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HS Code |
323369 |
| Chemical Name | 2-Hydroxymethyl-4-Boc-Morpholine |
| Cas Number | 1416996-85-0 |
| Molecular Formula | C10H19NO4 |
| Molecular Weight | 217.26 g/mol |
| Appearance | White to off-white solid |
| Purity | Typically >98% |
| Melting Point | Approximately 62-66°C |
| Solubility | Soluble in DMSO, methanol |
| Storage Temperature | 2-8°C, protect from light and moisture |
| Synonyms | tert-Butyl 4-(hydroxymethyl)morpholine-4-carboxylate |
| Smiles | CC(C)(C)OC(=O)N1CCOCC1CO |
As an accredited 2-Hydroxymethyl-4-Boc-Morpholine 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-Hydroxymethyl-4-Boc-Morpholine, securely sealed and clearly labeled with product and hazard information. |
| Shipping | 2-Hydroxymethyl-4-Boc-Morpholine is shipped in tightly sealed containers, protected from moisture and direct sunlight. The chemical is packaged according to safety regulations, using appropriate labeling and hazard documentation. During transit, temperature and handling conditions are monitored to maintain product integrity and ensure compliance with relevant chemical transportation standards. |
| Storage | 2-Hydroxymethyl-4-Boc-Morpholine should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong acids or oxidizers. Keep the container tightly closed and protected from light and moisture. Store at 2-8°C (refrigerator), and avoid prolonged exposure to air to maintain compound stability and prevent degradation. |
Applications of 2-Hydroxymethyl-4-Boc-Morpholine in Industrial Manufacturing2-Hydroxymethyl-4-Boc-Morpholine plays an essential role as a specialty intermediate across several focused industrial sectors. As the original manufacturer, our experience supplying this material is grounded in documented use cases, customer process requirements, and regulatory-driven formulation standards. Below, we detail its major downstream industrial application areas, processing conditions, compliance frameworks, and end product types. 1. Active Pharmaceutical Ingredient (API) SynthesisPharmaceutical companies integrate this intermediate during multistep synthesis routes, particularly in producing protected morpholine derivatives vital for antihypertensive and antiviral drug APIs. Researchers utilize its reactivity for precise alkylation and protection reactions in manufacturing advanced morpholine-based scaffolds. Its inclusion enables chemists to manage the selectivity and purity needed for regulated drug intermediates, guaranteeing consistency through process validation and batch record controls. Industry compliance standards
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2. Custom Peptide SynthesisIn peptide manufacturing, this chemical functions as a morpholine-based protecting group introducer during solid-phase and solution-phase peptide synthesis workflows. Its application enhances orthogonal protection strategies, particularly for Lysine- or Serine-containing peptides, enabling better control of branching and side-chain modifications. Specialist peptide contract manufacturers rely on its predictable cleavage and compatibility with trifluoroacetic acid to streamline complex sequence construction for targeted biologics. Industry compliance standards
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3. Fine Chemical Production for Agrochemical ActivesProducers of crop protection active ingredients employ this compound as a morpholine derivative in heterocycle-building stages, contributing to the core structure in fungicides and growth regulators. Its chemical stability and defined reactivity patterns provide reliable stepwise construction for new-generation agrochemicals, supporting registration and analytical documentation. Operators select it for process consistency, minimal side product formation, and compatibility with multi-ton batch synthesis protocols. Industry compliance standards
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4. Advanced Polymer Additives ManufacturingSpecialty polymer formulators introduce this compound to synthesize functionalized morpholine groups within high-performance engineering plastics and polyurethane chains. The hydroxymethyl-morpholine structure imparts improved chemical stability and unique reactive sites, making it suitable for imparting secondary crosslinking, chain extension, or targeted degradation features in polymers designed for electronics, automotive, or aerospace uses. Industry compliance standards
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From years of steady production, we’ve seen firsthand how the right intermediate can make or break a multi-step synthesis. 2-Hydroxymethyl-4-Boc-Morpholine evolved right inside our own reactors to answer the precise needs chemistry professionals wanted filled. We built this compound from scratch, shaped its purity profile through hard-won tweaks, and landed on a process that delivers not just consistent supply but dependable results.
At its core, this molecule keeps the morpholine ring structure and adds a tert-butoxycarbonyl (Boc) group on the fourth position while attaching a hydroxymethyl at the second. Chemists asked for a morpholine derivative where the nitrogen is protected during key transformations, saving time and reducing failure rates in downstream chemistry. We listened, nudging the process until side reactions were minimized, moisture uptake controlled, and purity levels raised.
