|
HS Code |
906565 |
| Name | 4'-Isopropylacetophenone |
| Cas Number | 140-53-4 |
| Molecular Formula | C11H14O |
| Molecular Weight | 162.23 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 253-255 °C |
| Melting Point | 13-15 °C |
| Density | 1.004 g/cm³ |
| Refractive Index | 1.505 |
| Flash Point | 104 °C |
| Solubility In Water | Insoluble |
| Smiles | CC(C)C1=CC=C(C=C1)C(=O)C |
| Pubchem Cid | 11162 |
As an accredited 4'-Isopropylacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of 4'-Isopropylacetophenone is supplied in a sealed amber glass bottle, labeled with chemical details, hazard symbols, and batch number. |
| Shipping | **Shipping Description for 4'-Isopropylacetophenone:** 4'-Isopropylacetophenone is shipped in tightly sealed containers, protected from light, moisture, and ignition sources. It is handled as a non-hazardous chemical under normal conditions but should be stored upright at room temperature. Packaging complies with regulatory standards to prevent leaks and ensure safe transportation. |
| Storage | 4'-Isopropylacetophenone should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Keep the chemical away from incompatible substances such as strong oxidizers. Ensure proper labeling and avoid exposure to moisture. Store at room temperature and handle with suitable personal protective equipment to prevent contamination and accidents. |
Applications of 4'-Isopropylacetophenone in Industrial Manufacturing4'-Isopropylacetophenone serves as a valuable intermediate across several downstream sectors. Our production process ensures high purity and batch consistency, meeting the demanding requirements of each industrial application outlined below. 1. Synthesis of Pharmaceutical IntermediatesPharmaceutical manufacturers incorporate 4'-Isopropylacetophenone as a scaffold in the synthesis of antihistamines, analgesics, and specific APIs, notably where an isopropyl-substituted aromatic structure supports bioactivity enhancement or metabolic resistance. The intermediate enters multi-step reaction cascades, often via Friedel-Crafts acylation or reductive amination, before final coupling and purification. Adherence to validated protocols ensures consistent impurity profiles for downstream API development. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Fragrance and Aroma Chemicals ManufacturingProducers in the fine fragrance and aroma sector employ 4'-Isopropylacetophenone as an aromatic base note ingredient, valued for its stable isopropyl phenyl structure and compatibility with esterification or etherification to form premium perfumery blends. Its scent profile provides warm, slightly spicy undertones with high tenacity. Manufacturers use precision distillation and blending to achieve desired olfactory characteristics in end formulations. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. Industrial Photoinitiator and UV Stabilizer PrecursorsManufacturers of photoinitiators and UV-absorbing materials use 4'-Isopropylacetophenone as a starting material for synthesizing benzoin ethers and alpha-hydroxy ketones. These compounds enable effective cross-linking in UV-cure coatings, adhesives, and inks. Downstream processes include condensation, etherification, and purification steps that must maintain structural integrity and minimize residual contaminants, supporting stringent end-use requirements for coating performance and regulatory safety. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Agrochemical Intermediate ProductionAgrochemical companies select 4'-Isopropylacetophenone as a core intermediate in manufacturing selective herbicides and pesticide actives, particularly for those requiring an acylated aromatic nucleus to increase target affinity and soil resistance. The material enters condensation and chlorination reactions, undergoing strict analytical tracking to confirm absence of agricultural contaminants and support environmental safety during field deployment. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Manufacturing specialty chemicals day in and day out gives us a unique perspective on the true qualities of a compound like 4'-Isopropylacetophenone. Our team works directly with the raw materials, constantly refining processes to reach a consistent grade that matches up with the demands coming in from different sectors. We recognize how each tweak in process settings, quality of raw input, and point of purification can impact the finished product’s value to end-users. Our operation keeps control over every batch, tracking yield and controlling for unwanted by-products. Small improvements, performed at scale, have been the difference between a batch that meets customer expectations and one that sits in the warehouse. This is the level of direct manufacturing experience that separates us from mere resellers or third-party agents who don’t see the inside of a plant.
Chemists recognize 4'-Isopropylacetophenone by its structure: a para-positioned isopropyl group on the phenyl ring of acetophenone. Every drum we fill goes through a clear checklist. We avoid margins that could compromise reactivity for those using the product in subsequent reactions. Our staff follows specifications not just on paper — melting point, GC purity, moisture content, specific gravity, and residual solvents — but in daily bench chemistry and troubleshooting.
Some would mistake it for similar-looking ketones, but longtime chemists pick up on nuances. Small differences in the para positioning of the isopropyl group, versus ortho or meta sites, don’t just matter for catalog numbers. They change the way the molecule interacts in further transformations, how it behaves with Grignard reagents, or how it lends itself to downstream aroma synthesis or pharmaceutical intermediate routes. We’ve handled alternate acetophenones and can tell from distillation profiles and chromatographic fingerprints how even trace impurities will impact next steps.
