|
HS Code |
413512 |
| Name | 2-Nitroiodobenzene |
| Chemical Formula | C6H4INO2 |
| Cas Number | 609-72-3 |
| Appearance | Yellow crystalline solid |
| Melting Point | 81-83°C |
| Boiling Point | 338°C |
| Density | 2.09 g/cm3 |
| Solubility In Water | Slightly soluble |
| Synonyms | o-Nitroiodobenzene |
| Smiles | c1cc(c(cc1)[N+](=O)[O-])I |
| Inchi | InChI=1S/C6H4INO2/c7-5-3-1-2-4-6(5)8(9)10/h1-4H |
As an accredited 2-Nitroiodobenzene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 2-Nitroiodobenzene is supplied in a 25-gram amber glass bottle with a secure screw cap to ensure light protection. |
| Shipping | 2-Nitroiodobenzene is shipped in tightly sealed containers under cool, dry conditions, away from heat, sparks, and incompatible substances. Classified as hazardous, it must comply with relevant transport regulations, including proper labeling and documentation for safe handling during transit. Personal protective equipment should be used when handling the chemical. |
| Storage | 2-Nitroiodobenzene should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Keep the container tightly closed and compatible with organic chemicals. Store away from strong reducing agents, bases, and combustible materials. Use corrosion-resistant shelving and secondary containment to prevent spills and leaks, and label containers clearly. |
Applications of 2-Nitroiodobenzene in Industrial ManufacturingOur facility produces high-purity 2-Nitroiodobenzene to serve specialized needs in downstream industrial production. This material finds core use in multiple precision chemical sectors, where its unique reactivity supports the synthesis of complex molecules in regulated environments. Explore each industrial application scenario below for detailed integration information and regulatory considerations. 1. Pharmaceutical Intermediate for Active Pharmaceutical Ingredient (API) Synthesis2-Nitroiodobenzene is routinely used as a building block in the multi-step synthesis of advanced heterocyclic and aromatic compounds required for API manufacturing. Its role as an arylation reagent in cross-coupling reactions enables the creation of targeted molecular scaffolds under GMP-controlled conditions. Pharmaceutical manufacturers leverage this material in Suzuki, Heck, and Buchwald-Hartwig type couplings during the critical stages of small-molecule drug development pipelines, with batch records controlling traceability and conversion rates to meet global drug quality standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Fine Chemical Synthesis in Agrochemical DevelopmentAgrochemical manufacturers apply 2-Nitroiodobenzene in the development of active ingredients for modern crop protection. This compound provides a reactive moiety for the selective synthesis of phenylamine- or aniline-derivative pesticides. By introducing the nitroiodoaryl unit during intermediate building block coupling, downstream producers can optimize reactivity for post-functionalization or reduction steps, critical for large-scale herbicide and fungicide formulation while maintaining batch reproducibility. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Advanced Materials and Organic Electronic Precursor ManufacturingManufacturers in the organic electronics and specialty materials space utilize 2-Nitroiodobenzene for constructing π-conjugated systems and polyaromatic precursors. This compound proves essential in synthesizing functionalized aryl units that serve as monomers or dopant precursors in organic semiconductor devices, including OLEDs and OTFTs. Precision in raw material quality and integration is critical, as trace impurities can impact downstream layer uniformity and electronic property consistency. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Laboratory and Industrial-Scale Synthesis of Aromatic Amines and DyesChemical producers and dye intermediate manufacturers rely on 2-Nitroiodobenzene for synthesizing specialized aromatic amines and nitroaniline derivatives. By reducing the nitro group post-coupling or under catalytic hydrogenation, downstream operators generate amine intermediates suitable for highly selective dye, pigment, and ink formulations. These reactions require careful control over conversion rates and trace metal content to satisfy both performance and environmental regulatory criteria in pigment applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 2-Nitroiodobenzene prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
In the day-to-day business of chemical manufacturing, attention to every detail sets the tone for quality and reliability. With decades behind our operation lines, the development and consistent refinement of 2-nitroiodobenzene has given us a chance to see the nuances of aromatic iodides in action. Every batch that leaves our facility reflects knowledge earned at each stage — from air-free crystallization to tailored packaging suited for safe transit worldwide. Any seasoned plant manager can tell you, reproducibility is everything. Consistency in melting point, absence of colored impurities, solid handling properties in storage and transit, and a keen eye for batch trends make all the difference between routine performance and admired reliability.
