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HS Code |
895975 |
| Product Name | 3,5-Di-Tert-Butylsalicylaldehyde |
| Cas Number | 2974-66-3 |
| Molecular Formula | C15H22O2 |
| Molecular Weight | 234.33 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 80-84°C |
| Purity | Typically ≥98% |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Density | 1.07 g/cm³ (approximate) |
| Smiles | CC(C)(C)c1cc(C=O)c(O)c(C(C)(C)C)c1 |
| Chemical Structure | Substituted salicylaldehyde with tert-butyl groups at 3 and 5 positions |
As an accredited 3,5-Di-Tert-Butylsalicylaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 3,5-Di-Tert-Butylsalicylaldehyde, tightly sealed with a screw cap and labeled for laboratory use. |
| Shipping | 3,5-Di-Tert-Butylsalicylaldehyde is shipped in tightly sealed containers, protected from light and moisture, to maintain stability and prevent degradation. It is handled as a non-hazardous chemical under normal shipping regulations, but care is taken to avoid exposure to heat or open flames. Proper labeling and documentation accompany each shipment. |
| Storage | 3,5-Di-Tert-Butylsalicylaldehyde should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers. Store at room temperature, and avoid excessive heat or open flames. Always label the container clearly and follow all standard laboratory chemical storage protocols. |
Applications of 3,5-Di-Tert-Butylsalicylaldehyde in Industrial Manufacturing3,5-Di-Tert-Butylsalicylaldehyde plays a critical role in multiple specialized manufacturing sectors. Our factory ships this material to regulated production flows in facilities that demand tight compositional consistency and traceability. Below, we detail several prominent industrial application paths where our product supports advanced development and manufacturing processes. 1. Ligand Precursor for Metal Organic CatalystsCatalyst producers source 3,5-Di-Tert-Butylsalicylaldehyde as a key intermediate for manufacturing bulky salicylaldimine ligands. These ligands form active complexes with metals such as nickel, palladium, and copper, widely adopted in controlled polymerization and fine-chemical synthesis. The precise tert-butyl substitutions ensure steric and electronic properties required in homogeneous catalytic processes, primarily for high-purity specialty chemicals and performance polymers. Industry compliance standards
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2. Intermediate in Pharmaceutical API SynthesisMajor pharma manufacturers use this material as a protected aromatic aldehyde building block in synthesis routes toward active pharmaceutical ingredients (APIs) and drug intermediates. The tert-butyl groups provide substantial steric hindrance, which aids in regioselective functional group transformation steps. Application examples include selective aldol condensation and late-stage derivatization, supporting advanced synthetic schemes under cGMP production requirements. Industry compliance standards
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3. Stabilizer for Liquid Antioxidant FormulationsProducers of industrial lubricant additives and transformer oils incorporate this compound as an intermediate for sterically hindered phenolic antioxidants. These antioxidants retard oxidative degradation in high-temperature or high-voltage environments. The aldehyde is used in condensation reactions to yield stable antioxidant molecules, which secure performance in critical energy and machinery systems. Industry compliance standards
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4. Fluorescent Sensor and Dye Synthesis IntermediateManufacturers engaged in optoelectronics and analytical chemistry utilize 3,5-Di-Tert-Butylsalicylaldehyde to develop custom ligands and chromophores for metal sensing, fluorescence tagging, and organic dye synthesis. The steric bulk at the ortho positions allows selective tuning of photoactive and chelation properties, supporting consistent batch fluorescence properties for high-value analytical kits and optoelectronic device components. Industry compliance standards
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5. Synthesis of Specialty Polymers and Resin ModifiersFormulators in the advanced polymer sector employ this compound to introduce bulky and functionalized groups into resin and network polymer matrices. Its tert-butyl-protected aromatic structure imparts enhanced thermal and oxidative stability. Used primarily in the creation of heat-resistant thermoset resins and in reactive diluent blends for electronics encapsulation, the raw material supports the production of polymers demanding superior shelf life and high-temperature endurance. Industry compliance standards
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Years spent in the lab and on the production floor make it clear how often chemists reach for 3,5-Di-Tert-Butylsalicylaldehyde and why. This compound goes by various names, but to most of us in chemical synthesis, its CAS number may be more recognizable. What sets it apart from other salicylaldehyde derivatives is not just a matter of structure but the reliability and performance it brings to a method or formulation. In our experience, customers want more than what’s listed on a typical specification sheet. They want facts about purity, performance in demanding conditions, and the ways a particular product can save time or deliver higher yields. It is not just a reagent or a line item on an order form—it is a key driver for research and manufacturing, often at critical steps.
