defined grafting points or chain ends. Industrial implementation focuses on controlled introduction to avoid premature curing and ensure batch reproducibility. Downstream processors maintain precise stoichiometry based on polymer type. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Sulfur-Containing Pharmaceutical Intermediate SynthesisAPI and intermediate manufacturers integrate this compound as a sulfur donor, especially in the assembly of organosulfur scaffolds and synthetic analogs. Its thiol group enables nucleophilic substitution or addition in multi-step pharmaceutical syntheses, often under GMP-controlled environments. Each process run specifies narrow purity and traceability requirements. The compound is strictly handled and tracked per current Good Manufacturing Practices, often following route-specific standard operating procedures within API plants. Industry compliance standards
Typical usage ratio
Downstream process integration
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4. Sulfur-Modified Metal Corrosion Inhibitor FormulationsThe metal treatment industry deploys this thiol-containing molecule in corrosion inhibitor packages used for oilfield, cooling water, and industrial process fluids. It works through strong adsorption onto metal surfaces, especially copper and other non-ferrous alloys, forming a protective sulfur film. The material is introduced as part of multi-component formulations, aligned with end-user equipment metallurgy and aggressive environments. Formulators determine dosing based on corrosion rate testing and fluid type. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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(E)-3,7-Dimethylocta-2,6-diene-1-thiol often appears on batch reports in our facility under the code DDT-E. This molecule offers a fascinating intersection between organosulfur chemistry and the flavor and fragrance industry. Over the years, we’ve watched requests for this thiol grow, often fueled by demand among formulators who recognize its unique aroma and consistency profile. It is a colorless to pale yellow liquid, transparent when pure, exuding a strong, sharp character. Our production lines are set up to maintain strict batch-to-batch reproducibility because even slight deviations in the isomeric or sulfur content lead to detectable profile changes—especially in sensitive applications.
Some chemical intermediates launch quietly, barely drawing notice; not so with (E)-3,7-Dimethylocta-2,6-diene-1-thiol. Its sulfur backbone, combined with conjugated double bonds, plays a critical role in high-impact top notes for various aroma compositions. Internal tasting panels consistently report pronounced grapefruit-like notes with only minute additions, even at parts-per-billion levels. This potency explains its longstanding popularity in citrus recreations and complex fruit accords. Working closely with flavorists, we see that consistency—especially when working with natural grapefruit replacements—makes a measurable difference in the final product's acceptability.
Producing this thiol at scale is far removed from simply buying and repackaging existing lots. We run high-precision distillation columns configured to handle delicate sulfur compounds, and invest in tailored purification stages to minimize side-reactions and trace contaminants. Over time, we have refined a synthetic pathway that ensures the E-isomer remains predominant, securing that distinctive olfactory punch. In standard practice, many traders or contract packagers source mixed-isomer lots and label by generic nomenclature, but our facility tracks isomeric purity and residual solvents through the lifetime of each drum or container. Analytical teams regularly run comparative GC-MS and NMR checks, providing flavor houses with robust component breakdowns instead of generic COAs.
Experience tells us “off” odors emerge easily in sulfur chemistry, usually from trace impurities or minor degradation. To avoid these pitfalls, we equip GC systems with sulfur-selective detectors and validate peak purity before lot release. Extended storage trials at varying temperatures and humidities help confirm that our filled drums retain stability far beyond regulatory minimums. All outgoing material ships with lot-specific chromatograms. In open dialogue with regulatory compliance teams, we keep records on every drum’s composition, responding proactively to evolving requirements in food, beverage, and fragrance segments.
Specification sheets only tell part of the story. Chemically, the main product features a high E:Z isomer ratio, sulfur content verified by CHNS analysis, and minimal non-volatile residue. Our teams regularly compare end-use applications—aromas in finished beverages, cleaning gels, or fine fragrance bases—and report back on sensory differences derived from small shifts in these analytical markers. These conversations help refine our product targets. For instance, a beverage company pointed out flavor fade after pasteurization. We ran thermogravimetric analysis checks and re-optimized our syntheses to further remove minor impurities that hastened oxidative decomposition, increasing flavor stability under heat.
Handling organosulfur intermediates can intimidate even veteran chemists. We package our (E)-3,7-dimethylocta-2,6-diene-1-thiol in tight-seal containers with low-permeability liners, which limit both evaporation and absorption of ambient odors. Internal testing confirms that open handling for weighing or dilution leads to perceivable migration, even in ventilated labs. For this reason, material comes with detailed storage suggestions developed through direct experience rather than textbook advice. In field visits, we frequently counsel clients on rapid dilution protocols, preferred solvents, and safe blending practices that retain the subtle balance of volatile top notes without introducing processing taints.