We set out to refine our process not only through chemical expertise, but by listening to the real feedback our clients share after repeated use of the compound. Researchers and process chemists who rely on 2-nitroiodobenzene for sensitive coupling or substitution steps, or as a building block for more complex organoiodine reagents, expect results that allow their process to run without breaks. Most feedback revolves around the need for low moisture content and homogenous crystal size; both are areas where tight process control and disciplined quality analysis make a tangible impact. Based on this, our purification approach emphasizes granule uniformity, batch control, and clear labeling of each lot’s analytical results.
Our direct customers include pharmaceutical research groups, active pharmaceutical ingredient manufacturers, and academic chemists advancing the field of halogenated compound transformations. At the molecular level, 2-nitroiodobenzene offers unique reactivity due to the combination of an electron-withdrawing nitro group and the heavy iodine atom on the same aromatic ring. This blend of electron demand and halide reactivity empowers cross-coupling and nucleophilic aromatic substitution that simply wouldn’t proceed with lighter halides or unsubstituted aromatics.
Of the many uses for 2-nitroiodobenzene, we see repeated demand in copper/catalyst-free coupling, microwave-assisted transformations, and in the synthesis of ligands or intermediates for pharmaceutical actives. On our end, supply chain stability matters too—iodine is not just another commodity. Secure sourcing, with a strong in-house oxidation stage for producing the aryl iodide, gives us stability in price and consistent product delivery, even through market swings.
Many of our long-term research clients use 2-nitroiodobenzene as a core compound for C–N, C–C, and C–O bond formations. The electron-withdrawing nitro group enhances the leaving ability of the iodine, leading to higher yields and cleaner reaction profiles. The nitro group at the ortho position also facilitates complex cyclizations and rearrangements explored in academic and industrial research pipelines. Once familiar with the reactivity pattern of this compound, project teams begin to rely on its consistent behavior — any drop in purity or unpredictable performance can derail days of labor. That’s why the assurance of a stable, high-grade supply matters so much in our work.
Most customers measure us by the accuracy of the analytical sheet we provide. For 2-nitroiodobenzene, we adhere to high standards by regularly testing each lot using HPLC, NMR, and FTIR techniques. Over the years, we noticed that even minor residues of starting aniline or halogenated byproducts lead to downstream issues, such as catalyst deactivation in cross-couplings or unexpected byproducts. We document the melting point, generally between 49°C and 53°C, and ensure that off-color material or uneven particle size never makes it past our final packaging line.
Our experience with shipping and storage led us to prefer tight, amber glass packaging for laboratory-scale orders, while process-scale users rely more on lined metal drums or jugs for robust protection. Everyone dealing with aromatic iodides knows their sensitivity to light and air; we perform in-process storage in a controlled environment to minimize decomposition risk. Any user who’s faced a sudden drop in reactivity, often caused by trace decomposition, will appreciate that level of attention.
Plenty of traders and resellers offer the compound, but few have provenance over every stage of its synthesis and packaging. Our advantage springs not from repackaging but from running the entire process ourselves. We start with high-purity iodobenzene, subject it to carefully metered nitration under chilled conditions, and monitor the process using in-line analytics and timed crystallizations. Many third-party products we encountered on the open market drift in purity due to water retention or incomplete workup. These issues show up as sluggish reactions in customers’ pipelines.
By retaining full responsibility for each kilogram produced, we remove guesswork. Our analytical team is trained to look for stubborn residuals — persistent acids, unreduced nitro groups, or side isomers — which, although minor in quantity, matter a great deal in precise synthetic work. We document and share every chromatography trace and NMR result, because experience taught us that transparency and repeatability form the core of real-world usability. This approach means a buyer using our product sees fewer unexpected peaks on their own analysis, improved shelf life, and an overall boost in reaction yields.
Many end-users in photochemistry and material science value consistent halogenated aromatic building blocks. Our discussions with material scientists confirm that deviations in the nitroiodo content complicate the preparation of targeted polyaromatic frameworks. These high-value applications can’t afford interruption or material inconsistency. We also supply process chemists scaling up potential drug candidates. Failures due to low-quality intermediates echo through weeks of project time, wasted catalyst, and extra purification steps.
One notable trend we observed over the past decade is a sharp rise in demand for specialty halogenated aromatics as starting points for biaryl coupling, especially with increasing interest in palladium and copper-catalyzed cross-coupling reactions. 2-nitroiodobenzene excels here as a reliable aryl donor for Suzuki-Miyaura and Buchwald-Hartwig reactions. Small details — like controlling the isomeric ratio so the ortho-nitro group predominates — save our customers hours of troubleshooting.
Based on direct conversations, medicinal chemists value the way the ortho-nitro and iodo combination allows them to quickly explore SAR arrays for new drug scaffolds. Small impurities or slight changes in physical appearance often point toward deeper synthetic issues. We take pride in feedback that, batch to batch, color, odor, and melting behavior remain constant. Clients who scale from milligrams to multi-kilogram quantities stay with us because they see fewer late-stage surprises.
