|
HS Code |
435457 |
| Cas Number | 1335-46-2 |
| Molecular Formula | C14H22O |
| Molecular Weight | 206.33 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Odor | Violet-like, floral, woody |
| Boiling Point | 277-280°C |
| Density | 0.965-0.970 g/cm³ (20°C) |
| Flash Point | >110°C |
| Solubility In Water | Insoluble |
| Refractive Index | 1.487 - 1.490 (20°C) |
As an accredited α-n-Methyl Ionone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g amber glass bottle with tamper-evident cap, labeled "α-n-Methyl Ionone" with hazard pictograms, batch number, and handling instructions. |
| Shipping | **α-n-Methyl Ionone is shipped in tightly sealed containers made of compatible materials, such as glass or certain plastics, to prevent leakage or contamination. It should be transported under cool, dry conditions, away from direct sunlight and sources of ignition. Proper labeling and compliance with transport regulations for aromatic chemicals are mandatory.** |
| Storage | **α-n-Methyl Ionone** should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat sources, open flames, and direct sunlight. Keep it away from incompatible substances, such as strong oxidizing agents. Ensure the storage area is equipped to contain spills and is compliant with local chemical storage regulations. Store at room temperature. |
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Purity 98%: α-n-Methyl Ionone with purity 98% is used in fine fragrance formulations, where enhanced olfactory clarity and longevity are achieved. Molecular weight 206.32 g/mol: α-n-Methyl Ionone with molecular weight 206.32 g/mol is used in luxury cosmetic creams, where consistent diffusion and fragrance retention are optimized. Stability temperature up to 120°C: α-n-Methyl Ionone with stability temperature up to 120°C is used in high-temperature soap production, where scent integrity is maintained during processing. Refractive index 1.484–1.489: α-n-Methyl Ionone with refractive index 1.484–1.489 is used in personal care emulsions, where uniform product appearance and light scattering are improved. Volatility profile (moderate): α-n-Methyl Ionone with moderate volatility profile is used in deodorant formulations, where balanced fragrance release over time is ensured. Density 0.950 g/cm³: α-n-Methyl Ionone with density 0.950 g/cm³ is used in fabric softeners, where optimal blending and scent deposition on textiles are realized. Flash point 114°C: α-n-Methyl Ionone with flash point 114°C is used in home air freshener sprays, where product safety and regulatory compliance are assured. Color index (pale yellow liquid): α-n-Methyl Ionone with color index pale yellow liquid is used in transparent shampoo bases, where visual clarity and product aesthetics are retained. |
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Walking through the fragrance industry’s evolution, a few ingredients stand out for their ability to shape the character of a finished product. α-n-Methyl Ionone deserves a place in that conversation. With a chemical profile that imparts a refined violet-like note, α-n-Methyl Ionone adds richness and smoothness to perfumery and personal care formulations. Anyone who spends time around perfumers or product developers will notice the genuine appreciation for materials that blend sophistication with reliability. Over decades, ionones—especially this unique methylated variant—have become trusted allies for professionals reaching for both nostalgia and novelty in scent.
α-n-Methyl Ionone isn’t just another chemical additive; it’s a thoughtfully engineered molecule that interacts predictably with other aromatic components. It usually finds itself in a liquid state at room temperature, presenting a pale, almost colorless appearance. Purity sits near the top end by industry standards, approaching 98-99%. The precise model associated with the product aligns with the systematic approach used by reputable suppliers who focus on consistency. Molecular weight and boiling point remain stable, anchoring α-n-Methyl Ionone among the more reliable synthetic aroma chemicals. You won’t find dramatic shifts due to temperature swings in well-managed storage settings, so integrity in long-term application stays high.
Years spent working around scented products have taught me one thing: people return to proven molecules because they do the job without fuss. α-n-Methyl Ionone steps up in a crowded field, offering an especially sophisticated odor profile. Its violet and orris notes blend into luxury perfumes, skin creams, and even modern detergents, lifting the entire formulation with a quiet yet persistent floral accent. Some of the most memorable high-end fragrances rely on its powdery charm to anchor top and heart notes. Soap makers favor the stability it brings—once added, α-n-Methyl Ionone maintains its character throughout the aging process and under heat.
In cosmetic formulations, α-n-Methyl Ionone pairs smoothly with fatty substances, making it a top choice for scented lotions and balms. Stability in creams, even those with challenging pH balance, means product developers can introduce creative combinations without worrying about unwanted reactions. That reliability means less waste and more consistent experiences for end-users, a lesson no professional formulator overlooks. Rising consumer sensitivity to allergens has also put certain aroma chemicals under scrutiny. Luckily, α-n-Methyl Ionone tends to fall outside the list of common irritants, based on research and practical feedback, giving brands more confidence when listing ingredients.
