|
HS Code |
864648 |
| Cas Number | 104-97-2 |
| Molecular Formula | C9H12O |
| Molar Mass | 136.19 g/mol |
| Iupac Name | 2-Phenylpropan-1-ol |
| Appearance | Colorless liquid |
| Boiling Point | 216-218 °C |
| Melting Point | -19 °C |
| Density | 1.001 g/cm³ |
| Refractive Index | 1.523 |
| Flash Point | 98 °C |
| Solubility In Water | Slightly soluble |
| Odor | Mild, pleasant, floral |
| Purity | Typically ≥98% |
| Synonyms | β-Methylphenethyl alcohol, 2-Phenyl-1-propanol |
| Storage Conditions | Store in a cool, dry, well-ventilated area |
As an accredited Beta-Methylphenethyl Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Beta-Methylphenethyl Alcohol is packaged in a 500 mL amber glass bottle with a secure screw cap and detailed safety labeling. |
| Shipping | Beta-Methylphenethyl Alcohol is shipped in tightly sealed, chemical-resistant containers to prevent leaks or contamination. It should be stored in cool, dry conditions, away from ignition sources. Packaging complies with regulations for safe transport of chemicals, including proper hazard labeling and documentation, whether shipped by ground, air, or sea. |
| Storage | Beta-Methylphenethyl Alcohol should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and direct sunlight. Keep the container tightly closed when not in use. Store separately from strong oxidizing agents and acids. Use only with proper chemical-resistant containers and ensure that proper safety labeling is in place to prevent accidental misuse or mishandling. |
Applications of Beta-Methylphenethyl Alcohol in Industrial ManufacturingBeta-Methylphenethyl Alcohol serves as a specialty intermediate and functional component across select high-value chemical sectors. As a direct manufacturer, we ensure strict adherence to industrial quality systems and reliable supply for mission-critical end uses. Below are the most significant application fields, detailed according to real-world industrial processes and regulatory frameworks. 1. Fine Fragrance Compound ManufacturingIndustrial perfumers rely on this alcohol as an aromatic building block in luxury scents. The material’s mild, sweet-floral notes anchor and modify complex compositions for premium perfumes and colognes. Direct addition during top or heart note compounding maximizes olfactory performance, while strict attention to purity safeguards odor integrity in high-load blends. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Pharmaceutical Intermediates SynthesisThis alcohol acts as a strategic intermediate in the multi-step synthesis of certain active pharmaceutical ingredients. Chemical manufacturers use it for selective alkylation, introduction of the beta-methylphenylethyl moiety, and as a resolving agent for chiral drugs. Its high-purity grade supports downstream conversion under cGMP processing, reducing residual solvents and impurities in sensitive APIs. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. High-End Flavor Additive Formulation (Non-Food Contact)Certain industrial flavor producers employ this compound in limited, non-food-contact flavor systems for use in oral care and inhalable device media. It imparts nuanced floral and sweet nuances to complex aromatic blends, particularly for technical flavors in mouthwashes and vaporizable carrier bases. The strictly regulated inclusion rate respects technical safety data, with batch QC confirming sensory uniformity before release. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Functional Polymer Additives and Modifier SynthesisIn fine chemical polymer industries, this alcohol functions as a chemical modifier in the synthesis of specialty polyurethanes and as a reactive diluent for high-performance polymer resins. It introduces rigidity and impact resistance to prepolymers, benefiting from its aromatic structure and beta-methyl branching. Exact dosage requires precision to achieve target mechanical properties, and integration mandates stringent QC for molecular weight control and residual monomer levels. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Beta-Methylphenethyl Alcohol prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
From the start of each synth run to the point our drums roll off the filling line, trust in process matters more than any sales pitch. In this business, you don’t skimp on details, and Beta-Methylphenethyl Alcohol is a good case study in how quality and reliability depend on the people actually running the reactors—us, the chemists and operators who know the quirks of the chemistry and the reality of what’s possible at scale. We’ve spent years refining batches of this material, and feedback from real-world users—flavor and fragrance professionals, API teams, performance material designers—keeps us honest. We always learn something new about how this molecule performs in formulations, what issues show up downstream, and how we can push for even tighter specs with each new production cycle.
Beta-Methylphenethyl Alcohol (most often referenced by its chemical structure as 2-Phenyl-2-propanol) stands out because of its combination of reactivity, olfactory appeal, and manageable physical qualities. We don’t favor grand claims—customers want to know actual experience. Over time, we’ve found its moderate volatility, smooth floral-woody aroma, and stable alcohol functionality make it both a flexible intermediate and a valued end-use material. It doesn’t oxidize as rapidly as some simple phenethyl derivatives, giving it a working shelf-life manufacturers can plan around. We control water content to below 0.1% and keep color within an APHA 20 maximum right out of the reactor, based on user demands for clarity in applications such as perfumery concentrates and fine chemical synthesis.
