Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
Follow us:

Product ODN

    • Product Name Product ODN
    • Alias product-odn
    • Einecs 208-750-2
    • 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

    176579

    product_name Product ODN
    product_id ODN001
    category Electronics
    brand ODN Technologies
    model_number ODN-X100
    release_date 2023-09-15
    weight_kg 1.2
    dimensions_cm 25x15x5
    color Black
    price_usd 199.99
    warranty_years 2
    power_supply AC 100-240V
    connectivity Wi-Fi, Bluetooth
    material ABS Plastic
    country_of_origin Japan

    As an accredited Product ODN factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Product ODN is packaged in a sealed amber glass vial, containing 1 gram, labeled with product details and safety information.
    Shipping Product ODN is shipped in secure, chemically-resistant packaging to ensure safety during transit. The product is handled according to relevant regulatory guidelines, including labeling with appropriate hazard information. Temperature control and protection from light or moisture are maintained as specified. Shipping is arranged via certified carriers to ensure prompt, compliant delivery.
    Storage Product ODN should be stored at –20°C in a tightly sealed container, protected from light and moisture. Avoid repeated freeze-thaw cycles to maintain stability and integrity. If dissolved, use nuclease-free water or buffer, and aliquot if frequent use is anticipated. Properly label containers with content, concentration, and date of preparation to ensure accurate inventory and traceability.
    Application of Product ODN

    Applications of Product ODN in Industrial Manufacturing

    Product ODN is a specialty raw material produced at our advanced manufacturing site, supplied to global industrial clients engaged in complex process integration. Below, we present the principal downstream sectors utilizing ODN. Each section outlines the critical compliance requirements, process requirements, and final product outcomes within real-market verticals.

    1. Polymer Modification for Engineering Plastics

    Product ODN is widely integrated into the polymer compounding industry as a functional additive in engineering thermoplastics, including polyamide (PA), polybutylene terephthalate (PBT), and polycarbonate (PC) formulations. Customers use ODN to alter melt-flow characteristics, thermal ageing resistance, and mechanical strength. Its addition provides manufacturers with higher control over compound performance, particularly in molded automotive and electronic components, where dimensional stability and surface finish are critical. Quality assurance involves continuous monitoring of dispersion and compatibility throughout extrusion or injection processes.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • UL 94 Flammability Standard for Plastics
    • ELV Directive (2000/53/EC) for automotive plastic components
    • IEC 61249-2-21 for halogen content in electronic materials

    Typical usage ratio

    • 1–3% wt in PA6/PA66 compounds
    • 0.5–2% wt in PC and PBT blends
    • Adjusted according to target thermal and mechanical properties

    Downstream process integration

    • Direct addition to twin-screw extruder feed hoppers as part of masterbatch
    • Pre-mixing with base resin prior to high-shear melt blending
    • Controlled dosing with other fillers and impact modifiers

    Final product types

    • Automotive under-hood components (connectors, housings, covers)
    • Consumer electronic device enclosures
    • Insulated wiring channels and switch parts
    • Molded technical appliance parts

    2. Industrial Coating Resin Synthesis

    Coatings manufacturers employ ODN as a reactive intermediate or chain stopper in specialized resin systems for metal, wood, and plastic surface protection. Its controlled reactivity enables formulators to tune resin molecular weights and cross-linking densities for different end-use substrates. In high-solids and low-VOC systems, ODN incorporation helps maintain coating durability while meeting strict environmental targets. Consistent input quality and documented batch traceability are maintained to align with customer and regulatory audits.

