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HS Code |
617369 |
| Product Name | (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate |
| Molecular Formula | C14H11NOS |
| Molecular Weight | 241.31 g/mol |
| Cas Number | 60718-87-0 |
| Appearance | Solid (typically crystalline or powder) |
| Color | Pale yellow to off-white |
| Melting Point | 69-73°C |
| Solubility | Soluble in organic solvents such as dichloromethane and chloroform |
| Purity | Typically ≥ 95% |
| Storage Temperature | Store at 2-8°C (refrigerated) |
| Smiles | COC1=C(C=C(C=C1)C2=CC=CC=C2)N=C=S |
| Inchi | InChI=1S/C14H11NOS/c1-16-14-9-8-13(11-15-10-17)12(7-9)6-5-3-2-4-10 |
As an accredited (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 5 grams, labeled as (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate, includes hazard and handling information. |
| Shipping | The chemical **(2-Methoxy-5-phenyl)phenyl isothiocyanate** must be shipped in tightly sealed containers, protected from light and moisture. It should be handled as a hazardous material and transported according to local, national, or international regulations for chemicals, including proper labeling and documentation. Use appropriate protective packaging to avoid leaks or spills. |
| Storage | Store **(2-Methoxy-5-Phenyl)Phenyl Isothiocyanate** in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and sources of ignition. Keep the container tightly closed and protect from moisture. Store separately from incompatible materials such as strong acids, bases, and oxidizers. Use a chemical storage cabinet, ideally under an inert atmosphere, if prolonged storage or high purity is required. |
Applications of (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate in Industrial Manufacturing(2-Methoxy-5-Phenyl)Phenyl Isothiocyanate provides valuable reactivity as an isothiocyanate intermediate in several high-value industrial sectors. Below, we outline major downstream application scenarios that leverage its chemical properties in advanced synthesis, detailing regulatory compliance, blending ratios, process integration, and final product outputs specific to each field. 1. Advanced Pharmaceutical Intermediate SynthesisThis compound serves as a key building block for synthesizing novel heterocyclic drug intermediates, especially those targeting anti-cancer and anti-inflammatory indications. Medicinal chemistry teams incorporate it into multi-step batch synthesis to introduce functionalized aromatic isothiocyanate groups, enabling targeted structure-activity modifications. Regulatory requirements drive strict impurity control, and the material’s input ratio depends on stoichiometric relationships within key coupling reactions using palladium catalysts. Product qualification hinges on analytical QC confirming residual isothiocyanate limits according to pharmacopeial thresholds. Industry compliance standards
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2. Specialty Agrochemical Intermediate ProductionAgrichemical manufacturers utilize this compound for synthesizing isothiocyanate-substituted fine chemicals used as intermediates in crop protection formulations, such as pre-emergent herbicides and insecticidal agents. Batch charging occurs under controlled containment using stainless steel reactors, with real-time monitoring for unreacted isothiocyanate. The dosage is calculated based on specific aromatic substitution requirements in downstream urea or thiourea formation steps. Production follows ISO and environmental guidelines to ensure safety and traceability. Industry compliance standards
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3. Organic Electronic Materials and Liquid Crystal PrecursorsMaterial scientists deploy this raw material in synthesizing isothiocyanate-functionalized aromatic monomers for incorporation into advanced liquid crystal (LC) substances and conductive polymers. The compound’s electron-withdrawing capacity aids in achieving precise alignment and thermal properties in LC mixtures. Process engineers dose the ingredient after meta-substitution steps in high-purity grade solvents, actively monitoring its presence using UV-Vis and FTIR. Strict material handling and trace metal analysis accompany blending to conform to electronic-grade purity standards. Industry compliance standards
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4. Fine Fragrance and Aroma Compound Synthesis for Specialty ChemicalsManufacturers of high-purity aroma chemicals employ this material in the synthesis of complex aromatic isothiocyanate derivatives for use in perfumery and specialty flavor applications. The ingredient’s reactivity enables the formation of advanced sulfur-containing aroma notes through controlled isothiocyanation of natural or synthetic phenolic cores. Output purity aligns with IFRA and EU flavor guidelines, while the specific charge ratio ensures controlled release of the signature aroma compound during downstream distillation or chromatographic purification. Industry compliance standards
Typical usage ratio
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In today’s landscape of organic chemistry, stepping into the market with a specialty isothiocyanate means offering more than a chemical; it means providing a tool that answers to the demands of synthesis and industrial innovation. From our facility, we create (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate with a focus on purity, consistency, and practical performance because these aspects shape the real outcomes in research and production. For years, our manufacturing team has handled aromatic isothiocyanates, seeing the direct correlation between controlled synthesis and results that help projects move from bench to process scale.
