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HS Code |
511358 |
| Cas Number | 80841-78-5 |
| Molecular Formula | C14H12O |
| Molecular Weight | 196.25 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 354.5°C at 760 mmHg |
| Density | 1.106 g/cm³ |
| Solubility | Slightly soluble in water; soluble in organic solvents |
| Flash Point | 161.5°C |
| Smiles | CC1=CC=CC=C1C2=CC=C(C=O)C=C2 |
| Inchi | InChI=1S/C14H12O/c1-11-4-2-3-5-13(11)12-6-8-14(10-15)9-7-12/h2-10H,1H3 |
As an accredited 2'-Methyl-Biphenyl-4-Carbaldehyde 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 2'-Methyl-Biphenyl-4-Carbaldehyde, sealed with a screw cap and labeled with hazard information. |
| Shipping | 2'-Methyl-Biphenyl-4-Carbaldehyde is shipped in tightly sealed containers to prevent exposure to air and moisture. The packaging complies with chemical safety regulations, featuring clear labeling and hazard warnings. During transit, the chemical is protected from extreme temperatures and handled according to all relevant transport and safety guidelines for hazardous materials. |
| Storage | **2'-Methyl-Biphenyl-4-Carbaldehyde** should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep it segregated from strong oxidizing agents and acids. Store it at room temperature and avoid exposure to moisture to preserve its stability and prevent decomposition. Properly label the storage container. |
Applications of 2'-Methyl-Biphenyl-4-Carbaldehyde in Industrial ManufacturingAs the manufacturer of 2'-Methyl-Biphenyl-4-Carbaldehyde, we supply this intermediate to industries requiring high-quality aromatic aldehydes for precise functional applications. Our production supports downstream users in fine chemical synthesis, emphasizing compliance, precise formulation, and efficient integration at scale. Below are specialized applications and technical details for core industries. 1. Pharmaceutical Intermediate for Antihypertensive AgentsMajor pharmaceutical producers apply 2'-Methyl-Biphenyl-4-Carbaldehyde as a key intermediate for synthesizing angiotensin II receptor antagonists, particularly in the valsartan and telmisartan manufacturing chain. These steps necessitate strict traceability and purity, since residual aldehyde content and related impurities directly influence the initial condensation stages of active substance preparation. The raw material enters the process before cyclization and subsequent coupling with complex moieties, supporting scalable active pharmaceutical ingredient (API) assembly. Each batch requires analytical validation to meet stringent impurity profiles for regulated markets. Industry compliance standards
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2. Fragrance Ingredient Synthesis in Fine ChemicalsFragrance compound formulators utilize 2'-Methyl-Biphenyl-4-Carbaldehyde as a scaffold for producing long-lasting woody or musky notes in perfumery. Its structural motif provides unique olfactory warmth when functionalized via reduction, oxidation, or acetal formation. Stringent control of aromatic aldehyde residues and compliance with IFRA guidelines ensure its safety and suitability for consumer products. Typical fragrance ester derivatives require precise ratio adjustment to balance volatility, intensity, and compatibility with fixatives. Industry compliance standards
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3. Advanced Liquid Crystal Material SynthesisProducers of specialty display materials employ this aldehyde in the synthesis of liquid crystal monomers, where its mesogenic core and side-chain compatibility are essential. The biphenyl backbone enhances thermal and electro-optical properties in final formulations. High purity and consistency, together with robust analytical release, support process yield and long-term stability in display applications. Dosing accuracy and removal of trace carbonyl compounds are critical for downstream polymerization success, affecting device brightness and response time. Industry compliance standards
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4. Polymer Modifier in Polyaryl Engineering PlasticsPolymer manufacturers deploy this aromatic aldehyde as a functional modifier in the production of polyaryls and high-performance engineering plastics. Its inclusion introduces rigidity and controlled polarity into the polymer matrix, improving dimensional stability and heat resistance. Reactor-feed blending precision and melt-phase temperature control are vital, as trace aldehyde presence influences molecular weight distribution and cross-link density. Downstream applications focus on electrical insulation and thermally stable structural components. Industry compliance standards
Typical usage ratio
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Those of us who have spent years in the lab and in the plant know well the demands that go into producing specialty aromatic intermediates like 2'-Methyl-Biphenyl-4-Carbaldehyde. Chemists in fields ranging from agrochemical development to pharmaceuticals rely on building blocks with consistent structure and reliable purity. Every batch tells a story of raw materials sourced, reactions controlled, and processes scrutinized. We’ve seen our share of requests for this compound, often driven by researchers searching for alternatives to common benzaldehyde derivatives or varied substitution patterns on biphenyl frameworks. The methyl-arm positioned at the ortho site alters the electronic nature of the molecule, setting it apart from the more standard 4-biphenyl carbaldehydes on the market.
