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Carbon Monoxide

    • Product Name Carbon Monoxide
    • Alias CO
    • Einecs 200-001-8
    • 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

    611867

    Chemical Formula CO
    Appearance colorless gas
    Odor odorless
    Solubility In Water moderately soluble
    Flammability highly flammable
    Toxicity highly toxic
    Cas Number 630-08-0

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

    Packing & Storage
    Packing Carbon Monoxide supplied in a high-pressure steel cylinder, 10 liters capacity, clearly labeled with hazard symbols and gas concentration information.
    Shipping Carbon monoxide is shipped as a compressed, liquefied gas in high-pressure steel cylinders or specialized tankers. Cylinders are clearly labeled with hazard warnings due to its toxic and flammable nature. Strict regulations govern its handling, transportation, and storage to ensure safety and prevent accidental releases during transit.
    Storage Carbon monoxide should be stored in tightly sealed, clearly labeled gas cylinders designed for compressed gases. Storage areas must be cool, well-ventilated, and away from heat sources, ignition points, and incompatible chemicals. Cylinders should be secured upright to prevent falling, and protected from physical damage. Proper signage and restricted access are essential, and detectors for leaks should be installed for safety.
    Application of Carbon Monoxide

    Applications of Carbon Monoxide in Industrial Manufacturing

    As an established manufacturer of carbon monoxide, we deliver consistent quality gas for critical processes across multiple chemical industries. We supply long-term partners in metallurgical refining, organic synthesis, acetic acid production, polycarbonate resin, pharmaceutical chemical synthesis, bulk oxo-alcohol manufacturing, and high-purity gas mixtures. Below, we detail precise industrial uses that represent the main downstream applications, including relevant production specifications, industrial ratio guidelines, key process steps, and finished goods made using our material.

    1. Metal Refining and Reduction

    Metallurgists use carbon monoxide extensively as a reducing agent during extraction and purification of non-ferrous and precious metals. The gas reacts with metal oxides at elevated temperatures, enabling extraction in catalytic converters and blast furnaces. Our gas supplies ironmakers and nickel refineries seeking lower residual oxygen and minimized formation of unwanted metal carbides, delivering high purity essential for precision metal grades.

    Industry compliance standards

    • EN 14175 (Safety standards for fume extraction systems)
    • EU REACH Regulation for chemical agents
    • ASTM E2793 (Standard Guide for Production of Metallurgical Grade Carbon Monoxide)
    • ISO 4957 (Tool Steels Purity Requirements related to gas impurities)

    Typical usage ratio

    • 10%–40% by controlled volume in reducing furnace atmospheres, depending on ore chemistry and target metal purity
    • Ratio adjusted for reaction kinetics and downstream gas recycling parameters

    Downstream process integration

    • Injected directly into blast furnaces for reduction of Fe2O3 and other oxides
    • Flow metered into fluidized bed metal refining reactors for recovery of tungsten, nickel, or molybdenum
    • Used in continuous convertors for stainless steel and specialty alloy production

    Final product types

    • Pig iron and refined steels
    • Nickel, tungsten, molybdenum, and cobalt metals
    • Superalloys and complex metal powders for additive manufacturing
    • Engineered metal catalysts

    2. Acetic Acid and Acetate Derivatives Synthesis

    Chemical processors employ carbon monoxide in large-scale Monsanto and Cativa processes for acetic acid synthesis. In these catalytic systems, the gas reacts with methanol under rhodium or iridium catalysis, demanding consistent feed quality with low sulfur and water content. End-users rely on our material for plant reliability and cost-efficient operation of integrated acetate chains.

    Industry compliance standards

    • ISO 9001 (Quality Management for Chemical Production)
    • REACH Annex XVII (Acetic acid and intermediates usage restrictions)
    • ISO 22241 (Process water purity & contamination control)
    • Chinese GB/T 12207-2021 for Industrial Acetic Acid Manufacturing

    Typical usage ratio

    • CO to methanol stoichiometric ratio close to 1:1 in Monsanto/Cativa reactors
    • Process control adjusts gas excess up to 1.1:1 for catalyst lifetime extension and byproduct minimization

    Downstream process integration

    • High-pressure, high-temperature gas injection after pre-drying and contaminant filtration
    • Continuous monitoring of CO feed quality to minimize iridium/rhodium deactivation
    • Recycling of unreacted gas to improve resource efficiency

    Final product types

    • Glacial acetic acid
    • Vinyl acetate monomer (VAM)
    • Acetic anhydride
    • Cellulose acetate and solvent derivatives

    3. Polycarbonate and Polyurethane Production

    Major resin manufacturers use carbon monoxide as a precursor in the production of phosgene, which then reacts with bisphenol-A or polyols for polycarbonate and polyurethane material synthesis. High purity control and moisture content testing form part of our QC, since impurities in feed gas translate into color, molecular weight, or structural issues in downstream polymers. Our production supports continuous runs in both batch and loop reactor configurations.