From batch sampling straight out of glass-lined reactors, we test for HPLC purity above 98%, with water content and related substances both held in check by careful storage and smart reactor design. In practical terms, this means the bottles leaving our warehouse keep a dry free-flowing appearance with minimal caking. Users who came from using bulk, technical grade morpholines recognize the difference—once they switch, callbacks move from “my product crashed out overnight” to “I finally get reproducible yield.”
Over the years, a flood of basic morpholine hydrochloride, methyl morpholine, and other N-protected variants hit the secondary markets, but none quite stuck for late-stage alkylations and functional group transformations because small issues crept in: tough deprotection steps, impurity carryover, lost potency, or unstable handling. Our 2-Hydroxymethyl-4-Boc-Morpholine enables smooth downstream cleavage, gives a clean cut to the protecting group under standard acidic conditions, and keeps the core intact.
Compared with alternatives like N-Boc morpholine lacking a functional handle, this variant gives chemists both a handle and a protected site, opening up two points for further manipulation. In medicinal chemistry and bioactive compound libraries, the extra functional group gets used for conjugation, and the Boc group shields unwanted reactions through grueling multi-step syntheses. Users say they get higher final product yields with a clearer profile in HNMR and LC-MS.
Clients running pilot lines or even small-volume kilo productions report direct compatibility with their amide coupling regimes, click chemistry, and protecting group strategies. We received samples from partners who compared our material straight against rival offerings, and after repetitive issues with excess water, inconsistent color, or instability on standing, those conversations most often end with a request for repeat supply. It isn’t just about purity—tight consistency between lots matters because any small impurity or variable moisture shifts the outcome.
Any chemical can be produced with minimal oversight and sold at a bulk rate, but over time our experience convinced us to keep stringent internal cutoffs: HPLC purity above 98%, specific rotation checked, and volatility under control. We don’t take shortcuts with our distillation; our glass equipment gets recharged after each campaign, and all storage happens under nitrogen with validated desiccants. Our technical team still runs spot checks with each new batch and fields real-world troubleshooting calls at short notice.
Many buyers tell us their main challenges with other suppliers aren’t just contamination or off-quality stock—it’s inconsistency between batches, limited shelf stability, or handling troubles mid-reaction. We’ve lived through these frustrations too. The only way up is meticulous documentation and hands-on inspection, so each drum or bottle gets a unique internal code labeling its reactor, synthesis date, and all subsequential checks.
We get calls from labs where a difference of a few tenths of a percent in water or an extra spot in LC traces leads to a breakdown in their workflow. By offering a line-by-line breakdown of impurity profiles and packing each consignment with fresh, low-moisture packaging, we prevent headaches at the bench. Any complaint or return gets logged and analyzed—it’s more than a business risk; it’s a matter of pride and professional obligation.
Our initial runs produced modest yields with longer reaction times, but continual process optimization has paid off—cycle times halved, and effluent management tightened. Many big players cut costs by moving to steel reactors or outsourcing early intermediates, but we chose to keep full control. Glass remains our standard for all water-sensitive morpholine chemistry, and a full solvent recovery system runs in tandem.
Chemists working on structure-activity relationships or scale-ups come back to us saying that the tight control of the Boc group’s integrity and the low volatility of the hydroxymethyl function let them streamline their workflows. With no fouling of filters and no inconsistent purity drift, they spend less time troubleshooting and more time hitting deadlines.
From large-scale pharma to university research, chemists use our 2-Hydroxymethyl-4-Boc-Morpholine in different applications: coupling, cyclization, linker building, and derivatization. We’ve seen it in antibiotic intermediate research and even in advanced materials lines for specialty polymers. By running small pilot batches in parallel with main production, we help clients tweak process parameters before scaling up. Consistency isn’t just a slogan here; it’s something we’ve field-tested and challenged over years of repeat orders and audits.
Many facilities offload quality control to final steps or let basic QA pass chemical lots. We integrate tracking from procurement of starting esters and amines all the way through to bottling. Every time we receive a callback about a failed reaction or out-of-spec result, we run back through our logs and timeline to pinpoint the cause—then document what gets fixed and how. Operating at scale puts pressure on price, but we’ve learned that cutting a corner in solvent drying or intermediate purification only causes more trouble further down the chain.
This compound rarely sits on the general lists of commodity chemicals. Each batch represents hundreds of test reactions and man-hours invested to fine-tune reaction profiles. Customers working in time-sensitive areas keep a standing order with us simply because finding a new supplier involves more than reading off an SDS or spec sheet—it means betting their project’s success on consistency, knowledge, and the manufacturing track record.