In practice, 2'-Methyl-Biphenyl-4-Carbaldehyde, known by its chemical model C14H12O, stands out due to its distinct aromatic profile and the placement of its methyl substituent. This feature influences both its reactivity and the scent properties valued in some fragrance applications. Over the years, our teams have optimized reaction conditions for its synthesis to minimize byproduct formation. We pay particular attention to the handling of reagents during the formylation step, as careful control over temperature and catalyst choice ensures product yields are maximized and purification is less of a headache later down the line.
Product quality in the field of fine chemicals comes down to experience and vigilance. As manufacturers, we focus on attributes such as appearance, assay percentage, isomeric purity, and the control of trace impurities. Our typical product presents as a white to off-white crystalline powder, showing a high melting point and stability under recommended storage. Our in-process checks include gas chromatography and NMR analysis to confirm both purity and the correct aromatic substitution. Retention times tell a lot; nothing escapes attention during QA, especially when material is headlined for regulated applications.
Customers expect clear batch histories and transparent numbers. Water content, metals analysis, and solvent residue levels get itemized because we know downstream chemistry can be finicky, especially in sensitive palladium-catalyzed couplings or multistep syntheses. That pesky methyl group—dropped onto the ortho position—can alter steric effects, which translates into differences in reaction rates and selectivity versus its unsubstituted cousins. Synthetic chemists usually specify for 98–99% purity or higher, depending on their application. Our runs regularly hit or surpass these specifications, a point of pride for our technical crew who oversee each stage.
Scaling up 2'-Methyl-Biphenyl-4-Carbaldehyde signals a test of process rigor. Small reactions on the bench can behave differently at reactor scale, so every variable counts. Experienced eyes catch problems early. Agitation speed, thermal loads, choice of solvent, and pre-reaction conditioning all play a role. Teams keep detailed batch records, not just for compliance’s sake, but for knowledge built over many years of troubleshooting. We’ve learned that minor tweaks—slightly adjusting reaction concentration, swapping out grades of starting methylbiphenyl, selecting effective crystallization solvents—pay off in both yield and purity.
Our operators respect the differences made by fresh versus recycled solvent; analytical results track any shifts in impurity profiles. We steer clear of over-relying on automated controls. Even with clever instrumentation, seasoned chemists review spectra and chromatograms. That methylated ring system can make some purification steps more sensitive to temperature or washing protocols. So, returning customers get the same experience every time—something we stand behind batch after batch.
Over the last decade, we’ve supported clients who use 2'-Methyl-Biphenyl-4-Carbaldehyde in syntheses for complex molecules. Medicinal chemists appreciate the leverage its substitution pattern brings. That ortho-methyl group isn’t just decorative—by slightly tweaking electron distribution, it steers electrophilic and nucleophilic additions. We’ve heard from customers who noted sharper yields and cleaner intermediate isolations when switching from alternate biphenylcarbaldehydes.