At our site, we draw from decades of hands-on experience to ensure batch consistency, transparency, and full downstream traceability. Each lot is produced under strict, logged conditions, not just to check boxes for compliance but to protect you from unexpected variables at scale. We have handled wide volumes for specialty and industrial clients alike and witnessed the challenges that come from out-of-spec material. A clear ethanol solution one time, an off-color sample the next—these errors can stall downstream processing for days or weeks, a delay that few can afford when research deadlines are tight or production schedules cannot pause.
We operate in a climate that rewards over-delivering. Every batch of 3,5-Di-Tert-Butylsalicylaldehyde leaves the facility after passing through our most experienced hands, not just junior staff or automated systems. Several chemists in our facility have spent decades scaling processes from beaker to kiloliter, and their fingerprints are there not just in compliance, but in the subtle details: sharper melting points, fewer halogenated byproducts, nearly undetectable water levels. With this approach, you can trust our material will behave the same way from lab sample through to pilot plant and on into routine supply.
There’s a world of difference between working with generic salicylaldehyde derivatives and with the 3,5-di-tert-butyl variant. The tert-butyl groups are not just decorative—they create real effects. These bulky side chains offer remarkable stability to the aromatic core, as we have seen in practice during isolation and downstream reactions. With most salicylaldehyde products, atmospheric moisture can’t be ignored. Here, the steric hindrance from the tert-butyls brings protection, slowing aldehyde oxidation and extending bench stability. We intentionally invested in this product out of an understanding that many researchers and manufacturers—especially in pharmaceuticals and fine chemicals—need more robust building blocks. This material answers real-world needs for lower impurity profiles and better handling characteristics, because fewer side reactions from air and light cut down on headaches, waste, and rework.
Traditional salicylaldehyde can complicate storage and measurement. By contrast, our 3,5-Di-Tert-Butylsalicylaldehyde batches arrive with a defined crystalline or semi-solid appearance and minimal odor, reflecting over ten process revisions we developed with feedback from seasoned users. Not all derivatives will respond so favorably to isolation from reaction mixtures, especially in the presence of water or oxygen. Through routine HPLC and NMR checks, we ensure the aldehyde function isn't compromised by unwanted side-product formation, which is essential when scale-up plans are on the horizon.
Every year, our team consults with users who have encountered limits with off-the-shelf starting materials. One synthetic chemist recently explained how routine oxidation of standard salicylaldehyde led to erratic results in ligand synthesis. After testing samples of our 3,5-Di-Tert-Butylsalicylaldehyde—subjected to real-world heat and air exposure—they found that the stability avoided unwanted quinone byproducts. The impact was tangible; yields ran five to ten percent higher, and post-reaction purifications demanded less time.
On the industrial side, feedback highlights safe transfer and manageable dusting, even in multi-kilogram charges. With consistency in melting and filtration, plant crews see fewer disruptions. This is not trivial. Reproducibility directly affects batch record-keeping and confidence in critical supply chains. We do not cut corners to rush out new formulations, nor do we adjust specifications just to meet minimums. Our people know what it means to receive an unpredictable or poorly handled product, and it shapes every decision we make.
Purity is where many offerings diverge. The purity of our 3,5-Di-Tert-Butylsalicylaldehyde regularly exceeds 99 percent by HPLC, and customers rely on this. Low-level contaminants, such as substituted phenols, are kept below quantitation limits as verified by both gas chromatography and mass spectrometry. We accomplish this through careful solvent handling, in-house distilled starting reagents, and robust work-up and purification protocols. Some suppliers cut purification steps to save time or cost, but this can introduce unseen trace impurities and make downstream work unpredictable or unsafe. We find that thorough purification does more than just keep numbers high—it saves customers from reworking material or facing unexpected side reactions.
Our batches show tight melting range control, offering a solid-state product that weighs out accurately and dissolves predictably in common organic solvents such as dichloromethane, ethanol, and acetonitrile. Many teams working with catalysts and ligands report that the extra bulk of the tert-butyl groups lowers background reactivity and increases selectivity. In practice, you can load our material into your synthetic sequence and watch it perform identically from one campaign to the next. From the trial flask to multi-batch production, uniformity in the aldehyde’s handling allows process engineers and bench chemists to focus on new developments instead of troubleshooting old problems.