Manufacturing isn’t just about meeting an order — it’s about making a batch that a customer can rely on consistently. Our experience working with 4'-Isopropylacetophenone production has taught us that stability, color, and odor are noticed much sooner than any data sheet spec. A pale yellow color and low volatility make it simple to use on the bench, but only if you keep thermal paths clean and don’t introduce trace metallics. Every fill-line operator in our facility can relay how a loss of vacuum or small handling error can make a world of difference between a premium technical product and a rebuild job.
We know from hands-on work in the blending room that purity above 99% enhances its performance as an intermediate for synthetic perfumes. Our process doubles down on fractionation and analytical follow-through, especially where end users need trace contaminants kept to a minimum. Routine headspace checks make sure that when you open a drum from us, you don’t get hit with an off-note or evidence of solvent carryover. This is where the real world of manufacturing spills over into customer reality. The person using it cares about more than the numbers — they care about processability and reliability.
This compound found its niche in the fragrance and pharmaceutical industries. Our partners in perfumery care less about the abstract model number and more about aroma and batch consistency. Tiny changes in synthesis process — tighter control on reaction temperature, vigilant anti-contamination routines, avoidance of unfiltered solvent — turn out to have more impact than the broad-sweeping promises in many catalog descriptions. The flavor industry groups often point to ease of handling and the muted odor as key benefits over related acetophenone derivatives.
Pharmaceutical intermediates place a much heavier burden on trace impurities. We’ve worked closely with molecule architects who specify not just isomer ratios but want documentation on byproducts that never make it into the specification sheet. Downstream chemistry, including hydrogenation or selective acylation, tends to stall in the presence of certain impurities, and we get requests for batch histories and impurity profiles before a single liter ships. These are not bureaucratic hurdles. They relate to a smoother scale-up for users and less troubleshooting in their reactors.
Quality isn’t a number on a sign-off sheet. It’s the absence of headaches for people actually using the chemical. In our daily operation, we make it a point to keep records not only of raw data but of feedback from customers and internal process data. Over the years, users have called out haze in cooler months or an unexpected solidification at shipping destinations with fluctuating climates. We tackled those issues by improving drum insulation and reviewing solvent drying steps, not just rewriting specs.
Solvent traces and color differences led us to invest in better distillation trains and deeper analytics. Today, our QA process includes routine off-line analysis of both starting material and finished goods. We appreciate that the consequences of minimal contaminants — sometimes measured only in parts per million — are not theoretical for users in regulated industries. Insights from our operators and QC chemists often make their way into batch process improvements, leading to tighter fractions and increased lot-to-lot uniformity.
Differences between 4'-Isopropylacetophenone and related ketones present themselves in actual applications. The para-isopropyl structure influences physical properties, including odor threshold and compatibility with specific formulation matrices. Our years of comparative synthesis work have shown that meta and ortho isomers show completely different behavior during Friedel–Crafts reactions or in downstream oxidations. The para isomer gives a cleaner profile, which suits compounded fragrance blends or high-purity intermediate synthesis.
Higher purity, along with strict control of isomeric impurities, is why our customers trust this compound for scale-up. Some competing products arrive with visible impurities, off-odors, or unknown residues. We’ve run competitive analysis on third-party samples and found higher residual solvent, along with less precise adherence to the melting range. End-users have pointed out that even slight shifts in melting point or volatility can make a noticeable difference when pushing for consistent performance in large-batch manufacturing.
Our blend team and shipping crew see how minute changes in packaging or shipment temperature can alter product perception. Seasoned users often catch on right away if the product appears hazy or forms unexpected crystals during transit. Years ago, we learned to pay close attention to fill height and protection from atmospheric moisture — a single leaked drum could mean a rejected shipment and headaches up the line.
We don’t just focus on number-based specs. Lab techs care about a clean, free-flowing liquid with no tendency to polymerize or degrade under practical storage conditions. Our field feedback loop guarantees more than compliance: it aims for peace of mind for the chemist or process operator scooping the product out of a drum under real industrial conditions.
Every scale brings fresh challenges. On the bench, analytical chemists can work with gram quantities and micro-scale purities. Things get complicated in bulk operations, where every parameter — batch temperature, agitation, distillation cut — has to be nailed to achieve quality results. We continuously monitor how material moves through the plant: from raw raw material sourcing, through staged reaction, fractional distillation, to secure packaging. Small losses or contamination at one stage ripple outward. Regular staff training and cross-checks help keep issues contained before a batch heads out the door.
For large-volume customers, minimal downtime is crucial. We build redundancy into our purification lines and keep backup raw materials in stock to meet tight production deadlines. When supply chains tightened in recent years, our direct relationships with upstream producers meant we could keep raw material flowing and maintain service levels. Automation never replaces field experience, which our lead operators rely on to catch out-of-spec behavior early in the production process.
