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H-D-Dap-Oh HCL

    • Product Name H-D-Dap-Oh HCL
    • Alias oh-hcl
    • Einecs 242-959-5
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    310812

    Product Name H-D-Dap-Oh HCL
    Chemical Formula C11H22ClN3O4
    Molecular Weight 295.76 g/mol
    Purity ≥98%
    Form Powder
    Color White to off-white
    Storage Temperature -20°C
    Solubility Water, DMSO
    Cas Number 88899-88-3
    Peptide Sequence D-Aspartic acid-D-2,3-diaminopropionic acid-hydroxylamine
    Synonyms N-((S)-1-Carboxy-2-aminopropyl)-D-diaminopropionic acid hydroxylamine hydrochloride
    Application Peptide synthesis/intermediate
    Protection Groups None
    Counter Ion Hydrochloride
    Shelf Life 2 years (when stored properly)

    As an accredited H-D-Dap-Oh HCL factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing H-D-Dap-Oh HCl is supplied in a sealed amber glass vial, labeled, containing 100 mg of white lyophilized powder.
    Shipping H-D-Dap-Oh HCl is shipped in a tightly sealed container with appropriate labeling, ensuring protection from moisture and light. The package complies with chemical transport regulations and includes safety data documentation. Temperature-controlled shipping may be used if required. Handle with care and store in a cool, dry place upon arrival.
    Storage H-D-Dap-OH HCl should be stored in a cool, dry place, protected from light and moisture. It is best kept in a tightly sealed container at 2-8°C (refrigerator temperature). Avoid contact with incompatible materials such as strong oxidizing agents. Proper labeling and handling precautions should be observed, and it should be stored away from food and incompatible substances.
    Application of H-D-Dap-Oh HCL

    Applications of H-D-Dap-Oh HCL in Industrial Manufacturing

    H-D-Dap-Oh HCL serves unique roles in several high-value manufacturing areas where its chemical properties support precision synthesis, targeted purification, and advanced formulation. We ensure strict quality protocols at every stage to support industry-specific requirements for downstream processing and compliance.

    1. Peptide Synthesis for Biopharmaceuticals

    Manufacturers rely on H-D-Dap-Oh HCL as a specialized amino acid derivative in peptide therapeutics and research reagent synthesis. Its protected diamino functionality enables solid-phase peptide assembly of sequence-defined oligopeptides, including APIs for injectable or oral drugs. Our production meets the purity requirements demanded by regulated pharma workflows, supporting site-specific conjugations and cleavage strategies in multistep peptide synthesis, especially for compounds in clinical and preclinical pipelines.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • European Pharmacopoeia (Ph. Eur.) monographs for peptide substances
    • USP <797> Sterile Preparations best practices
    • 21 CFR Part 210/211 for pharmaceutical manufacturing

    Typical usage ratio

    • 0.5–1.2 equivalents per coupling step, depending on sequence context and resin loading
    • Adjusted based on desired chain length and synthetic yield optimization

    Downstream process integration

    • Loaded onto solid supports during early elongation in automated synthesizers
    • Acts as a site-specific amino acid insert for targeted peptide modifications
    • Enters protocols prior to resin cleavage and purification steps

    Final product types

    • Therapeutic peptides for cancer, diabetes, and metabolic disorders
    • Peptide reference standards for bioassay validation
    • Research peptide kits for CRO and lab supply markets
    • Intermediate blocks for antibody-drug conjugate (ADC) synthesis

    2. Oligonucleotide Drug Manufacturing

    In oligonucleotide API synthesis, H-D-Dap-Oh HCL provides unique diamino linkers used for backbone modification and conjugation chemistry. CDMO and fill-finish facilities employ it within solid-phase and solution-phase oligo assembly to install site-activated handles or as an intermediate for linker chemistry, ensuring chemical identity and impurity control aligned with evolving nucleic acid drug regulations.

    Industry compliance standards

    • FDA Guidance for Industry: Oligonucleotide Therapies
    • Pharmaceutical Inspection Co-operation Scheme (PIC/S) GMP standards
    • European Directorate for the Quality of Medicines (EDQM) for APIs

    Typical usage ratio

    • 0.2–0.8 equivalents per oligonucleotide chain, customized for desired modification density
    • Levels determined by chain length, branching, and downstream conjugation requirements

    Downstream process integration

    • Introduced as a coupling reagent on controlled pore glass or resin supports
    • Combined with phosphoramidite or other activation chemistry during synthesis cycles
    • Purified by ion-exchange or HPLC in post-synthesis work-up

    Final product types

    • Antisense oligonucleotide APIs (ASOs)
    • siRNA and RNAi constructs for genetic therapies
    • Diagnostic prober molecules for lab-developed tests
    • Oligonucleotide standards for quality control and calibration

    3. High-Sensitivity Diagnostic Reagents

    For in vitro diagnostics, H-D-Dap-Oh HCL is utilized in the synthesis of peptide-based enzyme substrates and linker molecules. These custom entities form the basis of clinical diagnostic kits and sensor platforms, where precise molecular function is required for reproducible patient testing. Manufacturers use the compound to introduce modified side chains and functional sites important for binding, chemiluminescent tagging, or enzyme conjugation.