    Industry compliance standards

    • ISO 1833-2017 (Polymer Manufacturing Standards)
    • ASTM D5630 (Standard Test Method for Volatile Content in Polycarbonate)
    • ECHA SVHC Compliance for Bisphenol-A Compounds
    • Japanese JIS K 7351 (Polycarbonate Quality Control)

    Typical usage ratio

    • Derived as needed on-site for complete conversion with chlorine in phosgene generators: typical 1:1 molar phosgene synthesis with minor CO excess
    • Adjustment made for reactor residence time and end product application (optical, automotive, etc.)

    Downstream process integration

    • Continuous dosing into phosgene generation columns
    • Real-time leak and residual monitoring for plant safety
    • Linkage to on-demand chlorine feed and downstream polycondensation reactors

    Final product types

    • Polycarbonate sheets/granules (for glazing, electronics, bottles)
    • Rigid polyurethane foams and elastomers
    • Specialty copolymers for automotive parts and medical devices
    • Engineering thermoplastics

    4. Pharmaceutical and Fine Chemical Intermediates

    Our product supports synthesis of carbonyl-containing pharmaceutical intermediates via transition metal (Pd, Ni) catalyzed carbonylation. The gas introduces carbonyl groups into aromatic or aliphatic compounds, as in the manufacture of ibuprofen, paracetamol, and certain APIs. Strict impurity and moisture control ensure catalyst longevity and final product integrity for regulated pharmaceutical supply chains.

    Industry compliance standards

    • ICH Q7 (GMP for Active Pharmaceutical Ingredients)
    • USP/NF Pharmacopeia Monographs as relevant per API
    • EU GMP Part II for Fine Chemical Manufacturing
    • ISO 14644 (Cleanroom Standards for Pharmaceutical Synthesis)

    Typical usage ratio

    • Variable: 1:1 to 1.5:1 molar ratio to base substrate, tuned to reactor throughput and selectivity needs
    • Dosing controls prevent over-carbonylation and minimize side-reaction risk

    Downstream process integration

    • Metered addition into high-pressure catalytic reactors
    • Integrated gas flow with liquid phase batch and continuous systems
    • Downstream pressure swing adsorption for solvent stripping and purification

    Final product types

    • Ibuprofen and propionic acid derivatives
    • Paracetamol intermediates
    • Phenylacetic and cinnamic acid API precursors
    • High-value pharmaceutical building blocks

    5. Bulk Oxo Alcohol and Aldehyde Manufacturing

    Major chemical producers employ our gas for large-scale hydroformylation (oxo synthesis) in the production of butyraldehyde and higher oxo alcohols. Tight quality, pressure, and flow control are necessary as the gas reacts with propylene or other olefins in the presence of a cobalt or rhodium catalyst. This process underpins numerous downstream plasticizer, surfactant, and lubricant markets.

    Industry compliance standards

    • ISO 9001 (Bulk Chemical Production Quality Management)
    • REACH registration of hydroformylation products
    • Process Safety Management standards (e.g., OSHA 29 CFR 1910.119 for US)
    • Responsible Care Initiative adherence

    Typical usage ratio

    • CO:H2 ratio typically 1:1 for hydroformylation; precise adjustment for selectivity, pressure, and raw material balance
    • CO:olefin ratio maintained slightly above theoretical to maintain conversion rates and minimize catalyst fouling

    Downstream process integration

    • Feed blending upstream of high-pressure hydroformylation reactors
    • Inline flow and purity controls, with closed loop gas recovery for efficiency
    • Downstream product separation via distillation and solvent extraction

    Final product types

    • N-Butanol and isobutanol
    • 2-Ethylhexanol
    • Butyraldehyde and fatty alcohols
    • Plasticizers (DEHP, DOTP), surfactant alcohols, lubricant intermediates

    6. Electronic and Specialty Gas Applications

    Manufacturers of electronic materials incorporate high-purity carbon monoxide in applications demanding ultra-low hydrocarbon and moisture content, including semiconductor grade process atmospheres and specialized gas mixtures. Our production includes scrupulous purification and certification to satisfy advanced materials and device fabrication sectors.