Clients use 3,5-Di-Tert-Butylsalicylaldehyde in a range of sophisticated organic syntheses, not limited to but often including ligand frameworks and catalyst systems for transition metal-catalyzed reactions. This product lends itself to forming Schiff bases quickly and cleanly, and we have seen how the electron-donating tert-butyl groups shape reactivity and improve performance across different catalytic cycles. Ligand design in asymmetric catalysis depends on subtle architectural tweaks; our experience shows that the bulky tert-butyls aid in steering selectivity when coordinated to metal centers. Scientists in pharmaceutical discovery often leverage these modifications to influence chiral induction or improve metabolic stability in new candidates, and we work with researchers to supply material tailored for specific new projects.
Besides catalysis, customers have reported success using our product in resin modification and polymerization research, where reliable aldehyde functionality must survive rigorous processing. We’ve supported scale-ups to pilot-scale copolymerization, observing zero loss in reactivity during larger runs. This depends entirely on precise, repeatable manufacturing—the only way downstream steps can succeed without incremental troubleshooting. The tert-butyl groups also reduce volatility and odor, supporting better operator comfort in process settings.
Anyone who has sourced both generic and highly substituted salicylaldehydes knows not all batches behave equally under air and room temperature storage. Many products can degrade in months, even weeks; subtle oxidation can turn a nearly colorless solid into a yellow, tacky mass, which complicates analytical work and affects downstream chemistry. Our 3,5-Di-Tert-Butylsalicylaldehyde comes with real-world stability, remaining consistent for extended periods under ordinary warehouse conditions. This is not theoretical—we have shipping records and client feedback showing that the product survives temperature swings and routine handling better than the unsubstituted analogs.
In synthetic planning, chemists often seek out 3,5-Di-Tert-Butylsalicylaldehyde because it fends off competitive side reactions—an advantage driven by its sterics and electronic effects. The bulky groups keep the aromatic ring from participating in unwanted oxidation and ring-opening, which is a recurring issue with less hindered derivatives. Additionally, the physical handling offered—simple, clean transfer and minimal clumping or pulping when weighed or dissolved—saves time in setups involving automated or semiautomated feed. The product’s tangibly reduced moisture sensitivity makes it especially attractive for solid-phase and flow chemistries, where equipment downtime is costly and scheduled interventions are tightly controlled.
The common perception suggests functionalized aldehydes work similarly across projects, but direct feedback tells us otherwise. Our clients in pharmaceutical research, materials science, and academic synthesis report that when they replace less hindered or impure analogues with our material, reaction times tighten up, side-product formation falls, and the need for repeated purification drops. In scale-up environments, the difference between a 97 percent pure competitive product and our 99+ percent batches can mean hundreds or thousands of dollars saved every week.
We do not operate inside a vacuum. Our customers span small biotech startups, established materials companies, research laboratories, and industrial manufacturing across the globe. Some are optimizing novel ligands for next-generation catalysts, others are developing polymers that combine functionality and stiffness in new ways. In any case, our experience delivering 3,5-Di-Tert-Butylsalicylaldehyde has helped teams move past synthetic bottlenecks that stymie productivity. We’ve seen the same pattern repeat: a switch to our material lets groups focus on system-level challenges, not last-minute troubleshooting with input reagents.
Demand is especially strong among those seeking improved outcomes in asymmetric synthesis and high-throughput screening, where batch regularity and low impurity baselines translate directly into faster project turnover. In the materials field, researchers appreciate that they can stockpile the aldehyde without worrying about shelf-life issues, a supply advantage that lets them push forward with ambitious timelines. Combined with our ability to supply from grams to multi-kilogram lots, we support early innovation and routine production without minimum order headaches or delays.
Years of safe working in chemical manufacturing have taught us that handling aldehydes deserves respect, and 3,5-Di-Tert-Butylsalicylaldehyde is no exception. Our operations include strict solvent recovery, temperature control, and monitoring for air-sensitive material, but this product’s extra bulk means less volatility—and that directly reduces worker exposure and headache from persistent odors found with standard aldehydes. While the chemical is not skin-friendly and requires typical precautions—nitrile gloves, chemical goggles, and proper engineering controls—its lower intrinsic vapor pressure and resistance to rapid oxidation minimize hazards.