Every batch begins with a controlled and consistent approach. We start by securing highly pure precursors. Our chemists closely monitor reaction conditions—temperature ramping, mixing speeds, timing—since the margin for error with aromatic isothiocyanates is slim. (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate, with its molecular structure, offers distinct chemical stability while retaining the keen reactivity characteristic of the isothiocyanate group. The methoxy group provides electron-donating influence, impacting the reactivity of the adjacent isothiocyanate, but also subtle solubility differences that become obvious during formulation workups. By choosing a synthetic route proven over repeated cycles, we avoid impurity carryover and batch variegation, reflecting our insistence on repeatable outcomes. We have committed to this path because inconsistent product quality shows up fast in both small molecule research and scaled chemistry.
On paper, isothiocyanates might look interchangeable. In the lab, we’ve learned that their subtle differences drastically affect their suitability for specific applications. (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate stands out for those requiring a balance of reactivity and controlled substitution effects. In practical terms, the dual phenyl structure with a strategically placed methoxy group pushes this molecule beyond standard phenyl isothiocyanates. Once, in a customer’s medicinal chemistry workflow, our batch’s solution behavior sped up their purification, which ended a week ahead of schedule. Experiences like these remind us why keeping a close eye on purity and structure matters.
Our specification sheet emerges from actual laboratory requirements. We have worked closely with synthesis chemists and process engineers, incorporating direct feedback. For (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate, our aim is high assay (above 98%), low volatility profiles, and freedom from common isomeric contaminants. Shelf stability and safe packaging follow, with glass containers sealed under inert conditions, reflecting lessons from customers about degradation during transit. Moisture plays havoc with reactivity, so our filling system minimizes exposure to air and humidity, cutting down chances for unwanted hydrolysis.
Crystallinity and particle size also matter depending on downstream use. For some targets, a fine powder dissolves faster and more predictably; for others, crystalline form ensures easier handling. We have adjusted our milling and drying protocols through input from formulation chemists who reported practical mixing difficulties with other suppliers’ materials. As a manufacturer, adjusting a dryer or crystallizer is a matter of course—not an afterthought. Our best feedback comes from the days a customer calls just to order more, not with another question.
Isothiocyanate synthesis often draws from old school reagents and methods, but mass producing something like (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate means checking every variable along the way. We’ve run trials with different thiophosgene alternatives and worked to eliminate possible side chain chlorination. The challenge always follows scale: what looks easy on a 200 mL flask can spell disaster at 10 liters. More than once, a reaction exotherm almost ran away before we overhauled our temperature feedback controls. Every kilogram at our facility tells the story of the time spent refining and tweaking—the odor of isothiocyanates alone sticks with you for days, and only rigorous ventilation and care keeps operations safe for our workers.
Talking with formulation scientists and R&D teams reveals the breadth of this molecule’s uses. (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate finds itself at home in the hands of medicinal chemists who push for new biologically active scaffolds. Its electronic profile enables selectivity for certain nucleophilic partners, especially in the synthesis of thiourea and dithiocarbamate derivatives. In agrochemical R&D, where field trials rest on the reliability of intermediate compounds, small changes in substitution can tip the scales between a hold and a green light for scale-up. Our product helps fill the gap where standard phenyl isothiocyanates fall short: tuning solubility, reactivity, or downstream handling.
One project stands out in our memory — a novel heterocycle synthesis, where the methoxy group acted as a key electronic modulator, allowing for controlled selectivity at a stage where competing pathways had frustrated the chemist for months. Our batch consistency pulled the project back on track. As a manufacturer, we watch for these success stories and use them to improve batch records, sourcing, and process control. These insights translate to practical advice we share with new customers during technical consultations.
We do not treat feedback as a formality. Walking through our plant, one might see the lab notebooks annotated with test results from collaborators and purchasing agents. Our production protocols improve because someone bothered to call and mention a filtration problem, sticky residue, or unexpected impurity. (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate’s shelf stability stands strong because we have invested time and resources into refining our purification and drying. Large-scale clients prefer our material because their technicians report fewer late-night troubleshooting calls. That tells us we are not just selling a chemical; we are helping complete their chain of innovation.
We have produced a wide range of isothiocyanates, and each one brings a different profile to reactions. Unlike simple phenyl isothiocyanate, our product’s methoxy substitution pushes reactivity in specific directions, granting access to previously blocked synthetic routes. The extra phenyl group further modifies steric and electronic properties. Some customers try to economize by switching to standard derivatives, only to find yields dropping or work-ups becoming tangled. In scale-up operations, every minute counts, and reliable reactivity means less waste. We always urge our partners to sample and test – as it is the fine details in substituent placement and purity that separate a mediocre run from a successful campaign.