The market for aroma chemicals is awash with claims about purity. Years on a production line show that real-world results matter—especially for food and beverage clients, who face consumer panel testing and batch-to-batch scrutiny. Our operations qualify raw inputs at intake and maintain batch records for traceability; regular spot-checks during reaction and distillation keep deviations in check. Every time we tinker with a process or vendor, internal technical experts taste and benchmark performance under varying dilution and pH conditions, ensuring that no unexpected background notes will creep into finished consumer products.
It’s easy to lump (E)-3,7-dimethylocta-2,6-diene-1-thiol with other C10 molecules such as limonene or myrcene, both plentiful in citrus-derived oils. Direct handling and blending reveal a sharp difference. Limonene, despite its brightness, lacks the deep, sulfur-driven bitterness and complexity brought by this thiol. Products that need a punchier and more authentic grapefruit character rely on our thiol to inject life into their bases. Even minute concentrations lift the realism and “zest” of a profile, supporting persistent flavor linger and enhanced longevity—traits not achieved by unsulfured analogs.
Flavor creation never stands still. Our industrial clients look for compounds that work seamlessly in carbonated beverages, shelf-stable juice bases, and flavored candies. Every quarter, we trace feedback from product launches, noting not only technical performance but consumer ratings and commercial appeal. This specific thiol consistently helps beverage companies nail their “ruby red” descriptor, overcoming supply swings in natural grapefruit extracts. Some days, formulators stop by our pilot plant request log to discuss ways to push aroma intensity without veering into bitterness—a maneuver where dry-down effects matter as much as first impression.
In fragrance blending, the thiol serves as a bridge compound, interacting smoothly with aldehydes, esters, and floral top notes. Because our team works hand-in-glove with master perfumers—sometimes sampling trial blends on-site—we learn fast how even half a ppm can tip a fragrance from “flat” to “brilliant.” Our quality teams keep tabs on subtleties like aging curves and the impact of encapsulating agents, advising clients on how to tweak formulations for different product types. Whether a client needs an aggressive grapefruit burst for an air care product or a more subtle enhancement for a high-end eau de toilette, our output scales to their needs in both small pilot and industrial lots.
No one working in industrial chemistry today ignores environmental stewardship. Our process engineers regularly revisit protocols for emissions abatement, waste neutralization, and efficient sulfur recovery. From the floor-level up, operators see firsthand how even trace vent loss can create sharp odors in surrounding areas. As a company with roots in hands-on manufacturing, we invest in staged scrubbers, closed-loop liquid handling, and operator safety training. All waste streams undergo treatment designed from years of collaboration with local regulators and independent auditors. This works not just for compliance but for a smoother, safer running shop.
We lean into process innovation. Instead of resting on established syntheses, our chemists run test batches with greener solvents and alternative starting materials—balancing economics, product quality, and environmental impact. Early trials in solventless or lower-temperature routes have cut both energy spend and hazardous waste, which carries over to a better cost profile for customers and a safer environment for our team. We also participate in cross-sector knowledge exchanges to stay ahead of new regulations and share best practices across the specialty chemical industry.
Manufacturing (E)-3,7-dimethylocta-2,6-diene-1-thiol at scale means relying on a steady network of suppliers for both precursors and packaging. We source direct from certified upstream producers, qualifying every lot of feedstock through on-arrival testing before it hits our reactors. The chemistry doesn’t tolerate “near-grade” inputs; even minor impurities risk autocatalysis or trace contamination. By maintaining a hands-on qualification process with upstream partners, we keep product variability low and ensure each shipment meets the thresholds our customers expect.
Logistics also get attention. Sulfur-rich intermediates challenge both transport and warehouse operations. We prefer lined, corrosion-resistant drums, and staggered just-in-time dispatch so end-users receive fresher material. Regional fulfillment centers cut down on product dwell times, and our logistics managers work to minimize supply interruptions even in tight market conditions. Throughout, we use our own transport documentation, tracking every drum from fill to final customer—not just relying on third-party documentation.
In-house development thrives on dialogue with real users. Flavor houses tell us about downstream process bottlenecks: filtration headaches, or incompatibilities with new food contact materials. We test these scenarios in our own labs, sometimes sending technical staff out to customer sites. One major breakthroughs involved identifying residual catalyst traces left behind by conventional syntheses; by switching to a cleaner, two-step route, we improved material clarity and taste in finished goods.