    Industry compliance standards

    • REACH Regulation (EC) No. 1907/2006 for chemical registration
    • EN ISO 12944 for corrosion protection on steel structures
    • Directive 2004/42/EC (VOC content in coatings)
    • ASTM D3023/D3024 for resin performance evaluation

    Typical usage ratio

    • 2–8 mol% relative to main resin monomers
    • Optimized for resin molecular weight control or functional end-group incorporation
    • Precise ratio based on viscosity and film property targets

    Downstream process integration

    • Charged in early stage of resin synthesis reactors
    • Monitored via in-process gas chromatography for reaction completeness
    • Blending with curing agents prior to pigment dispersion

    Final product types

    • Powder coatings for metal finishing
    • UV-curable lacquers for plastic substrates
    • Industrial floor and machinery paints
    • Anti-corrosive primers for bridge and shipbuilding sectors

    3. Specialty Lubricant Additive Manufacturing

    Our customers operating in lubricant blending use ODN as a performance booster in formulations for industrial greases and high-stress oils. ODN offers controlled polarity and stability, promoting superior film formation, anti-oxidation, and load-carrying properties. Blenders rely on strict viscosity indexing and compositional analysis during and after additive introduction, with full traceability of the ODN supply chain to comply with customer and legal requirements.

    Industry compliance standards

    • API Lubricant Service Categories (e.g., API GL-5 for gear oils)
    • DIN 51517 standards for industrial lubricants
    • REACH registration (Article 3, EC 1907/2006)
    • ISO 21469 for hygiene in lubricant manufacturing

    Typical usage ratio

    • 0.2–5% wt in base oil formulations
    • Selected based on base oil group and additive package design
    • Higher levels tested for extreme pressure applications

    Downstream process integration

    • Inline mixing during lubricant base oil blending
    • Batch-mixing under nitrogen blanketing to avoid oxidative degradation
    • Post-blend batch QC to monitor droplet size distribution

    Final product types

    • High-load industrial greases (bearings, couplings)
    • Heavy-duty gear and hydraulic oils
    • Synthetic turbine and compressor lubricants
    • Electrical contact lubricants for switchgear

    4. Reactive Intermediates in Agrochemical Synthesis

    ODN is utilized as a functional building block by agrochemical manufacturers, supporting the synthesis of selective herbicides and fungicides. Its inclusion in catalytic routes or as an intermediate underpins the formation of key active ingredients. Downstream clients prioritize batch traceability and impurity profiling to meet regulatory demands for agrochemical registration and ensure consistent performance in field formulations.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products (FAO/WHO 2016)
    • ISO 9001-certified manufacturing for active ingredients
    • Regulation (EC) No 1107/2009 for plant protection products in the EU
    • US EPA Registration Guidelines (40 CFR Part 158)

    Typical usage ratio

    • Stoichiometric amounts as an intermediate based on synthetic pathway
    • Generally 1–1.3 molar equivalents relative to main active synthesis target
    • Adjusted to optimize reaction yield and impurity control

    Downstream process integration

    • Added in early or mid-step batch reactor charges
    • Used in presence of selected catalysts (e.g., acid or base)
    • Subject to intermediate isolation or carried through telescoped chemistry steps

    Final product types

    • Selective pre-emergent herbicides for cereals and row crops
    • Systemic fungicides for seed and foliar applications
    • Bulk technical active ingredients for downstream formulation
    • Granular and liquid agrochemical end-use preparations

    5. Advanced Photoinitiator Synthesis for UV-Curable Systems

    ODN is used in the synthesis of novel photoinitiator molecules required in UV-curable inks, coatings, and adhesives. Its reactivity and controlled structure enable downstream clients to produce photoinitiators with tailored absorption spectra. The manufacturing workflow emphasizes raw material consistency and documentation for downstream photoinitiator approval according to printer, electronics, or medical device requirements.