Too many labs struggle due to unreliable sourcing or inconsistent batches. From our vantage point, sustaining quality on kilogram scales means relentless attention to supply chain, storage, and equipment calibration. We do not outsource our core steps. Batch records remain transparent, with each container traceable through a digital log documenting synthesis start, QC checkpoint results, and packaging times. For (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate, setting up campaigns means re-validating raw materials and running small test batches before committing to full-scale production. This approach costs more time upfront but saves on ruined product and disappointed customers later on.
Aromatics like (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate require careful handling. Our production team operates under strict ventilation setups, and packaging happens under inert gas. Early on, we dealt with packaging that allowed ingress of moisture; it only took one compromised batch to revamp our entire approach. Today, our containers undergo double sealing and continuous quality checks—not just for paperwork but because chemical changes from mishandling show up rapidly in the field. We discuss these realities openly with buyers. It is not about impressing with compliance but providing the best chance for their experiments to proceed without surprises.
The industry faces increasing pressure to manage waste streams and emissions. We remember the years when disposal meant simply diluting reactive wastes. Those days are behind us. Our facility now incorporates multiple containment and neutralization stages, driven by both regulation and our own experience. Diligence pays dividends, and buyers increasingly cite responsible manufacturing when choosing suppliers. (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate’s byproducts demand careful tracking. Our continuous process development includes finding less hazardous alternatives and minimizing byproduct formation. These steps feed back into safer downstream use for our partners and protect our workers’ health.
Some companies treat chemical products as simple commodities. Our experience suggests a different path. Once a formulation scientist reported an in-process impurity spike while testing a new solvent mix. Our technical staff traced the cause to a batch of old packaging that hadn’t met our latest moisture standards. We expedited the investigation and adjusted our storage immediately. Such encounters reinforce the idea that ongoing support matters more than a single transaction. We make a point of establishing open lines between our chemists and users, providing insight into reaction scaling, purification troubleshooting, and safe disposal. Customers know our product’s backstory is just as important as its appearance in their order.
Traceability isn’t just a buzzword. Each container of (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate carries a unique lot number. That number ties back to raw material logs, QC checkpoints, and packaging times. We keep this data because the cost of losing track is too high. In regulated environments, the assurance that every gram came from a fully documented supply chain means less risk of batch recalls or regulatory headaches—our own near-miss with an improperly documented precursor reminded us of this reality. Detailed record-keeping becomes an insurance policy for our customers’ projects and our own operations.
We see a steady stream of inquiries from teams who have grown frustrated with commodity suppliers. Promises of low prices and adequate specifications fade quickly when faced with production halts or unexplained results. By controlling our synthesis from raw material to finished product, we stand behind our batches both with technical data and lived experience from troubleshooting cycles. Price matters; consistency and back-end support matter more. For many clients, the higher up-front investment pays off in fewer project delays and more predictable final outcomes.
Satisfying evolving regulatory standards demands more than compliance checklists. We maintain open communication with industry groups and standard-setting organizations so our documentation and practices stay updated. Batch-to-batch reproducibility sits atop our priorities, and passing inspections forms only part of the story. We take the extra step with in-house stability studies, regular third-party analysis, and transparent data sharing. (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate benefits from this mindset—customers tell us consistent documentation and a direct line to our technical staff help them clear their own regulatory hurdles with less stress.
Markets shift, and new applications arise. We continuously reassess our product lineup and protocols. Our research group explores eco-friendlier solvents and milder reaction conditions, seeking safer and more sustainable ways to bring (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate to market. As customers apply this molecule to new areas—advanced materials, tailored pharmaceuticals, smart agrochemicals—we adapt our internal systems to anticipate new technical and regulatory requirements. Feedback loops from these projects directly improve our plant protocols and staff training.
Every shipment from our plant reflects our conviction that (2-Methoxy-5-Phenyl)Phenyl Isothiocyanate deserves careful preparation and honest communication. Our team’s experience makes it clear—chemistry is full of surprises, but with disciplined manufacturing, detailed feedback, and mutual trust, product performance can meet real-world expectations. Choosing a reliable manufacturer does more than ensure a product passes a specification checklist; it forms the backbone for scientific and industrial progress in fields relying on advanced intermediates. We remain committed to pushing quality standards higher and letting our work in the lab speak for itself.