|
HS Code |
894190 |
| Chemical Name | 2,4-Dicyanophenol |
| Molecular Formula | C8H4N2O |
| Molecular Weight | 144.13 g/mol |
| Cas Number | 610-84-6 |
| Appearance | Off-white to light yellow crystalline solid |
| Melting Point | 200-203 °C |
| Boiling Point | Decomposes before boiling |
| Solubility In Water | Slightly soluble |
| Density | 1.37 g/cm3 (estimated) |
| Smiles | C1=CC(=C(C=C1C#N)O)C#N |
| Inchi | InChI=1S/C8H4N2O/c9-5-1-2-7(11)6(3-5)4-8(10)12/h1-3,11H |
| Pka | Approx. 7-9 (Phenolic OH, estimated) |
| Storage Conditions | Store in a cool, dry place; keep container tightly closed |
As an accredited 2,4-Dicyanophenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 2,4-Dicyanophenol is packaged in a 100g amber glass bottle with a secure screw cap and clear hazard labeling. |
| Shipping | 2,4-Dicyanophenol is shipped in tightly sealed containers, protected from moisture, heat, and incompatible substances. Packaging complies with local and international regulations for hazardous chemicals. During transit, it is clearly labeled and accompanied by a safety data sheet. Handle with proper protective equipment and store in a cool, well-ventilated area. |
| Storage | 2,4-Dicyanophenol should be stored in a cool, dry, well-ventilated area, away from heat, direct sunlight, and incompatible substances such as strong oxidizers or acids. Keep the container tightly closed when not in use. Use appropriate, chemically resistant containers and label them clearly. Store at room temperature and avoid moisture exposure to prevent decomposition or hazardous reactions. |
Competitive 2,4-Dicyanophenol prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615380400285
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Every batch of 2,4-Dicyanophenol starts with a keen focus on purity. From upstream raw material screening to closely monitored crystallization steps, every detail influences how the final product responds during downstream reactions. Years on the production floor taught us that consistency ties directly to hands-on supervision and diligent procedural control. We long ago moved beyond treating this compound as just another specialty chemical. By investing in modern reactor systems and refining our purification columns, our factory set a new bar for batch reproducibility and color quality.
Our standard model delivers 2,4-Dicyanophenol with minimal ash, low moisture, and uniform particle size. Typical purity by HPLC reaches 99% or above, based on rigorous in-house benchmarking. This tight specification supports high-yield downstream coupling without fouling equipment or introducing reaction by-products. Bulk density measurements run within a narrow band; dusting levels stay low if customers handle it according to typical good practices. We monitor trace impurities with every lot, and regularly run head-to-head comparisons with archived samples to track quality trends.
Customers often seek material for use in pharmaceutical intermediates, specialty resin formulations, or specific dye production lines. Each market brings unique requirements; our colleagues on the floor developed tweaks that let us adapt the process for different orders. Trace metal levels stay in check thanks to purified reagents, oxygen exclusion during key steps, and regular inspection of reactor surfaces for potential contamination points. Every lot gets a full release check with signed approval before shipment.
We have watched various industries fine-tune methods to take advantage of what 2,4-Dicyanophenol brings to their chemistry. In certain resin systems, it serves as a building block, imparting thermal and oxidative stability not always delivered by conventional phenolic compounds. Dye and pigment manufacturers value the controlled reactivity, which opens consistent routes to specialty colorants for plastics and coatings. Pharmaceutical customers use it at the borylation or condensation stage, appreciating how the low impurity content allows for robust scale-up and minimizes troublesome side reactions.
From our own troubleshooting archives, we recall cases where switching suppliers triggered process drift. Often, it hasn’t been a difference in nominal purity, but instead subtle shifts in minor contaminants or crystal habit that drive up filtration times or clog nozzles further along the line. We designed our finishing steps to avoid such headaches—clear filtration results, rapid dissolution, and compatibility with a range of solvents. Any skepticism gets addressed by batch-to-batch performance tracking, not just specification sheets.
After years spent observing and resolving real-world plant issues, our team sees the unique advantages tied to stable, repeatable quality from the source. Compared to off-the-shelf imports managed outside the actual manufacturing facility, our material undergoes fewer unnecessary handoffs. Direct process control lets us act quickly if particle size starts trending outside the optimal window or color shifts in the wrong direction. By running full analytical panels on-site and matching results to tight internal guidelines, we have an early warning for process drift—something much harder to enforce with contract-packed goods moving through multiple warehouses.
Many competitors offer basic technical compliance; we see the benefit in hands-on curation, especially when downstream pharmacopoeial standards or sensitive polymerizations demand more. Our ongoing feedback loop, where customer reports lead directly into operational adjustments, drives a pragmatic approach to quality. Trial shipments over the years regularly identified those stubborn recurring issues that bring production lines to a halt—out-of-range melting points, poor dispersion, or contamination from packing failures. Each lesson refined our workflow, from raw materials right through to final drum sealing.
Traceability matters most when it comes time to resolve unforeseen quality challenges. By manufacturing in-house, we keep a complete digital record for every batch, linking raw material data, operator logs, analytical reports, and final product release. Any deviation gets immediate investigation, drawing on real experience and firsthand knowledge, without waiting for third-party middlemen to respond. When faced with quality concerns, our team reviews every production milestone, not just analytical summaries. We reject material not on paper but against the lived experience of demanding application trials.