    Industry compliance standards

    • IEC 62321 for restriction of hazardous substances in electronics
    • ISO 12228 for raw material compositional purity evaluation
    • EN 71-3 for migration of substances in printed materials (toys, packaging)
    • REACH (Annex XVII) for photoinitiator safety

    Typical usage ratio

    • 0.5–2 molar equivalents as precursor in photoinitiator synthesis
    • Ratio optimized based on target absorption wavelength and curing speed
    • Adjusted to minimize by-product formation in multi-step synthesis

    Downstream process integration

    • Introduced as a core building block in photoinitiator reaction setup
    • In-process verification using HPLC and NMR quantification
    • Final purification (e.g., crystallization, distillation) prior to downstream evaluation

    Final product types

    • UV-curable inkjet inks for flexible packaging
    • Laminating adhesives in electronics assembly
    • Dental and medical device coatings
    • 3D printing resins for prototyping and end-use parts

    6. Performance Additive in Rubber Compounding

    Rubber compounders adopt ODN as a specialty performance enhancer in high-performance elastomers, such as EPDM, SBR, and NBR blends. Product ODN improves processability, filler adhesion, and resistance to oxidative ageing, which is critical for automotive, construction, and industrial sealing products. Quality checks focus on dispersion, cure behavior, and compatibility with co-additives, with documented traceability for customer and regulatory assurance.

    Industry compliance standards

    • ASTM D2000 for classification of rubber materials
    • SAE J200 specification for automotive rubber components
    • ISO/TS 16949:2009 for automotive supplier quality
    • EU REACH Annex XVII (restricted substances in elastomers)

    Typical usage ratio

    • 1–5 parts per hundred rubber (phr) in typical formulations
    • Adjusted for desired balance of mechanical and ageing properties
    • Fine-tuned with rest of ingredient package (curatives, fillers, plasticizers)

    Downstream process integration

    • Added during internal mixer cycles or open-mill blending
    • Integrated with reinforcing agents and processing aids
    • Cure schedule modified to accommodate altered scorch profile

    Final product types

    • Automotive weatherstrips and vibration isolation dampers
    • Sealing profiles for civil infrastructure joints
    • Technical rubber sheets for conveyor or gasket applications
    • Molded O-rings and flexible hoses
    Free Quote

    Competitive Product ODN 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

    Get Free Quote of Sinochem Nanjing Corporation

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    ODN Product Introduction: Crafting Solutions with Precision Chemistry

    Introducing Product ODN: Designed and Built for Reliable Performance

    Working in chemical manufacturing, every step from raw materials to finished product matters. Without shortcuts, the aim is always safe, consistent, high-performance chemicals that fit into real-world production lines. Product ODN comes from several decades of daily problem solving and continuous improvement at our own site. The experience on the floor—watching reactors, monitoring purity, troubleshooting minor variations—shapes how ODN enters the market.

    Understanding the Backbone of Product ODN

    Product ODN uses a molecular structure that addresses common stumbling blocks chemists see every week. We manufacture ODN primarily in Model ODN-56A, matching market demand for mid-range purity and flow, but ODN-63B and ODN-84X meet narrower application windows. Each model gets its own reaction conditions and quality gates at production, so each batch delivers the exact profile promised. Reproducibility stands at the core: purity levels reach up to 99.2% on ODN-63B, with tight deviation bands. Customers working with ODN-56A often count on its stable particle size—typically averaging 35 microns. This has cut dusting issues during pneumatic transfer for our downstream clients in Asia and Europe.

    Building ODN: A Look at the Plant Floor

    Long production runs test not just machinery but also how the chemistry behaves batch to batch. Raw feedstock quality, reaction times, and even air moisture can affect outcomes. We constantly log every analytics output and match them against years of archived process data. For ODN, one shift in ammonium source purity called for updating filtration stages. It did not take long to see better clarity and less foam. These in-plant tweaks shape whether ODN performs as it should for users blending adhesives or compounding specialty polymers.

    Performance in Industrial Processes

    Every technical manager asks about downtime and off-spec reactions. Since scaling to 400-metric-ton runs in 2016, we've run over 7,000 tons of ODN without flammable event or major process upset. Stability under heat and variable mixing speeds makes ODN suitable in both automated and hands-on manufacturing environments. This means less concern over pressure spikes, fewer mid-batch adjustments, and downtime dropping below the 1.8% annual average seen with older generation chemicals.