Anyone who’s spent time managing a production laboratory knows that in-house manufacturing means more than document control — it’s an environment of constant learning and daily problem solving. Tight integration between synthesis, purification, and packaging teams creates an ongoing feedback loop. Chemists and operators notice trends: the effect of cooling profiles on crystal purity, the impact of trace acid on shelf stability, the nuances of final drying. Shipping to research groups across continents produces its own lessons in climate, transport time, and packaging strength.
Because we manage the full process, we can act quickly to adjust for client needs — for instance, changing crystal size or desiccant amount in response to customer feedback. Over time, this relationship with clients means we spot shifting industry requirements and innovate accordingly. Our experience taught us that control over every step of the process is the key to removing uncertainty in intricate research or regulated manufacturing flows.
We also make and supply a variety of substituted iodobenzenes, so firsthand comparison is part of our toolkit. Each aryl iodide variant — from the para- or meta- nitro forms to chloro- or bromo-substituted examples — brings a slightly different reactivity profile. The ortho orientation of the nitro group in 2-nitroiodobenzene sharply influences reactivity and the nature of substitution. While para-iodonitrobenzenes see occasional use, the ortho isomer stands out for cyclization and specialized cross-coupling steps, where neighboring group effects enable distinct selectivity or activation. We work with academic partners to map out these differences; collaborative trials often establish best-fit materials for reaction optimizations.
Anyone drawing from multiple batches over a span of months knows the value of a material that “just works” every time. Our process chemists often report that switching to a competitor’s batch, especially one relabeled by brokers, leads to reaction gaps — slow starts, altered conversion rates, or need for extra purification cycles. It takes an operator’s eye to catch the faint yellow undertones signaling a side-reaction, or the subtle stickiness that predictably crops up after too many open-air transfers. Owning production from start to finish gives our users confidence that each drum or bottle will deliver the result they need, without tracking down confounding variables.
The needs of modern research and innovation keep evolving. We spend time each year talking with R&D leaders, supporting pilot plant chemists, and troubleshooting with quality assurance specialists in regulated industries. Tight timetables and stricter impurity thresholds make process reliability more important than ever. Instead of expecting clients to adapt to the quirks of raw materials, we make continual adjustments in our own plant. This includes improving drying equipment, refining our filtration sequences, and automating analytical checkpoints.
Because we have a steady stream of direct feedback, we don’t rest on legacy documentation or hope old ways hold up. Many “out-of-spec” cases arise from subtle changes in chemistry: a shift in shelf conditions, a new impurity profile from an upstream supplier, unexpected solubility trends in the latest solvent blend. We work closely with our raw material sources and invest in robust chemical monitoring, including impurity fingerprinting. No process is perfect, but firsthand vigilance solves problems before they enter a client’s reactor.
Years in the field taught us that documented specifications only get you so far. Handling errors, hasty repackaging by third parties, or inconsistent documentation creates real risk for end users. We field calls and emails week after week on issues ranging from unexpected byproducts to long-standing storage concerns, and we feed that insight back into every process meeting. Consistent granule size, traceable lot numbers, and reliable shipping protocols are all outcomes of this loop.
On more than one occasion, production plant partners traced a yield loss or process anomaly to small details in the aryl iodide input. Both the nitro and iodo substituents are reactive motifs, and careless handling — even on the short trip from drum to flask — can promote “invisible” decomposition or hydrolysis. Rather than relying on off-the-shelf packaging, we developed our own approach to sealing, desiccation, and light screening. Engineered packaging and rapid transit time help preserve purity from plant to laboratory bench.
By manufacturing 2-nitroiodobenzene ourselves, we gain a deeper view of trends and needs. Each production campaign uncovers ways to strengthen quality: sharper process analytics, regular calibration of equipment, and clear communication with logistics teams. We see demand increasing for larger-scale production, multi-purpose pack sizes, and even pre-weighed sub-units to streamline lab workflows.
As environmental and regulatory standards evolve, so does our production. We re-examine solvent use, minimize waste, and install recovery systems to capture value throughout the process. Efforts to reduce the environmental impact of iodide chemistry aren’t theoretical for us; every opportunity to recover solvents or recycle processing water moves us toward practical sustainability.
In reflecting on years of practice, one thing stands out: close contact between manufacturing and direct users drives both reliability and innovation. 2-nitroiodobenzene isn’t just a catalog item — it’s a linchpin for dozens of specialized chemical processes. Only through direct oversight, honest feedback, and continuous process learning do we provide customers with the certainty they demand. This commitment supports smoother research cycles, successful scale-up, and robust manufacturing for the next generation of fine chemicals.