Accurate filling, airtight sealing, and proper labeling remain a given, but those factors alone don’t promise product longevity once 2,4-Dicyanophenol leaves the warehouse. From years supporting logistics, we saw firsthand how minor slips—damaged liners, ill-fitted caps—translate into clumping or dust loss. Our packaging lines went through reviews to add secondary seals and moisture barriers, and our long-term supply contracts include site visits with customers. These steps go a long way in keeping our material free from hydration or air contact.
We advise partners on storage based on years watching product behavior in hot, humid environments. Our own studies tracked how temperature spikes and uncontrolled warehouse humidity shorten shelf life and impact solubility. Routine in-house stability checks keep us grounded in what happens to drums over months and years. When storage life ranks high on your priorities, samples from earlier production are always available for customer validation and comparison.
Some buyers reach for alternative dicyano derivatives with different substitution patterns or for phenolic intermediates designed for lower-cost, high-throughput platforms. Not every process can tolerate materials with variable free phenol content, or with inconsistent solubility. We found that 2,4-Dicyanophenol stands apart for situations requiring strong reactivity paired with cleaner downstream separation. Competing products sometimes claim similar nominal performance, but repeated use in demanding lines—like catalyst-laden synthesis or exacting colorant pathways—quickly exposes where material selection makes or breaks the run.
Our technical staff frequently field questions on particle size, color indexes, and impurity signatures relative to other brands. We rely on actual application data drawn from the floor, not just theoretical targets. Customers routinely share output yields, filter load histories, and waste factors resulting from the switch to our material. These real comparisons drive our ongoing improvement cycle.
As regulations tighten on residual contaminants in final products, demand only rises for building blocks as clean as practical. Over the past decade, downstream sectors ranging from fine chemicals to electronics asked for tighter impurity controls—metals in particular. Batch traceability and full transparency now carry as much weight as purity specs. Our response: updated analytics, expanded raw material audits, and a data history available for regular customer review. We see this shift as an opportunity to keep leading rather than scrambling to catch up.
We also see increasing demand for smaller custom lots and specialized packaging, driven by development labs building out pilot lines or tackling new synthetic targets. Instead of batch splitting and relabeling, we produce to order for these clients, pulling from single-batch output backed by a single traceability chain. These changes add complexity to our process but support the partnerships that drive product innovation.
Decades running actual production lines shaped our support culture. Our technical team consults on filtration rates and solid handling advice, based on what they themselves have struggled through day to day. We review analytical results side by side with customers, learning where our product meets or falls short as usage or target specs evolve. Production site visits and troubleshooting walk-throughs give us a firsthand look at challenges unique to each application—including equipment fouling, inconsistent particle dissolution, or reaction off-spec triggers.
When customers need to meet new certification levels, we assist in validation planning, historical data pulls, and customized analytical checkpoints. Working as partners in the field, not just as distant suppliers, defines how we resolve questions about scale-up, new regulatory targets, or unexpected process drift.
Evolving environmental and occupational health policies shaped our manufacturing philosophy. Tight closed-loop processes minimize losses and reduce fugitive emissions. Regular plant audits, comprehensive air monitoring, and adoption of automation for critical steps keep our staff and the surroundings safer. High-grade ventilation and filtration prevent dust and vapor build-up, safeguarding the worksite and maintaining product quality.
Each waste stream flows through a documented route to ensure proper treatment and offsite handling; strict separation of cleaning fluids and product streams eliminates cross-contamination risk. Staff receive continuous training on hazardous material protocols, drawn from both best practices and practical incident review. These measures don’t just satisfy compliance—they improve process consistency and long-term reliability for customers down the chain.
Chemical manufacturing demands resilience, not just quality. We manage internal inventories with demand forecasting anchored in real customer usage, buffering for unexpected spikes or raw material delays. Cross-training within our shift teams means we rarely face production halts for non-critical disruptions. Our service model stays responsive because we speak daily with the people making, packing, and shipping the product.
We look for improvement ideas from every part of our operation—routine audits, customer debriefs, failed batch analyses, and supplier reviews. Every cycle of learning, from vacuum pump hiccups to late-night troubleshooting, deepens our capability. Continuity of knowledge proves vital; long-tenured staff serve as mentors, transferring technical skill and critical judgment to newer hands. These intangibles anchor our long-term relationships with both long-time partners and first-time buyers.
Advances in fine chemicals keep pushing manufacturers toward more demanding quality benchmarks. We regularly invest in pilot-scale trials for process tweaks, solvent swaps, and impurity reduction. Collaboration with university and industry partners brings fresh thinking to old problems—particle size uniformity, faster crystallization, energy recovery, and even new applications where 2,4-Dicyanophenol might offer value.
Rather than racing to match commodity price points, our approach focuses on improving total customer value. This involves ongoing technical support, custom packaging, and continuous post-market surveillance. Regular feedback loops between our production floor and your R&D bench ensure we can evolve together as application needs change.
Over the years, there’s no substitute for hearing from the chemists and engineers who use our products daily. The questions and challenges drive us to make each batch better than the last. Anyone can ship a drum, but delivering material that performs every time in demanding conditions is a different challenge entirely. Quality is a process, not an endpoint, and we welcome the opportunity to prove it—batch after batch, shipment after shipment.
If your requirements require tighter tolerance, traceability, or adaptation for critical process steps, direct dialogue with the manufacturer—instead of layers of intermediaries—always brings issues to light sooner. We see our work as an ongoing partnership, built on years of mutual adjustment and grounded in direct feedback from real use cases. Our 2,4-Dicyanophenol reflects that commitment.