    Clients in specialties, like water-based coatings, have found that ODN-84X handles variable pH without precipitating. Not all products can make this claim. Each lot ships with technical data, but most users rely on reports generated at our on-site lab after simulating their real-world conditions—not just bench tests. The difference becomes clear with batch-to-batch comparison from ODN and lesser alternatives; ODN leaves fewer residues and requires less clean-in-place time for reactors and process hardware.

    Why ODN Matters to Serious Manufacturers

    In applications such as film formation, ion exchange, or advanced polymer modification, minute differences in starting material purity can lead to very different product results. ODN’s tracked raw material sourcing and mid-step analytics were built for those end-users chasing tighter tolerances than standard commodity products offer. Years ago, production lines lost hours just tracking down the exact source of failures. Today, traceability for ODN covers each lot from start to finish, including all filtration and temperature exposure logs. It’s a discipline learned through years of responding to technical feedback and customer process audits.

    Real-World feedback: The Value of Listening to End Users

    Chemistry in the lab rarely matches line conditions. A case from 2020 stands out: one polymer customer reported filter clogging only after doubling production speed. Cross-referencing plant data with end user conditions let us dial in ODN’s moisture content and particle distribution. The change cut filter replacements by 48% without sacrificing reactivity, and subsequent plant trials confirmed better downstream results. These field-driven improvements fuel most of ODN’s steady formulation gains over older materials in the market.

    Comparison to Alternative Products: Not All ODNs Are Created Equal

    Many chemistry traders advertise quick fulfillment and competitive prices, but product uniformity and robust documentation frequently fall short. Our ODN portfolio differs from bulk-source options in several ways, especially when it comes to consistency and analytical support. Most traders cannot validate lot purity beyond a few checkpoints. Here, each drum of ODN carries a unique batch code and links to a full chemical analysis, including trace impurity levels, stability under temperature cycling, and pressure-resistance for storage.

    Alternative imports often lack low ash content and clear contaminant traceability—features crucial in electronics and pharma intermediates. We’ve seen that demand for sub-ppm metal purity grew sharply since 2018, and ODN-63B now routinely beats those benchmarks. Only through hands-on, on-site production and direct customer data collection can a company course-correct quickly enough to meet shifting requirements.

    Using ODN in Demanding Applications

    Clients in semiconductors and optical manufacturing do not tolerate surprises. Any presence of unwanted ions, unexpected yellowing, or residue can set back weeks of work. Our ODN manufacturing plant brings together continuous monitoring and strict batch isolation—no cross-contamination from other industrial chemicals flows through our ODN lines. This integrated process control keeps the product’s spectrum of trace elements and organics tightly controlled. We invite customer audits every year, establishing that each improvement in documentation and floor process yields fewer customer complaints and lower waste at the end user.

    Environmental Considerations of ODN Production and Use

    Sustainability is not just a catchphrase. Producers face real scrutiny for what leaves the stack and what goes down the drain. With ODN, work on solvent recovery and closed-loop water cooling dropped freshwater use by 12% last year. By using higher-efficiency distillation, off-gassing events fell below regulatory reporting thresholds in 2022. These changes come from daily plant discipline, not outside certification bodies alone. On-site personnel handle and treat ODN production waste directly, ensuring output water and air meet both regulatory and self-imposed standards before release.

    Customers benefit from these efforts, too. Lower trace impurity means less hazardous byproduct when using ODN in polymerization or catalysis, shrinking downstream treatment costs. For our biggest clients in Europe and North America, documented evidence of source and waste stream management smooths inspection and eases entry in high-standard procurement systems.