    Industry compliance standards

    • SEMI C67 (Specifications for Electronic-Grade Gases)
    • ISO 14644 (Contamination Control for Cleanrooms)
    • IEC 60747 (Semiconductor Devices Standard)
    • RoHS Directive 2011/65/EU (restriction of hazardous substances in electronics)

    Typical usage ratio

    • Introduced at volume fractions from 1–20% for controlled atmospheres in epitaxy and wafer processing
    • Purity requirements: typically <1 ppm moisture, <0.5 ppm total hydrocarbons

    Downstream process integration

    • Direct connection from gas bundles to mass flow controllers in semiconductor fabs
    • Used in CVD reactors for thin film deposition and etching reactions
    • Mixture preparation for advanced R&D and photolithography environments

    Final product types

    • Semiconductor wafers and microelectronic devices
    • Thin film solar cells
    • Electronic grade specialty gas mixtures
    • Advanced coating materials
    Free Quote

    Competitive Carbon Monoxide prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Carbon Monoxide: A Practical Introduction from the Manufacturer’s Perspective

    Working with Carbon Monoxide Every Day

    Carbon monoxide is one of those core industrial gases that has earned its place in many production lines for a reason. It’s got a simple formula—CO—but earns that respect through performance and reliability in demanding environments. From our vantage, handling and supplying this gas is both a matter of technical rigor and practical experience. Factories have asked for flexibility in supply sizes, so we fill cylinders at pressures that match what their processes demand—most often at 99.9% purity and above, because no one wants a second guessing game with reactivity. For larger-scale users, tube trailers and bulk packs create options for continuous flow.

    Real-World Applications of Carbon Monoxide

    Most people outside chemical manufacturing only talk about carbon monoxide as a danger. On the production floor, it’s a valued chemical intermediate, especially in synthesis pathways that need its strong reducing properties. You find this gas turning up in hydroformylation, or oxo synthesis, making aldehydes from alkenes and hydrogen—a cornerstone for producing plasticizers, synthetic lubricants, and alcohols. Refineries use it in Fischer-Tropsch reactions, converting it with hydrogen into liquid fuels. For the pharmaceutical sector, it remains central to those carbonylation steps required for customized active ingredients. Steelmakers rely on controlled atmospheres containing carbon monoxide, fueling blast furnaces, and keeping the oxygen content at safe limits, which improves yield and quality.

    Over the years, we’ve also noticed that small research labs and specialty chemical factories turn to us with requests for smaller, high-purity lots. Instrument calibration and analytical standards use traceable, tightly controlled gas blends, where even minor impurities change results. So, carbon monoxide shows up not only in large-scale runs but also when precise measurement counts.

    Purity and Packaging: Details that Matter

    No two customers want their gas supplied the same way, which keeps us on our toes during production and quality checks. Purities for general use usually land at 99.9% and higher. Laboratories ask for 99.99% or more, sometimes with certification to prove trace impurity limits. For gas mixtures, our blending equipment maintains concentrations from a few percent to strict ppm levels, documented by certificate. Tubes and cylinders are cleaned for moisture and hydrocarbon traces, since even a hint can throw off a reactor or test result.

    Packaging options must fit the way carbon monoxide gets used at the site. Standard steel cylinders run from small sizes for pilot studies up to 50L and more for steady operations. For customers using several tons per month, we offer bulk packs configured for their transfer system. Everything gets labeled with production date, lot number, and our own unique batch identification, a practice born out of traceability requirements after the odd customer audit.

    Why Sourcing Direct from the Manufacturer Makes a Difference

    After decades in the business, we’ve seen what happens when buyers go with resellers or brokers without much technical background. Things like outdated cylinders, ambiguous purity certificates, and delayed deliveries can break a production schedule or create safety headaches. We manufacture and fill on-site, giving us visibility into every lot that leaves our facility. If a user calls about an off-odor or pressure drop, we look up the filling record, cylinder history, maintenance logs, and Lab QC in minutes. This isn’t marketing—it’s the difference that direct supply brings, and it often prevents costly shutdowns or process contamination for our customers.

    The Safety Conversation: Practical Precautions, Not Scare Tactics

    We won’t sugarcoat hazards. Carbon monoxide acts as a toxic gas at low concentrations, and our loading team deals with this reality each shift. We use fixed-point detectors and portable meters throughout fill stations, vehicle loading zones, and storage points. Training for our staff doesn’t just tick regulatory boxes—each new operator pairs with a veteran, learning safe connection, leak check routines, and incident drills. This hands-on approach keeps everyone alert for odorless releases and line issues.