On the plant floor, the product runs as a transparent, low-viscosity liquid at room temperature. Our technical staff keeps GC-purity regularly above 99.5% so that customers don’t run into scavenging solvent residues or mystery peaks that could trigger regulatory questions in the high-value fragrance trades. For bulk buyers planning to scale up downstream, our consistent batch profiles avoid surprises between lots, which matters when the downstream process parameters were locked in during development months ago.
Through years supplying this compound, certain trends emerge. Large-scale fragrance houses rely on Beta-Methylphenethyl Alcohol to impart a gentle, diffusive note that supports heart accords—its versatility as a blending material shows up across rose, muguet, and spicy topnotes. Its role goes beyond the aroma profile: it acts as a fixative, rounding out sharper aldehydes and extending the impact of fleeting topnotes. We see bulk shipments go to detergent bases, where stability in high-pH environments becomes critical. Unlike simple alcohols, Beta-Methylphenethyl Alcohol resists alkaline breakdown, so rinse-off products maintain their scent integrity, and there’s no risk of background off-odors over storage time.
On the pharmaceutical side, several customers use our product as a building block molecule during the preparation of specialty intermediates and chiral ligands. In these applications, the demand for precise optical purity and minimal trace-metal content cannot be ignored. Working directly with these clients, we tune our purification steps to knock heavy metals far below pharmacopeia limits. Synthesis teams value our lot-to-lot reproducibility; it strips out unnecessary risk when moving from pilot plant up to kilo scale or larger. The absence of strong side-reactivity or unexpected by-products keeps process validation short.
Beta-Methylphenethyl Alcohol compares most directly with alpha-phenethyl alcohols and other benzylic alcohols. From hands-on synthesis runs, the methyl substitution at the beta position gives more resistance to acid-catalyzed rearrangement while maintaining a gentle solvency profile that doesn’t overpower delicate formulae. In our own compounding trials, we find greater stability in these specialty alcohols under light and temperature fluctuation, which comes out in shelf-life studies of finished goods.
Compared to classic phenethyl alcohol, the beta-methyl variant displays less volatility, which proves helpful when customers need tenacious middle notes or when they want to minimize material loss in high-shear mixing equipment or heated processing. Flavorists comment that Beta-Methylphenethyl Alcohol adds a subtle, pleasant sweetness without dominating profiles, especially in citrus and spice blends—something borne out both by panel tests and by mass-spectrometry trace residuals in final products.
Other benzylic alcohol options, such as benzyl alcohol, have much harsher top notes and can bring in regulatory baggage about allergenicity or labeling requirements. Our clients often share their regulatory headaches; in those cases, switching to Beta-Methylphenethyl Alcohol solves specific labeling issues, since the molecule is handled differently under both IFRA and REACH guidance.
From a production viewpoint, making Beta-Methylphenethyl Alcohol at industrial scale tests more than just the reactor’s glass lining. Sourcing high-assay feedstocks and running accurate hydrogenation—with minimal off-pathway formation of over-reduced side-products—demands attention and ongoing skill-building. Our operators know precisely how exotherms and catalyst residues affect color and purity downstream, and process controls focus heavily on batch uniformity. We run regular cycle checks on the distillation setups to squeeze out last remaining traces of low-boiling or high-residue co-products.
Trace metal management during synthesis matters for downstream clients who cannot afford even parts-per-million carryover. We’ve invested time removing old stainless sampling lines that introduced Fe or Ni during loading, swapping in new inert-coated lines, and the difference shows in the final analyses. GC, UV, colorimetric—and taste tests by trained noses—catch even subtle deviations from previous cycles. The minute a customer flags a change in scent or baseline, we trace it back through maintenance logs and raw material lots until we have a root cause locked in.
We don’t cut corners on solvent recovery and spent-catalyst handling, knowing the headaches that surface years later if environmental standards change or a new audit requests old batch histories. By building these controls into each step, we produce a product line that stands up to scrutiny in regulated markets, not just in small-lot technical spaces.
One of the persistent requests from users has been even lower residual solvent levels—especially with expanding registration and Tox requirements in flavor and personal care. We adapted our final stripping stages and replaced legacy purification media with newer, food-contact-approved options. Last year, a partner from a multinational flavor house shared concerns about changes in IFRA guideline updates on trace impurities; it set us off down a month-long optimization path, where instrument specialists and blending staff cross-checked not just the GC results but also the sensory output in application. Adjustments based on these shared findings have become the new SOP on every production batch.