Working on the manufacturing side, regulatory compliance is more hands-on than many realize. We don’t just chase paperwork. Our team lives the shifting landscape of environmental and safety requirements. As global regulations adjust reporting and traceability for aromatic ketones, our compliance program moves in concert to make sure each drum meets the needed standards. Over the years, tighter scrutiny has pushed us to adopt cleaner synthesis routes, better closed-system handling, and increased documentation for traceability.
Many buyers don’t see the work that goes into keeping a material like this up to par with new standards. We upgrade handling equipment to guard against cross-contamination and keep environmental impact low. This also ensures a more consistent, purer product for demanding industries like pharmaceuticals or food aroma applications. The legwork pays off in greater trust and smoother customer audits, even if these efforts never show up directly on a spec sheet.
On the production side, cost isn’t only a function of yield. Waste management, energy usage, and recovery rates feed into the landed cost just as much as raw material pricing. We adapt to changing input prices and always look for improvements in process efficiency and waste reduction. Solvent recycling and heat integration have proved essential at scale, keeping our operation running leaner even as demand fluctuates.
As new users test this compound for emerging applications, from specialty coatings to non-traditional intermediates, we adapt batch sizes and logistics in step with demand cycles. Our investment in rapid-response manufacturing allows us to shorten lead times during spikes in order volume. Years of partnership with shipping providers and a robust tracking system let us stand behind both quality and delivery performance.
No process stays perfect forever. While bench chemists adjust reaction times, our plant teams learn which section of the pipeline accumulates unwanted residues or which fill nozzle picks up low-level contamination over the long run. We act fast when a customer flags a concern — whether it’s a haze, color shift, or batch-to-batch variability. Internal post-mortems, batch history review, and hands-on troubleshooting form a routine part of factory life. People in our organization know that the job is not finished until the feedback from the last batch informs production of the next.
Users in both academia and industry have come to us with custom requests, batch-size variations, or specification tweaks. Over time, we built flexibility into our order system, recognizing that one-size-fits-all doesn’t work for real R&D or production. We welcome feedback and treat it like another process input, using every customer call as an opportunity to improve either the product or the service around it.
After years in production, you get to know the difference between similarly named acetophenone derivatives. We see requests for ortho and meta isomers, but user feedback and literature evidence confirm that the para-substituted variety we make proves itself most versatile for downstream modifications. The greater ease in selective hydrogenation steps and the improved yield in Friedel–Crafts alkylation separates it from its relatives, and the end-users appreciate the predictability.
With other isopropylacetophenones, higher polarity or poorly controlled side products have caused headaches in customer labs. Inconsistent supply from third-party producers often means downstream users spend more resources on purification rather than their core chemistry. Our own side-by-side tests proved that even tiny changes in byproduct levels impact catalyst behavior and process efficiency. Customers facing slower reaction rates or unwanted color in finished fragrances often switch to our supply, noting the upgrade in reliability.
Day-to-day work on the factory floor teaches that long-term trust doesn’t emerge from marketing claims. It comes from earned relationships and putting real effort into every batch. We put transparency front and center. Every shipment includes a detailed certificate of analysis, and our technical teams remain open to inquiry about history, process improvements, or even unusual incidents during production.
More than once, our transparency has helped a customer solve a downstream processing issue by reviewing our analytical logs and discussing minor variations from the standard process. When the rare off-spec batch has landed, we stand by it, offering replacement or remediation that builds loyalty with process engineers and procurement specialists. Sharing the reality of manufacturing, rather than hiding behind silence or templated responses, wins more business than promises alone.
Innovation in chemical synthesis doesn’t rest with new molecules alone. New catalyst development, process intensification, or enhanced process controls all have a role to play. Our plant teams work closely with R&D to incorporate safer reagents, more environmentally considerate processing, and even improved waste heat capture. Our customers benefit directly from these lab-to-line changes through better batch consistency, reduced environmental footprint, and lower real-world cost.
Sustainability will drive much of our future development. Industry partners increasingly want to know how their supply chains stack up in terms of carbon footprint. We track and report environmental performance at every process stage, sharing these numbers with major users who need to report up their chain. A focus on using renewable raw materials, improving process water recycling, and reducing off-gas emissions have already made a noticeable impact on both regulatory compliance and customer satisfaction.
Making and supplying 4'-Isopropylacetophenone day in and day out, we know firsthand that quality means much more than a set of sheet specs. Production experience drives every improvement, large and small. Lab techs at our site know which subtle process variable makes a difference in the handling—whether it’s an improved distillation control or a batch-specific tweak on the solvent system used for final cleanup. These changes ensure the customer receives the same experience with every drum, every order.
With a trained eye and hands-on knowledge, our team brings forward a chemical that keeps pace with modern industry needs, anticipates regulatory changes, and respects the real challenges faced at all points between the starting compound and the finished application. Real quality, direct communication, and a focus on honest process improvement show through in every batch of 4'-Isopropylacetophenone that leaves our plant.