    Delivering to customer sites isn’t simply about drop-off, either. Many companies don’t have deep in-house expertise with pressurized toxic gases. We walk through their connection and venting setup, share our routines for safe valve opening, and run pressure tests. For long-term customers, we offer return cylinder inspections and shut-off maintenance. These steps matter more than any number on a spec sheet.

    Comparing Carbon Monoxide to Other Industrial Gases

    Factories often weigh carbon monoxide against hydrogen, nitrogen, or methane when planning a new process. What sets carbon monoxide apart is its selectivity in reactivity and its importance in carbonyl-based chemical production. Where hydrogen might reduce oxides indiscriminately, carbon monoxide targets certain reactions, yielding specific products like alcohols, acids, or metal carbonyls without as much unwanted byproduct.

    Nitrogen, often used for inerting or blanketing, doesn’t have the reductive or synthesis value that carbon monoxide brings to a catalytic system. Methane and carbon dioxide don’t contribute carbonyl groups or support the same synthesis pathways, making them less versatile where fine-tuned organic synthesis is required. Customers using syngas (CO mixed with H2) for oxo synthesis or Fischer-Tropsch find it difficult to substitute anything else and maintain product and yield targets.

    Product Evolution and the Role of Feedback

    We rely on feedback from industrial users and researchers. In the early days, supplies were limited to standard industrial grades, typically for metallurgy or bulk synthesis. As demand shifted—pharma needing high-purity, environmental labs asking for tight impurity controls—our own blending, purification, and detection methods adapted. Feedback from a customer who encountered metal carbonyl contamination in trace analysis drove us to invest in better cylinder cleaning and inline filtration. Every time a customer points out a challenge, we adapt. Over time, this built a sharper operational edge, supporting tighter specs and more robust tracking.

    This ongoing dialog also shapes our approach to product support. Someone who’s ramping up for a unique pressure swing adsorption or carbonylation reaction may need advice on supply security, changeover protocol, or backup systems. Our team openly shares what’s worked—and what’s gone sideways—in past projects, saving time and reducing risk for both sides.

    Manufacturing Realities: From Raw Material to Filled Cylinder

    Producing carbon monoxide safely and efficiently is about much more than a one-time process. Most manufacturers use controlled oxidation of high-purity methane, utilizing a specific catalyst and monitored temperature regime. This keeps the balance between complete conversion and unwanted byproducts. Some operations rely on gasification of coal or biomass, though this route requires much more cleanup to remove sulfur, nitrogen oxides, metals, and dust.

    Once produced, the raw gas undergoes multi-stage purification. We pass it through water scrubbers and molecular sieves to reduce residual moisture and oxygen content. Activated carbon and fine filters trap organics and trace metals. Every fill batch gets a QA check in our on-site lab. Chromatographs look for nitrogen, methane, oxygen, moisture, and a handful of trace contaminants down to single-digit ppm levels, because even a small deviation raises alarms for our critical users. Cylinders are purged in cycles, pressure-tested, and certified to DOT and ISO standards before leaving the fill station. This level of control is both routine and hard-earned—one equipment failure, and the whole batch gets quarantined until every reading checks out.

    Environmental and Regulatory Pressures

    Laws shift faster than most realize, especially where emissions and occupational exposure limits are concerned. Agencies have tightened reporting on cylinder tracking, pressure testing, and leak monitoring. For employers and buyers, navigating these evolving requirements calls for robust documentation, which we maintain as a matter of routine. Every delivery includes batch traceability and a record of valve cleaning and inspection cycles.

    Disposal and recycling of returned cylinders also factor in. Rather than let assets gather dust, we designed a refurbishment line that cleans, hydrotests, and relabels cyliders, giving them back to the fleet with full QA sign-off. Scrap rates dropped, and customers can order with confidence, knowing safety and reliability take priority from production through to return.

    Cost Realities—Beyond List Prices

    In the market for carbon monoxide, price fluctuations hit hardest when supply chains crack or regulatory changes drive sudden demand. For large-scale users, even a 2% price increase can mean significant extra costs per month. By keeping production in-house and offering direct delivery, we shield customers from volatile swing pricing characteristic of third-party traders. Logistics matter just as much: scheduled deliveries, emergency refills, and on-the-spot cylinder swaps prevent any lost time in a 24/7 process plant.