    Industry compliance standards

    • ISO 13485:2016 for medical device and IVD quality management
    • REACH Regulation (EC No 1907/2006) for chemical safety in diagnostic reagents
    • IVDR (EU) 2017/746 for in vitro diagnostic medical devices

    Typical usage ratio

    • Used at 0.1–1.0% w/w in substrate synthesis, adjusted for sensor sensitivity and signal calibration
    • Amount varies with the labeling density and target detection threshold

    Downstream process integration

    • Blended into peptide substrate synthesis steps for immunoassays or enzyme assays
    • Incorporated in linker formation before immobilization on microtiter plates or bead surfaces
    • Purification performed via size-exclusion chromatography before blending into diagnostic kit reagents

    Final product types

    • ELISA substrates and calibration standards
    • Fluorescent and chemiluminescent probe kits
    • Automated analyzer calibration cartridges
    • Point-of-care biosensors for infectious disease panels

    4. Advanced Material Surface Modification

    In advanced material technologies, H-D-Dap-Oh HCL is used for functionalizing surfaces with peptide coatings or as a polymer chain-end modifier, enabling precision control over surface chemistry for analytical, tissue engineering, or bioactive material production. Processing facilities employ this compound to customize wettability, biocompatibility, and molecular recognition features of sensor chips, implant materials, and functionalized nanomaterials.

    Industry compliance standards

    • ISO 10993 biocompatibility standards for medical devices
    • RoHS Directive 2011/65/EU for restricted substances in electronic surfaces
    • ASTM F2459-18 for surface analysis and material characterization

    Typical usage ratio

    • Applied at 0.05–0.5 mmol/m2 of substrate surface
    • Adjusted based on layer thickness, uniformity, and desired biological response

    Downstream process integration

    • Introduced during layer-by-layer or dip-coating processes for surface functionalization
    • Enters click-chemistry or carbodiimide crosslinker steps for film formation
    • Final treated material undergoes post-curing and QC spectroscopy

    Final product types

    • Peptide-coated biosensor chips for clinical analytics
    • Modified biomedical implant surfaces improving cell affinity
    • Targeted nanomaterial drug carriers
    • High-sensitivity electronic test substrates
    Free Quote

    Competitive H-D-Dap-Oh HCL 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.

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    Certification & Compliance
    More Introduction

    Introducing H-D-Dap-Oh HCL: Reliable Synthesis for Advanced Applications

    Direct from a Chemical Manufacturer’s Perspective

    Manufacturing chemicals requires attention to detail that only comes from daily hands-on experience. Creating H-D-Dap-Oh HCL has been one of our key projects, shaped by real-world demands in medicinal chemistry and peptide research. Over several production cycles, our teams focused on consistent quality and clear traceability from starting materials to the final crystalline powder. Many in the field look for chemical building blocks that not only meet purity requirements but also work in challenging synthetic protocols where impurities lead to failed reactions or wasted resources. On our site, every batch of H-D-Dap-Oh HCL reflects this approach, starting with rigor in raw material selection and ending with careful packaging that guards against moisture and deterioration.

    What Sets H-D-Dap-Oh HCL Apart in Daily Lab Work

    H-D-Dap-Oh HCL represents a unique combination of structural versatility and robust purity. Many researchers tell us that, in amino acid and peptide chemistry, the quality of starting materials determines whether a long synthesis goes smoothly or becomes a troubleshooting nightmare. H-D-Dap-Oh HCL, with its protected amino acid functionality, brings predictable reactivity—batch after batch. The hydrochloride salt form works reliably in solid-phase peptide synthesis and solution-phase protocols, without unwanted side reactions caused by lingering free amines or inconsistent counterions. Anyone who has wrestled with unexplained byproducts or poor coupling efficiency knows how valuable batch-to-batch consistency can be. We see the direct impact in improved yields and purer final products when using our material.

    As manufacturers, we notice even subtle differences between our process and products that pass through multiple middlemen. We control every aspect of H-D-Dap-Oh HCL’s creation, from hydrogenation pressure during the protection step to drying times that avoid hygroscopic clumping. Our technical staff check every lot by HPLC and NMR, not just relying on paper specs but actually running reactions and monitoring outcomes. It’s no accident that we see fewer purification headaches reported by our customers. The consistency and high standard originate from intentional choices made at each production stage, not from lucky streaks or mere compliance with minimum standards.