In fragrances, that subtle methyl alteration translates into nuanced base notes. We seldom get to smell the finished perfumes, but hearing from olfactory chemists that our aldehyde imparts a “modern warmth” reaffirms our care during production. The robust formyl group at the para-position tends to survive various formulation environments; stability checks bear out the aldehyde’s compatibility with other aromatic systems and fixatives.
Some material ends up as a coupling partner in Suzuki or Heck reactions. Lab workers favor the reproducibility; our controlled impurity levels help prevent poisons in catalytic cycles. That extra methyl ring stops some unwanted side reactions cold, a small barrier that preserves yields and cuts down on unscheduled purification steps.
Compounds crowding the biphenyl-aldehyde space each carry their quirks, but the 2'-methyl group defines the behavior of this aldehyde. We’ve worked with clients who switched from plain biphenyl-4-carbaldehyde and noticed their transition state energies shifted, reaction times fell, or their analytical results reflected less byproduct. Chemists who design synthetic pathways look for intermediates that introduce the right balance of steric bulk and reactivity. By offering a methyl at the ortho to bridgehead, this compound diverges meaningfully from unsubstituted and para-methyl analogs.
From our plant’s experience, differences in melting point, appearance, and even solubility stem from that methyl appendage. Handling-wise, the crystal habit tends to be more manageable, less prone to clumping, and provides fewer headaches during transfer and weighing. This can seem trivial unless you’ve lost time battling sticky powders or variable flow rates during automated dosing.
Purity control distinguishes our product from competitors who might push through less stringent distillation or less meticulous chromatographic steps. Each extra measure finds its way into tangible downstream returns. Failures in API syntheses or batch rejections cost far more than the extra few hours tightening QC at the source. We stay in constant conversation with formulators, adjusting to their feedback, which often leads to us making small, targeted changes in our plant—something resellers and traders rarely get a chance to incorporate in real-time.
Test results steer every improvement. Researchers sometimes send back analysis showing unfamiliar peaks. Dialog with users leads to small changes in drying protocol, or in how we store material pre-shipment. We have rerun batches where the end use demanded tighter specs on residual solvents. Keeping open lines with users means we hear about both successes and failures using the aldehyde in advanced materials, electronics, or fine chemicals. That conversation improves what eventually leaves our shipping dock.
Communicating openly about production realities also means sharing constraints. At times, supply chain interruptions for precursors disrupt planned batches. We limit such risks by qualifying multiple raw suppliers and keeping inventory at varied stages of synthesis. Long-after suppliers have moved on, we keep records that trace each finished batch back to original methylbiphenyl sources. This keeps trust in place and solves traceability issues down the road.
Some buyers push us to cut corners for price or to relax specifications to quickly accommodate a backlog. With enough cycles under our belt, we have learned that shortcuts come back to haunt. Fine chemicals live and die by trust. Lost reputation is a cost too great to bear for a few marginal sales. Instead, we continue to build quality into each run and make sure our process can adapt to stricter standards when projects in regulated fields crop up.
Production doesn’t always follow the textbook route. Deep winter or humid summer brings shifts in crystallization time, impacts cooling curves, and even influences filtration speeds. Newer staff are trained hands-on in these realities; we document best practices from one campaign to the next. Plant-based know-how means every process tweak earns its place with observed data, not marketing promises.
Sourcing reliable starting materials keeps us agile, but transitions demand checks—every new lot prompts minipilot synthesis and a check against reference spectra. If things drift, we catch the issue before bulk reactors see the raw material. Sometimes, that means holding shipments until analytics confirm no off-odors, discoloration, or variations in melting point. This isn’t just for pharma projects—consistent quality pays off even for users blending intermediates or scaling reactions to multi-kilo quantities.
Energy usage creeps into our calculations; efficient syntheses extend beyond cost savings. Optimizing formylation to minimize waste and improving solvent recovery both reduce environmental footprint. We work closely with solvent recyclers and waste handlers, making practical improvements year after year. Every improvement, whether in process control or yield optimization, helps keep our commitments to both our partners and to the wider world.