    Some customers seek blended prices for syngas packages, where flexibility and just-in-time delivery outweigh lowest per-unit cost. We follow usage forecasts and stock management, ensuring extra supply stands ready during plant ramp-ups, turnarounds, or new project launches—which means less time scrambling for supplementary shipments or substitutes.

    Process Integration Support

    Everyone working with process gases knows transitions and start-ups can trigger hiccups: blocked regulators, slow fills, or unexpected pressure drops complicate a finely tuned operation. We keep in close contact with maintenance teams, providing adjustment records and valve recommendations based on observed wear, rather than prescribing oversimplified schedules. On new installations, our engineers review flow diagrams, help with design changes, and answer technical calls, whether about line pressure, filter swaps, or detector placement.

    Calibration users, especially in air quality and environmental sectors, rely on precisely mixed and certified CO-in-nitrogen or CO-in-air standards for their measurement equipment. Our QA procedures align closely with international calibration standards, so users have solid chain-of-custody documentation for their audits. If a batch underperforms, we investigate, retest, and provide a corrective replacement immediately—learning with every case.

    Supporting Innovation with Reliable Supply

    Innovation depends on both access to specialized purities and flexible fulfillment—from a single cylinder for a pilot trial to a multi-ton order for a new production line. Technical users need supplier partners who understand urgency and the details unique to each project. That means customizing fill sizes, adjusting impurity targets, and, sometimes, working through transportation challenges in heavily regulated environments.

    Besides supplying the gas itself, we work with customers on safe storage recommendations and emergency planning. During product launches, we review system flow rates and automate reorder triggers for seamless operation. Our field reps spend time at customer sites, watching for improvement opportunities and identifying cost-saving changes, so the partnership grows as our customers’ needs evolve.

    Navigating Unplanned Interruptions

    Equipment failures, weather events, and regulatory audits have thrown more than one production schedule into chaos. Because of our vertically integrated set-up, we adapt faster to changing conditions. If an outage occurs or a customer’s order unexpectedly doubles, we prioritize fills and redirect inventory within the same day. Customers come to rely on real-time order visibility and regular progress updates, eliminating the uncertainty that results from procurement through distant or indirect channels.

    If an unusual impurity turns up or an instrument flags a bad batch, our team pulls the relevant archive of QC data in hours, not days. We provide actionable results, recommend process changes, and often implement on-site solutions with end-users to get their lines moving again. This is only possible with first-hand production experience and close integration of technical and logistics teams.

    Looking Ahead: Sustainability and Process Efficiency

    Sustainability pressures focus attention on feedstock sources and process yields. Production of carbon monoxide from methane, for instance, produces less carbon dioxide and solid waste compared to coal-based systems. Several clients have shifted purchasing decisions to favor methane-derived CO, both for environmental concerns and compliance with internal policy. We invested in catalytic systems that improve energy efficiency per cubic meter of gas, and regularly share lifecycle assessment results with interested partners.

    As hydrogen infrastructure grows and alternative reduction routes open up, carbon monoxide will continue evolving in role and importance. We look for ways to capture and recycle process gas wherever possible, bundling returnable cylinder programs and investing in cylinder tracking. We work with engineering teams from customer sites, identifying emission reduction strategies and exploring the integration of green hydrogen as a co-feed.

    Why Trust Matters in the Carbon Monoxide Supply Chain

    Technical teams know that every standard, every piece of paper, and every traceability tag exists for a reason: real-world equipment failures, process stoppages, and near-misses have taught hard lessons. For us as a manufacturer, those lessons play out every week on the plant floor. The focus on quality and safe delivery isn’t about ticking boxes—it’s about keeping every link in the supply chain reliable and safe, both for internal staff and customer operators.

    Direct collaboration ensures feedback loops stay short, issues get addressed before they snowball, and innovation remains practical. Teams who know they can pick up the phone and speak to someone who saw their order filled that morning benefit from access to answers, quick fixes, and future-ready options.

    Summary of What Sets Carbon Monoxide Apart

    Having manufactured and supplied carbon monoxide for years, we see firsthand how important purity, timing, and technical support are to keeping customer processes running, research labs validated, and safety always in view. This gas may have a notorious reputation outside industry, but handled with care, knowledge, and direct quality control, it becomes a high-value, reliable input across multiple sectors. Our ongoing commitment to detailed manufacturing, real-world product support, and practical risk management is built on experience—the sort that only comes from decades at the front line of chemical production.