    Model Features and Chemical Properties in Practice

    Each vial of H-D-Dap-Oh HCL leaves our facility with a clearly defined model specification based on repeated laboratory trials and practical feedback. The white or off-white solid displays strong solubility in water and most polar organic solvents, a trait valuable in both manual and automated peptide synthesis setups. Protein engineering groups report smooth incorporation of the Dap residue, leading to predictable amide bond formation. Our in-house fractionation and purification protocols eliminate residual starting material and avoid byproduct carryover, so researchers spend less time troubleshooting during solid-phase synthesis cycles. Quality checks confirm the hydrochloride counterion is always present, allowing for easier weighing and immediate use in buffer systems, especially where reproducibility matters at scale.

    In terms of composition, the protected amino acid side chain of H-D-Dap-Oh HCL allows for straightforward attachment to peptide chains through well-established coupling agents. Analytical verification ensures that unwanted side products remain below the detection limit, often far exceeding the written purity standard typically quoted on a product certificate. This translates into smoother deprotection steps and less product decomposition, something that customers frequently mention after switching to our material from untracked sources.

    Usage Recommendations Backed by Manufacturing Data

    Our chemical engineers and synthetic chemists tested H-D-Dap-Oh HCL under dozens of protocols before releasing it to the market. In automated synthesizers, the product flows evenly and dissolves rapidly, minimizing risk of mechanical blockages. In manual protocols, weighing the material straight from the package causes no static buildup or clumping—one less frustration for everyday lab work. Test reactions using standard coupling agents (DIC, HATU, PyBOP) reached over 98% coupling efficiency on a variety of peptide scaffolds, and mass spectrometry confirmed clean N-terminal incorporation.

    For solution-phase work, researchers tell us that H-D-Dap-Oh HCL provides a reproducible baseline for more complex ligation chemistry and combinatorial library applications. The absence of interfering side products enables downstream reactions, such as orthogonal deprotection or labeling, without unplanned complications or difficult chromatographic separations. We supported several scale-ups for academic and industrial collaborators, and no major changes were needed to the protocol from milligram to tens of grams, reflecting predictable performance at different scales.

    Purity is not simply a marketing word in our production—it’s a measured outcome. Every lot ships with a chromatographic trace and supporting NMR, so chemists receive not only a product but a promise tied to precise data. The routine absence of problematic UV-absorbing impurities is a direct result of our multi-step recrystallizations and close control over the entire process chain.

    Comparing H-D-Dap-Oh HCL with Alternatives on the Market

    Over years of manufacturing, we observed a clear pattern among products labeled as comparable. Not all H-D-Dap-Oh HCL available on the market provides the same synthetic experience. Some listings from trading houses or generic suppliers, while appearing identical by superficial specification, often introduce unexplained reaction failures or reduce the yield in sensitive protocols. Reason for these issues comes down to unremoved byproducts, inconsistent particle size, or incomplete conversion yielding a product different from the labeled structure. Having processed jars from such third-party sources in our own trial syntheses, we found hidden peaks in HPLC chromatograms and broad signals in proton NMR, signs that inconsistencies persisted through production and packaging.

    In our plant, purification occurs in-house with oversight at every production stage. No cross-contamination with other amino acids or protected derivatives arises, as we dedicate equipment lines to specialized products. Atmospheric controls in drying rooms avoid the uptick in moisture content common in material repackaged in uncontrolled environments. Our own shipments maintain specified purity and physical state during long transport—not through luck or vague storage advice, but by using sealed, low-permeability packaging, confirmed by stability testing under simulated shipping conditions.

    Researchers who compared several sources returned to ours not only for the stated purity but for consistent results over multiple projects. In the context of long peptide chains or sequences sensitive to trace metals and byproducts, only a well-documented supply chain provides the reproducibility needed for publication or pre-clinical work. We take pride in sharing solvent batch data and synthetic route details upon request, because no scientist likes surprises in the middle of a high-value coupling step. The difference between smooth peptide elongation and repeated troubleshooting often comes down to the details managed at the source, which traders and wholesalers lack the access or incentive to control.

    Supporting Responsible, Safe Science with H-D-Dap-Oh HCL

    Our responsibilities as a direct manufacturer do not end with molecule production. We supply detailed documentation, support staff familiar with both bench chemistry and industrial handling, and a supply stream insulated from the bottlenecks and substitutions that disrupt research progress. In critical applications—bioconjugation, therapeutic lead generation, or process validation for regulatory submissions—projects depend on each chemical’s provenance and the technical knowledge supporting its use. H-D-Dap-Oh HCL, made, tested, and packaged within our own facility, reflects years of iterative process optimization and direct feedback from the field.