Our partners in API scale-up consistently report that alternative protected morpholines cause unforeseen problems when switching from lab to pilot plant—bleed-through of solvents, crystallization issues, or an unclear impurity envelope. By maintaining small-molecule handling protocols, with particular emphasis on effective drying, same-batch shipping, and storage at controlled temperatures, we keep the performance steady whether you’re ordering grams or kilograms.
We’ve never treated our feedback log as background noise. One customer needed a lower residual base content for an automated step; another sought improved color quality to pass stringent appearance checks in bulk formulations. Thanks to the close loop between the lab, quality team, and plant manager, real process tweaks happened in days, not months. These data also help steer improvements in our analytic protocols—can we spot shifts in UV absorbance under stress conditions? Can we identify sources of trace sodium or calcium?
Despite tight processes, we prepare ourselves for outliers. Internal audits trace all deviations and help us implement corrective measures immediately. It’s a continuous give-and-take—feedback comes in from users at all knowledge levels, not just expert chemists.
We welcome technical questions, requests for supporting documentation, or unusual test conditions. Some clients bring rigorous custom requirements—demanding photocatalytic or electrochemical testing before using even a kilogram. We prepare sample lots, run tests together in parallel, and always keep open lines of communication with the teams running the final projects. Sharing process know-how helps foresee challenges—even unusual ones, like high-pressure chromatography or spinning basket extractions.
Repeat customers often mention that their trust is built not only on certificate numbers but on personal experience: quality lots, matched documentation, honest answers, and prompt troubleshooting.
We take environmental and safety priorities seriously, for our own workers and for client end-users. Every new process gets a full HAZOP review, and emissions are managed through advanced abatement. All waste handling, bottle cleaning, and spent solvent recovery happen on-site, within a closed-loop track-and-report regimen. Years back, a small spike in air emissions led us to invest in new filtering and capture systems—since then, improvements in environmental metrics reflect our continuous learning.
For users, proper handling still matters: we remind partners to store material below 25°C, avoid repeated drum openings, and keep inert gas blankets on large stocks. We provide up-to-date safety sheets, but proven, practical advice transfers customer to customer—stories about what works and what fails under real-life conditions. This feedback loop means safety doesn’t stay on paper but becomes muscle memory for new users.
Years ago, a researcher in the early stages of a CNS drug program reached out with a curious request: could we supply close analogs with the Boc group swapped for a different protecting group, or with deuterium enrichment for tracing studies? The outcome for us was not just one-off custom runs, but a deepened understanding of morpholine manipulation and a connection to real-world, high-impact research. Our support doesn’t end with standard catalog stock; we chase down new side-products, check on historical samples, and log every insight.
The result is a product line always guided by the needs—and ambition—of the global research community. Users in therapeutic, diagnostic, and new functional material development bring us ideas, and we feed these back into our R&D. Several improvements to the 2-Hydroxymethyl-4-Boc-Morpholine process pipeline came directly from outside-the-factory insight.
Our logistics team does more than just push cartons out the door. By maintaining temperature records, humidity loggers, and rapid response protocols, delivery never means turning working material into a lottery. Any concern about brick formation or loss of activity leads to a prompt replacement or technical response. We see ourselves as partners; every delivered order reflects months of remote teamwork between chemical engineers, quality officers, and users in the field.
Each time we ship a batch, post-campaign reviews highlight where the process excelled and where it met resistance. Sometimes a minor color shift prompted a switch in a minor solvent or traced back to a pipeline cleaning step; sometimes a customer request for tighter granulometry led us to try alternate drying techniques. Our teams all bring stories of nights spent dialling in a purification profile or juggling six parallel HPLC runs to trace an impurity.
From our perspective, chemical manufacturing brings real, often unseen, challenges—raw material variation, seasonal humidity, and the unpredictability of every synthesis. We have grown to value the details: every improved filter, every tweak to the nitrogen purge, every recalibrated analytical standard brings measurable returns not just to us, but to our partners.
In a landscape filled with traders and bulk re-packers, the skill and attention that come from acting as the true manufacturer create a tangible difference. Long-term users see it reflected not just in their final research product but in the reliability, confidence, and peace of mind that only direct engagement provides. For us, the value of 2-Hydroxymethyl-4-Boc-Morpholine goes beyond its chemical formula, showing up each day in the hands of those who use it for discovery, innovation, and real technological progress.