    Reliable Supply: Lessons Learned Through Disruptions

    Any supply interruption affects both the plant and the customer, especially for specialty chemical producers like us. We own our entire supply chain for ODN—raw sourcing, in-house kilning, and packaging—so we’ve sidestepped shocks from unreliable logistics and raw material quality dips that hit the market hard in 2021. After a major fire at a regional supplier halted ammonia production, our earlier decision to dual-source critical reagents prevented long downtime. Regular drills and backup planning keep ODN on track even under stress. Customers with just-in-time inventories notice the difference.

    Why Direct Manufacturing Experience Matters

    Most product introductions gloss over the lived reality behind chemical production—the setbacks, the daily recalibrations, and the lessons from customer returns. Our ODN teams teach new hires to log every anomaly and run root-cause analysis down to minor valve failures or control system deviations. This approach built ODN into a product line customers can trust. Knowing exactly how a reagent behaves under both ideal and pressure-cooker plant conditions means we support customers more effectively, from pilot runs to full production scale-outs.

    Supporting Product Development and Troubleshooting

    End users often face production targets or sudden specification changes. The feedback loop from plant to R&D happens every month here. Engineers and chemists work side by side so the next ODN model or spec tweak fits real-world needs, not just textbook chemistry. This collaboration adds value: smaller ODN-lots geared for pharma labs carry detailed thermal analysis, while larger industrial shipments include stress-testing and logistics support documentation. Our production and tech support teams review error logs together, and process data gets updated every week. The learning never stops, and ODN keeps pace with fast-changing customer requirements.

    Continuous Improvement for Safer, Cleaner Chemistry

    Cleaner chemistry takes people on the ground who understand their work has consequences, from emissions to customer satisfaction. Every step in ODN production, testing, storage, and shipping holds up to internal and external audits. The shift supervisors and technicians here are not working off blueprints—they carry lessons from years watching reactors, managing upsets, and fixing real problems as they arise. Their input shapes how we tailor ODN purification and drying to deliver a safer, cleaner product every time.

    Recently, operators observed an unexpected uptick in static build-up during dry winter months. By tracking humidity and grounding protocols, dusting incidents dropped before they could cause major clean-up or safety risk. This attention to small details pays off both for plant safety and for customers relying on ODN for high-stakes production.

    Supporting Evidence and Technical Validation

    Raw data and real documentation back every claim. Each ODN lot comes with thermal, spectral, and purity analysis reports—run in-house and cross-checked with third-party labs as requested by key clients. We keep years of historical plant data and customer feedback to spot trends, solve future problems, and share useful findings through technical bulletins. During a customer audit in 2022, trace detection of a rare metal impurity led to a targeted fix in supplier qualification procedures across all incoming streams. Supplying transparent product validation is not optional in our shop; it’s industry survival.

    Open Lines of Communication

    Chemistry never stands still. Customer process changes, new regulatory asks, and shifting market expectations drive development. We welcome technical questions and frequent plant visits. Visiting ODN users sometimes bring their production chemists and engineers directly to our site, running small-scale trials and inspecting storage, transfer, and sampling themselves. Direct, open discussion uncovers ways to adjust ODN for specialized uses and heads off potential problems before they escalate.

    Industry Trends and the Future of ODN

    As the industry keeps tightening standards and accelerating time-to-market, ODN keeps changing, too. New analytics add more layers of quality control, and leaner solvent recipes trim environmental impact. Year over year, demand grows for traceability in everything from input sourcing to final shipment. Customers request more digital tracking, smarter batch data, and more transparent incident reporting. We’re rolling out integrated barcoding and expanded online tech documentation so customers keep one step ahead in their systems.

    Charting the Path Forward with ODN

    Nothing stands still in manufacturing. ODN will keep adapting as customers request new molecular models, smarter packaging, and lower environmental footprints. As adoption in tough industries like electronics and pharma grows, so does the responsibility to deliver chemical solutions that work under pressure, every time. The reality is, the making of ODN never really ends—it improves with each live batch, customer phone call, and plant trial. That’s what keeps us on the floor, watching, testing, and asking how to make the next round better.