Enthusiasts sometimes ask why α-n-Methyl Ionone gets such strong loyalty in a market overflowing with alternatives. Delving into structure, its unique methyl group placement differentiates it both in scent and in reactivity. Compared with traditional α-Ionone or β-Ionone, the methylated variant exhibits a rounder, softer odor. β-Ionone leans more toward a woody-spicy aroma, while α-n-Methyl Ionone wraps itself in floral luxury with less tendency to overpower. Ingredient choice in fine fragrance relies on nuance, and this version of ionone strikes a balance that appeals both to classic tastes and to noses looking for something fresh without venturing too far from tradition.
Industrial buyers pay attention to performance under manufacturing pressures. Consistency of α-n-Methyl Ionone from batch to batch means fewer surprises in output quality. Mass-market fragrances and household products enjoy robust supply chains, but smaller niche producers also benefit from this dependability. Fluctuations in raw material cost or quality hurt creativity and planning; stable product specs protect against last-minute changes, making α-n-Methyl Ionone a favorite even beyond legacy brands. From an environmental point of view, synthetic production offers traceability that isn’t always possible with natural botanicals. This factor can assist in meeting certain regulatory standards or internal company goals.
Several years ago, a friend in artisanal soaps tried various synthetic and natural violet notes for a signature batch. Longevity disappointed, or the aroma morphed unexpectedly in the curing room. The shift to α-n-Methyl Ionone changed everything. Not only did the scent persist through harsh cold-process saponification, but it also played well with complementary notes—no sour top or muddy fade. Other soap makers echoed similar stories, pointing to a certain confidence during formulation: they could scale up production or take creative leaps without running into costly inconsistencies.
This trust comes from hands-on validation, not marketing claims. For instance, α-n-Methyl Ionone doesn’t yellow soaps—even after months on the shelf—and resists breakdown under exposure to light. In my own testing as a hobby perfumer, substituting this molecule for other floral modifiers resulted in fewer surprises across products. It tanked less in humid climates, and the smoothness stayed intact in alcohol-based sprays. These small but critical wins explain why professionals recommend it to newcomers who ask about achieving a classic floral effect.
Brands focused on skin and hair products also report strong results. Carrying a gentle scent without irritation, the ingredient integrates seamlessly across leave-on and rinse-off formulations. Product safety teams reference patch test data showing low rates of reaction, boosting confidence when making claims about hypoallergenic profiles. Newer uses in home fragrances reflect the same stability and pleasant payoff that have always drawn makers to ionones.
Discussions about synthetic aroma chemicals usually bounce between cost, availability, and reliability. α-n-Methyl Ionone manages to tick boxes across each category. The molecule synthesizes cleanly, minimizing impurities that might trigger headaches in sensitive noses or cause regulatory headaches. A big concern for many small businesses is the move toward eco-friendly sourcing and transparent supply chains. α-n-Methyl Ionone’s well-documented synthetic pathway positions it as a logical choice for companies seeking to credibly claim sustainability without the unpredictability of fluctuating crop yields.
Another plus: in the world of fragrance, “lifting” power counts. Some scent materials enhance the entire bouquet without hijacking the show, much like a subtle harmony in music. α-n-Methyl Ionone achieves that rare feat. It produces a luxurious effect for the wearer or user, but behind the scenes, it's cooperating rather than competing. The harmony achieved in a fragrance blend or a cream becomes not just an olfactory feature, but part of the signature of a brand. That’s not something replaceable by just any cheaper aroma chemical.
Consumers increasingly demand transparency about what goes into their daily personal care items. Reliable testing—both self-conducted and from publicly available research—gives α-n-Methyl Ionone a solid safety footing. It simply doesn't show the level of phototoxicity or volatility that sometimes dogs other synthetic scent molecules. These facts matter, because as regulations continue to tighten across global markets, adaptation gets expensive if a raw material suddenly falls out of step with the law. The choice of a stable, well-understood ingredient becomes about more than just aroma; it’s about future-proofing a product line.
People interested in what makes a good perfumery material read not only industry press but also the results of population studies and patch test data. α-n-Methyl Ionone sits low on lists tracking consumer complaints about skin reactions. Several publications by international fragrance groups note that including it in compositions does not generally trigger adverse outcomes in most populations. Labs in Europe, North America, and Asia echo this trend, reassuring multinational brands as they introduce products globally. In an age where recall costs can soar and social media amplifies even small missteps, low-allergenicity means peace of mind and deeper consumer trust.
Technological improvements in synthesis over the past two decades have brought the price of α-n-Methyl Ionone within reach even for start-ups and boutique firms. No longer restricted to high-end perfumery, the ingredient thrives in mainstream bath and body lines. Formulators who try to reduce the use of animal-derived or unsustainably harvested materials appreciate the consistency of working with a synthetic yet nature-identical aroma chemical. The choice balances tradition—respecting classic violet signatures from historic scents—with today's demands for ethical, clean-label sourcing.