2'-Methyl-Biphenyl-4-Carbaldehyde remains essential for projects calling for non-standard molecular frameworks. R&D teams often reach out with new coupling partners or alternate downstream transformations. If their work needs adjustments—different solvent profiles, alternate batch sizes, tighter specs on heavy metals—we answer with direct feedback from our own synthesis groups. This partnership model solves problems before they show up in budget overages or missed research deadlines.
Sharing our accumulated experience goes beyond producing a chemical to spec. We document reaction conditions, flagging what works and what does not. For clients running hundreds of grams on project scale or shifting to full commercialization, our established process history and records help validate their own procedures. This legacy gives younger researchers a head start and helps avoid familiar missteps during scale-up.
We watch sector trends—what additional certifications customers request, which impurity limits regulators emphasize, or what new analytical needs R&D teams highlight. Our flexibility isn’t theoretical. When a shift from HPLC to GC-FID becomes standard, or when requests for enantiopure variants come in, we adapt our workflow to deliver clean, reproducible data.
Every lot of 2'-Methyl-Biphenyl-4-Carbaldehyde reflects both hard science and steady hands. We do not just ship bottles; we deliver peace of mind backed by records, testing, and an ongoing exchange between lab and plant. Few things in specialty chemicals matter more than trust. In practice, keeping transparency means sharing analytical runs, documented protocols, and histories of how each product line has evolved.
Clients know how to reach us directly when questions surface, and our technical teams answer with real data—whether related to spectral assignments, observed downstream issues, or practical advice on handling for awkward transfer batches. Open communication lets both our team and our clients move swiftly past any bumps that may occur during synthesis or formulation development. That shared knowledge speeds research, cuts out duplicated troubleshooting, and strengthens the whole value chain.
Rather than chase the latest trend, we focus on doing our core process well. 2'-Methyl-Biphenyl-4-Carbaldehyde production benefits from ongoing investments in waste reduction, resource efficiency, and process optimization. Over years, these efforts have decreased batch-to-batch emissions and improved solvent recovery rates. We partner with users who share these aims, co-developing procedures that reduce environmental impact. These are not abstract initiatives; they play out as practical controls in each run, from sourcing to delivery.
As sustainability pressures grow, adopting greener chemistry is more than a slogan—it’s a push for real results. That means weighing not just the baseline carbon footprint of each batch, but how we can deliver quality using less energy, fewer solvents, or more renewable raw materials. Production managers and technical leads review the data monthly, using results to guide equipment upgrades and shifts in process chemistry. Every step ties directly to product on the shelf.
Clients who succeed with our aldehyde return, citing not only the clean analytical profiles but the consistency their labs count on. We respond to needs for new packaging sizes or extra documentation for regulatory filings without delay. By staying tightly connected to user requirements, we anticipate adjustments and adapt to changing regulations or technical stipulations. Experience teaches that chemistries evolve faster when suppliers and users are in sync—even simple changes in handleability or batch size make a difference to fast-moving R&D groups.
Problems come up—a drum arrives with excessive static charge, sticky residues build in automated feeders, or specs must tighten due to new downstream catalysts. We document and resolve, recording fixes so the improved solution benefits future clients. Each conversation pivots from problem to opportunity, further balancing reliability and cost-effectiveness in how we serve the industry.
In producing 2'-Methyl-Biphenyl-4-Carbaldehyde, the smallest details compound into big results. Many years at the bench and in production have shown us the molecule’s real-world value—highlighted by the distinctive substitution pattern and how that shapes both reactivity and end-use properties. Keeping ahead means more than ticking off checkboxes on purity or compliance. It means an ongoing commitment to quality, built through transparent processes, industry feedback, and a sincere investment in better outcomes for everyone using our products. The future of specialty chemicals belongs to those who balance technical progress with open, experienced-driven support for innovation and reliability alike. Every shipment leaving our plant stands behind that promise.