We’ve set up regular in-person visits with sizable customers, not just to close sales, but to bring our technical people into labs and production floors where the material actually ends up. These insights keep us grounded in the reality our buyers face. For example, a packaging issue flagged by an Eastern European customer led us to switch out a redundant gasket material on shipping drums—this trim-level change cut out a low-level taint in material held under variable warehouse conditions. No form letter attains that sort of fine-tuning; only a tight manufacturer-client connection spotted and solved this real-world challenge.
Handling specialty chemicals means more than hitting targets on a spec sheet; it also requires understanding local compliance and safety standards. In many markets, our customers look to us for advice on safe handling and environmental downstreams for Beta-Methylphenethyl Alcohol. We have dedicated compliance staff in frequent touch with regulatory updates so we can adjust labeling, MSDS contents, and document flows before these needs become costly headaches for partners.
We’ve stayed ahead of regulations by qualifying our product for use under both domestic and international programs, updating our analytical process as new impurities (even those at trace level) appear on authorities’ watchlists. Our test batches go through final organoleptic evaluations: we want minimum batch-to-batch drift, so whether a kilo lands on a European consumer line or rolls out in a North American blend, the experience stays predictable.
Waste minimization and solvent recovery in manufacturing have become a company-wide focus. Teams have built out secondary solvent collection and vapor scrubbing that reduces emissions below national environmental targets. By producing less landfill and hazardous waste, we open new opportunities for partnered recycling schemes and show customers the value of real stewardship for the lifecycle of every ton shipped.
Supply chain headaches aren’t going away in this industry. Over the last few years, raw material volatility and global disruptions forced us to rethink sourcing for every compound. Beta-Methylphenethyl Alcohol’s reliability stems from multi-source qualification on all core inputs, even where costs inch up. We negotiate long-term contracts with vetted suppliers and keep buffer stocks so end users don’t face sporadic supply gaps or have to reformulate in a panic.
Energy prices hit every manufacturer, and our process engineers have worked to trim cycle times and maximize energy input conversions. Each efficiency gain means less price pressure for the customer, and leaner energy usage fits into the broader march towards greener production footprints. Partners are looking to us for lifecycle analysis and carbon data, especially those pursuing eco-labels; our transparency in sharing process yields and audits makes their own documentation and downstream reporting smoother.
Counterfeit or off-grade material presents another industry issue. Partners have shared stories of material from unvetted sources leading to process failures or QC flags. We reinforce the value of direct-from-source buying: our drums leave the facility coded back to comprehensive batch records, and only our label marks the complete chain of custody. Labs looking to troubleshoot surprises downstream have direct access to our technical team, not a chain of anonymous middlemen. It’s this transparent supply relationship that helps both sides reduce risk.
A recurring theme in our feedback channels points to the need for clear, responsive support when issues arise: a product used in new market segments or under novel regulatory frameworks quickly brings up questions. Our customer tech lines put users directly in touch with plant chemists who have literal hands-on experience—from kilo to multi-ton scales. Whether the question relates to unexpected trace by-products in a new edible blend or a flare-up in color after prolonged storage, we investigate with the same rigor applied to our own root-cause analyses.
Recent project work with a Southeast Asian flavor company asked for even more precise control over residual solvents—to parts-per-million rather than tenths of a percent. Tuning purification parameters, equipment teams swapped out vintage column packs for newer high-throughput units, crediting data from pilot trials. The result cut the time and yield losses and improved downstream sensory performance, giving their applications smoother mouthfeel and more stable shelf profiles.
Beta-Methylphenethyl Alcohol’s future depends as much on the quality of ongoing communication as the numbers on a spec sheet. Customers will continue to challenge manufacturers with rising expectations for safety, sustainability, and consistency; it’s only healthy, for the field and for us. Maintaining an open dialogue—not just chasing sales figures—pushes real improvements year-on-year. Teams working directly with creative houses or pharmaceutical pilot teams always have fresh data on application gaps and wish-lists. Every constructive complaint or edge-case trial pushes us to revisit formulations, tweak process controls, and sometimes even retool entire steps in the line.
Making Beta-Methylphenethyl Alcohol isn’t a sideline for us—it’s a key part of our core chemical portfolio. Each improvement in plant methods and every new adjustment to the logistics systems reflects honest feedback from users who have a real stake in precision. From lick-and-stick fragrance blends to specialty pharmaceutical intermediates, our product reaches dozens of markets where trace contamination or a few points on APHA color actually matter, with customer quality managers holding their own suppliers to high bars.
We understand that direct-from-manufacturer supply offers a clear window into root product quality and process improvement—being the original producer removes ambiguity. Deep product knowledge, hands-on batch experience, and feedback from a global roster of users drive us forward. Every barrel that ships carries not only our technical reputation but years of practical job-site learning and problem-solving with clients who value follow-through over flash.