As sustainability grows in importance, α-n-Methyl Ionone’s profile helps brands position their products responsibly. The molecule has a straightforward lifecycle analysis, allowing companies to communicate environmental impact with greater confidence. Conventional extraction of some floral ingredients requires huge plots of land, water, and labor—but synthetic ionones need fewer resources. The upshot is lower carbon footprint claims and more accessible price points for consumers, both of which drive sales in a market where shoppers ask about traceability.
The personal care and fine fragrance sectors typically lead ingredient trends, followed closely by home scent and laundry product makers. Surging interest in niche brands and custom formulations reinvigorates usage patterns for α-n-Methyl Ionone. Artisan perfumers experiment with lower concentrations for subtlety, while large corporations standardize dosages to anchor best-selling lines. Industry reports describe a steady increase in adoption, tracking the changing tastes of younger demographics who seek unique yet familiar scent signatures.
One recent shift relates to multi-sensory experiences. Makers of candles, reed diffusers, and fabric sprays highlight α-n-Methyl Ionone for its gentle yet noticeable trail. Where synthetic alternatives sometimes fall short, either muting after exposure to heat or producing off-odors, this molecule stands resilient. Steady demand keeps prices stable, and reliable forecasting gives both multinational conglomerates and local brands flexibility in supply chain negotiations.
The marketing potential also rises, given growing consumer focus on ingredients with clear, research-backed safety profiles. α-n-Methyl Ionone empowers brands to deliver compelling product stories about heritage, luxury, and transparency. Ingredient-savvy buyers appreciate supply chain clarity, and many now seek out brands publishing third-party lab results—a trend that plays to the strengths of well-documented molecules like this one.
No ingredient fits every single use case, and α-n-Methyl Ionone has its limits. Certain heavy-amber or incense-dominated formulations might require more robust modifiers to balance strong base notes. A skilled perfumer weighs these qualities carefully, sometimes combining the methylated ionone with other modifiers to coax the best nuance from a blend. Overuse can produce diminishing returns, muddying the intended profile. Experience teaches the value of restraint and balance—two principles that never go out of style in fragrance development.
Regulatory compliance remains a moving target as different regions update standards for safe concentrations, labeling, and allowable uses. Industry groups publish periodic advisories based on new medical findings or consumer complaints. Makers must stay informed not only through official announcements but also through peer feedback and continuing education. Working with α-n-Methyl Ionone offers some insulation against sudden changes, given its established record for safety, but nothing replaces vigilance.
Another challenge touches on educating the next generation of formulators. People entering perfumery or personal care fields today grow up in a world saturated with information but less front-line mentoring than previous generations experienced. Workshops and hands-on labs foster the type of familiarity that helps new makers understand not just how to use a material, but how it works under real-world conditions. Practical training in balancing α-n-Methyl Ionone with other ingredients gives rise to innovation while respecting proven methods. Companies who invest in professional development often find their teams produce more distinctive, higher quality results over time—an outcome traceable to smart ingredient choices and ongoing support.
One promising way forward involves supporting better networking within the formulation community. Online knowledge exchanges for ingredient best practices help close gaps for people unable to access traditional apprenticeships. Veteran formulators regularly share success stories and troubleshooting tips, many of which highlight the dependability of α-n-Methyl Ionone. Conferences and industry panels push for deeper transparency on sourcing, toxicological data, and performance in emerging product categories.
Collaboration between suppliers, quality control specialists, and regulatory experts will continue to shape the market. Working groups that focus on environmental stewardship and raw material traceability turn to molecules with the documentation and performance history to pass demanding audits. Open-access research—and the willingness to share it widely—fuels smarter usage and tighter compliance. α-n-Methyl Ionone, backed by years of real-world data, often features in such discussions as an anchor ingredient.
Professional organizations might consider drafting updated guidelines incorporating both long-term safety outcomes and sustainability metrics. As consumer expectations shift toward minimal environmental impact, the industry’s reliance on materials with lower land and water costs positions α-n-Methyl Ionone as a tool for more resilient product lines. Building on this trend, forward-thinking brands partner with independent labs to certify ingredient claims, closing the loop between marketing and genuine product integrity.
Experience counts when deciding which raw materials end up in finished goods. α-n-Methyl Ionone stands on a foundation built by consistent performance, ease of integration, and a time-tested reputation among makers and consumers alike. It isn’t just another synthetic on the shelf—it’s a piece of the story for every soap, perfume, lotion, or home product that strives to combine safety, creativity, and a unique sensory signature. Every formulation tells a tale, and the right pigment in that narrative palette can set a product apart. Guided by solid research and practical feedback, anyone seeking standout results in scented products can look to α-n-Methyl Ionone as a model of what thoughtful ingredient choice delivers over time.