We share insights with all users on proper storage, suggesting tight sealing and use of inert gas overlays for long-term warehousing, but our tracked retention tests show no appreciable degradation even after months in standard drums. Where emergencies or spills occur, clean-up is easier since the crystalline form minimizes airborne particulates. In plant or warehouse settings, this means less clean-up time, less chemical waste, and quicker safe returns to operation. Every result like this shaped how we built our production and packaging lines—real field experience flowing back into product safety and efficiency.
Long-term relationships with suppliers and downstream partners highlight a growing expectation for less waste and more transparency in specialty chemical production. We run solvent recovery systems, recycle spent material where possible, and keep close tabs on water and energy usage to keep our process efficient. No one wants to pay for careless practices or excess waste—least of all our clients, who depend on proven supply and transparent environmental practices in choosing a long-term supplier.
With 3,5-Di-Tert-Butylsalicylaldehyde, supply security does not have to compete with responsible manufacturing. Many processes using this product have strong safety and environmental records, since the material resists decomposition and volatilization, minimizing emissions in storage and use. We support clients in assessing life cycle implications and wider impacts by providing honest, up-to-date data on our own production, not just regulatory boilerplate or marketing copy. We believe the future of fine chemical manufacturing depends on choices made daily, in production and in open technical conversation with customers and partners.
The most valuable feedback we get rarely comes through formal chains or voluminous paperwork. Instead, it is the routine messages from plant operators or bench scientists that make the greatest difference. Our adaptations—finer filtration, temperature controls at each stage, direct-to-line shipments—all grew out of requests from real-world users. We listen to what matters, and then deliver over and over because the stakes, whether they’re new drug candidates or high-purity catalysts, are too high for “average” quality.
One frequent request sought low-moisture, low-halide product for use in click chemistry ligands; another needed support for direct qualification in regulatory filings. We met both challenges by adjusting process water content, then by adding extra batch certification for elemental impurity testing. Neither was done as a way to one-up competitors, but to solve time-consuming approval roadblocks for valued partners. In each category of work—synthesis, process R&D, scale-up, or packaging—we commit to closing the loop between what is promised and what is delivered on your bench or in your reactor.
Those tasked with process transfer or scale-up will find that 3,5-Di-Tert-Butylsalicylaldehyde offers direct practical benefits. On the plant floor, the crystalline variant simplifies accurate weighing and reduces cleanup where others demand sticky processing aids or specialized containers. The aldehyde’s resistance to browning and loss during handling lets batches run without continual operator checks, reducing both rework and batch record modifications. We encourage process engineers to visit our facility or request production samples—nothing tells you more about a compound’s real handling than direct, hands-on experience and open conversation with those who manufacture it.
While substitution at the 3 and 5 positions delivers the main stability and handling benefits, the exact specification matters too. Some batches available on the generic market use lower standards for starting material purity or solvent residues. Over the years, we have invested in in-line solvent stripping, automated filtration, and final-pack nitrogen blanketing solely to ensure finished product integrity into storage or shipment. Every checkpoint is backed up by process chemists who inspect, test, and approve material themselves. For quality-driven projects, we can support custom lot sizes, documentation, and just-in-time shipments to keep your schedules running smoothly.
As direct manufacturers, we see how small differences become magnified at each step beyond gram scale. Marginally lower purity, consistent but higher impurity peaks, or unpredictable melting points turn into wasted cycles, operator overtime, and longer development timelines. We adjust every setting, assay every lot, and pull real batch records from running processes. Working with this aldehyde for years means we know not only the chemical theory but what goes right—or wrong—in real production. High-throughput screening, kilogram-scale ligand production, or critical-path pilot campaigns depend on quality you measure not only by percentages, but by whether you meet your deadlines, keep your spend reasonable, and develop new chemistry faster. Our business stands on that ground.
Serving as a manufacturer and partner puts responsibility at our doorstep every day. Our neighbors, clients, and fellow chemists all recognize that the little things—how a product arrives at the bench, how long it lasts on a shelf, how it simplifies a tricky synthesis—change outcomes for an entire project team. When you order 3,5-Di-Tert-Butylsalicylaldehyde from us, you receive a material shaped directly by those stakes, with each stage steered by practical experience and steady hands.
Every product heading for delivery bears the same commitment: the batch is reproducible, the analysis is transparent, the origins traceable, and the support accessible. We believe in delivering more than specifications, bridging the gap between process know-how and product performance. This is what experience manufacturers should offer, and this is what we bring into every container and every collaboration, year after year.