Our technical teams often collaborate with R&D units at partner companies to support reformulations. Speed matters—so samples get shipped out for bench-scale trials sometimes within a day of request. Each feedback round sharpens future production runs, whether it means tweaking reactor conditions for higher selectivity, or refining downstream purification. As a plant operator, you learn to spot emerging trends—like demand for non-GMO labeling, or natural precursor routes—early, and shift development resources to stay ahead.
Market needs can turn on a dime. We’ve responded to shifts, like tightening residue limits or demand for “clean label” ingredients, by pushing our analytical teams to check for trace solvents or unlabeled side-products. Governmental guidance and industry associations sometimes update limits with little warning. Strong relationships with regulatory consultants and active industry engagement help us forecast changes and adjust before a new standard bites.
Our customers value traceability, not just in paper trails, but in the ability to explain and justify input choices. Trace contaminants, allergens, and non-declared residues never fly under the radar. Every time regulators redefine food-grade or IFRA fragrance safety, our tanks, reactors, and documentation come under review, and we stand ready to invest in revalidating production. Years spent in chemical manufacturing drill in a simple lesson: anticipate what big buyers might worry about before they send a letter.
Consumer palates keep shifting, especially for citrus flavors and related aroma products. Beverage and food buyers judge on taste panels and chemical analytics alike, meaning small variations in thiol content show up on quarterly market reports. Few ingredients in our portfolio draw more attention during briefing sessions on volatility management and stability curves. We document direct correlations between concentrations in product batches and off-the-shelf flavor or aroma scores.
Fine fragrance houses take a similar, multi-prong approach, testing the interplay of this thiol with both synthetic and natural raw materials. Experienced blenders report that our high E-isomer content translates directly into bolder open notes and clean, lingering character in finished perfumes. They value supplier consistency, and many keep our chromatograms on file for side-by-side checks with each incoming drum, sometimes calling for spot audits of our production runs.
Production never runs on autopilot. Each campaign offers new lessons—an unexpected impurity peak here, a sudden batch-to-batch variation there. Our process engineers monitor every step, and plant-floor staff cross-train on blending, filling, quality, and packing. Troubleshooting often means correlating subtle temperature swings or changes in raw material to finished product differences. We have systematic review processes to catch and correct issues, and rarely does a production hiccup escape unaddressed for long.
Experience on the line has taught us to view every lot as a fresh opportunity to build trust. Written protocols help, but the keen eye of a seasoned supervisor spotting potential scale-up issues before they happen prevents costly errors and lost production time. Regular meetings between QA, R&D, and plant teams keep everyone pulling in the same direction. Transparency with clients, willingness to send detailed technical reports, and direct access to our production floor set us apart from market packagers who only pass along material.
We know our clients—flavor houses, beverage companies, and fragrance formulators—have an eye not just on today’s order, but on the reliability of future supply. Our relationships with academia and independent analysts feed back new green chemistry options and process improvements. We invite third-party audits and encourage client visits to our facility. The goal is shared confidence in both short-term quality and long-term responsibility.
Initiatives like closed-loop solvent recovery, lower-emission heating systems, and use of recycled drums began as pilot projects after staff site visits to eco-oriented suppliers. Over time, these have now become standard operations. Our ongoing investment in process safety and reliability not only supports consistent output, but reassures partners that their supply comes from hands-on, socially-responsible manufacturers—not a faceless contract packager or broker.
Some of the best process innovations come not from the R&D bench, but from front-line staff. During a routine plant walk, one operator noted a recurring pressure drop in a purification train that suggested minor leaks. A quick maintenance-led fix boosted yield and slashed vent loss. Another day, a junior chemist suggested a tweak to the storage protocols based on a near-miss odor complaint; now, every outgoing drum gets a secondary containment rating and a drop-in freshness tag.
People throughout the organization contribute—in maintenance, packing, QA, and admin. Everyone sees firsthand the impact of a reliable supply chain. We foster a culture where staff can voice improvement ideas without running them through endless layers of review. Quality and safety reflect daily decisions made by people invested in getting the details right—batch after batch, year after year.
Decades of direct experience producing (E)-3,7-dimethylocta-2,6-diene-1-thiol taught us a fundamental truth: real world quality and traceability matter. Industrial users need reliable supply, product integrity, fast support, and open lines of communication. Our facility’s systems, people, and methods reflect that reality. The close relationships we build—with clients and among our own team—let us respond quickly to new requirements and ongoing feedback. Every drum of this material carries the effort, knowledge, and commitment of people who treat manufacturing as both a craft and a science.