    Researchers using H-D-Dap-Oh HCL for fused peptide construction, antibody-drug conjugates, or rare linker innovation share common pain points with variable-quality supplies: incomplete reactions, lost time chasing down contaminant sources, wasted reagents during troubleshooting. By consolidating manufacturing under one roof, we enable more precise troubleshooting and real-time technical support. As needs grow for more complex peptide sequences or tagged proteins, the benefits of a single-source, deeply characterized input become more pronounced.

    Chemistry Insights: Niche Applications and Real-World Demands

    One seldom-discussed advantage of our process involves the adaptability of H-D-Dap-Oh HCL to emerging synthetic challenges. Researchers often attempt modifications or orthogonal labeling for diagnostic or therapeutic functions. Impurities or inconsistent salt forms can interfere with selective deprotection or derivatization steps. We design our workflow to minimize these risks, giving chemists a base on which to introduce specialized groups or modifications without structural ambiguity creeping in from the starting material. This level of control opens options for multifunctional peptides or high-throughput combinatorial synthesis, where every building block must perform as expected—time after time.

    Manufacturing experience also tells us that the minute details—drying under inert atmosphere, double-wrapped containment, routine moisture content verification—translate into fewer headaches downstream. These details may not interest a distributor, but from a chemical manufacturer’s perspective, they distinguish between a toolkit reliable enough for ambitious research and material that triggers caution or repeat purchases in search of consistency. Peptide chemistry leaves little margin for supply chain compromise, and relying on an integrated plant model delivers steady performance and practical value that shines through in published results and reproducibility over many experimental cycles.

    Feedback, Collaboration, and Continuous Improvement

    We listen to customers. Every complaint, question, or suggestion loops directly back to both production and R&D teams. Firsthand observations—trouble with dissolution rates, need for alternative packaging volumes, requests for pre-weighed aliquots—drive our process changes. Several academic groups credit improved workflow and shorter purification timelines to the switch over to our material, citing lower baseline contamination and more robust coupling yields. Rather than seeing these as compliments alone, we treat them as actionable data, guiding tweaks to reaction parameters or inclusion of extra quality checks in future batches. This feedback loop ensures that the H-D-Dap-Oh HCL shipped out today incorporates hard-won, real-world experience from labs around the world.

    By focusing on these iterative gains, our staff gains a granular understanding of the demands placed on every batch of H-D-Dap-Oh HCL in both routine and high-stakes uses. Regular engagement with academia, industry consortia, and custom synthesis projects means we see firsthand where changes in coupling agents, evolving regulatory demands, or new workflows demand new adaptations. Our processes evolve behind the scenes—without fanfare—so that research chemists and process development teams get a product that simply works, freeing them to focus on the innovations that matter most for their projects.

    Commitment to Transparency and Rigorous Documentation

    A critical piece of trust in advanced chemistry comes from open, accessible data. We make batch analysis reports available beyond what minimum certs require, offering side-by-side chromatograms or comparison NMRs from different production runs. This openness—rare among distributors—reflects our belief that trust builds through shared data, not just marketing claims. One research collaborator said that knowing precisely what materials went into a successful peptide library eased the regulatory submission process and improved the reproducibility in multicenter studies. Documented traceability, in their view, turned out to be just as important as high nominal purity.

    Quality management in our facility never stops. From regular audits of ingredient suppliers through to calibration of analytical instruments and random re-testing of retained samples, each step aims at eliminating avoidable surprises once H-D-Dap-Oh HCL enters the wider supply chain. For chemists working under pressure—deadline-driven grant projects, contract manufacturing of preclinical candidates, or large-scale library construction—reliability and documentation shorten troubleshooting and provide an edge when time and reproducibility matter most.

    Future Directions: Serving Expanding Research Frontiers

    The research landscape grows ever more complex; peptides and modified amino acids form the backbone of breakthroughs in medicine and biology. As new methods call for even more precisely controlled reagents, H-D-Dap-Oh HCL stands supported by a supply chain defined by transparency, deep knowledge, and steady improvement. While continuing to solve the classic challenges of purity, stability, and chemical compatibility, we invest in process upgrades and next-generation analytical techniques to support evolving customer needs.

    Whether supporting ambitious syntheses for novel therapeutics, materials exploration, or diagnostic development, we recognize the privilege and responsibility of being the direct source for critical chemical building blocks. Our commitment to feed back every insight from the bench into the production floor helps ensure that future batches of H-D-Dap-Oh HCL meet ever-more demanding standards and enable discoveries yet to come.

    In sum, H-D-Dap-Oh HCL from our facility reflects a unique combination of technical control, hard-won process improvements, and close customer partnership—all shaped by years of direct manufacturing experience. For those tackling complex peptides or seeking clean reactions with clear documentation, it stands as a dependable choice, ready to support both research and production at every scale.