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

Coal Gas

    • Product Name Coal Gas
    • Alias K0007
    • Einecs 232-373-8
    • 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

    373492

    Name Coal Gas
    Chemical Formula Variable (mainly H2, CH4, CO)
    Color Colorless
    Odor Distinct, often tar-like smell
    State At Room Temperature Gaseous
    Main Components Hydrogen, Methane, Carbon Monoxide, Carbon Dioxide
    Calorific Value Approximately 18-25 MJ/m³
    Density 0.6-0.8 kg/m³
    Flammability Highly flammable
    Production Method Destructive distillation of coal
    Typical Impurities Ammonia, Sulfur compounds, Tar vapors
    Toxicity Highly toxic due to CO content
    Common Uses Heating, lighting, and as fuel for gas engines
    Boiling Point Below -161°C (depends on component gases)
    Explosive Limits In Air 4-75%

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

    Packing & Storage
    Packing Coal Gas is supplied in high-pressure steel cylinders, each containing 50 liters, clearly labeled with hazard symbols and usage instructions.
    Shipping **Shipping Description for Coal Gas:** Coal gas is transported as a compressed or liquefied gas in high-pressure cylinders or tankers. It is classified as a flammable gas (UN 1012). Containers must be clearly labeled and handled according to international regulations. Proper ventilation, leak detection, and grounding are essential during shipping.
    Storage Coal gas is typically stored in large, airtight gas holders or gasometers, which safely contain the gas under low pressure. These storage vessels are made of steel and are designed to prevent leaks and minimize risks of explosion. Proper ventilation, regular inspections, and strict safety protocols are essential to manage the flammability and toxicity of coal gas during storage.
    Application of Coal Gas

    Applications of Coal Gas in Industrial Manufacturing

    As an integrated chemical raw material supplier, we deliver industrial-grade coal gas to global manufacturers, supporting a variety of downstream processes that demand both high thermal value and tailored process gas characteristics. The following sections detail real application scenarios where coal gas directly contributes to industrial productivity, with a focus on adherence to regulatory practices, efficient dosage parameters, and product-specific integration paths.

    1. Metallurgical Heat Processing (Iron & Steel Reheating Furnaces)

    Integrated iron and steel works incorporate coal gas as a primary fuel source for reheating furnaces and rolling mills, leveraging its consistent calorific output for temperature-critical applications such as billet reheating and shaping. Strict control of combustion efficiency and emission profiles ensures compliance with operational targets throughout batch and continuous processes.

    Industry compliance standards

    • ISO 14404-2:2017 (Steel production — Carbon footprint calculation)
    • EN 746-2:2010 (Industrial thermoprocessing equipment safety)
    • European Union Industrial Emissions Directive (IED) 2010/75/EU
    • China GB 28662-2012 (Steel industry emissions standard)

    Typical usage ratio

    • Coal gas consumption ranges from 120 to 200 Nm³ per ton of steel processed, adjusted based on targeted furnace temperatures (typically 1100–1300℃) and billet mass throughput.

    Downstream process integration

    • Coal gas introduced at burner stage for direct flame heating in reheating furnaces, integrated with heat recuperators and emission control units.

    Final product types

    • Hot-rolled coils
    • Steel bars and rods
    • Forged billets
    • Heavy plates

    2. Chemical Synthesis – Ammonia Production (Syngas Feed)

    Large-scale fertilizer plants utilize coal gas as a primary hydrogen source in synthesis gas (syngas), feeding catalytic reactors for ammonia production. Conditioning of incoming gas—removal of tars, sulfur, and other impurities—ensures a steady, specification-grade input for the Haber-Bosch process, directly impacting downstream fertilizer output yield and quality.

    Industry compliance standards

    • ISO 50001:2018 (Energy management systems for processing plants)
    • GB/T 15001-2010 (Ammonia synthesis facility safety regulations)
    • API Standard 941 (Steels for Hydrogen Service)
    • Fertilizer Europe Product Stewardship Program

    Typical usage ratio

    • Coal gas input typically supplies 80–95% of total required hydrogen for synthesis; dosage varies by feedstock composition and operational conversion efficiency.

    Downstream process integration

    • Primary steam reformer and shift reactors receive coal gas after pre-treatment, blending with steam to generate ammonia through catalytic synthesis loops.

    Final product types

    • Anhydrous ammonia
    • Urea fertilizers
    • Ammonium nitrate
    • Complex NPK fertilizers

    3. Ceramic and Glass Manufacturing (Kiln Firing Atmosphere)

    Coal gas furnishes regulated combustion atmospheres for tunnel kilns and float glass lines, supporting sintering and annealing cycles that demand specific flame characteristics and fuel economy. Plants closely monitor gas purity and flow control to achieve targeted product finishes, thermal gradients, and emission parameters during continuous and batch operations.

    Industry compliance standards

    • EN 1539:2015 (Ovens and equivalent equipment safety requirements)
    • GB/T 16483-2008 (Kiln operational standards, China)
    • ISO 14001:2015 (Environmental management)
    • EU BAT Reference Document for Glass Manufacturing

    Typical usage ratio

    • Industrial kilns consume 90–160 Nm³ of coal gas per ton of ceramic or glass, modulated according to firing temperature (from 800–1450℃), batch size, and product thermal mass.

    Downstream process integration

    • Direct connection to burner systems on rotary, shuttle, or tunnel kilns, with staged preheating and firing zones to maximize fuel efficiency and product uniformity.

    Final product types

    • Sanitary ceramics
    • Architectural glass sheets
    • Tableware
    • Refractory components

    4. Urban Gas Supply for Utility Grids

    Municipal gas suppliers utilize purified coal gas to substitute or supplement natural gas within pipeline distribution networks, especially in regions reliant on coal-based energy infrastructure. This application demands close adherence to gas quality regulations concerning calorific value, moisture, contaminant threshold, and pressure stability for consumer and commercial end use.

    Industry compliance standards

    • ISO 13686:2013 (Natural gas quality designation)
    • Chinese Urban Gas Standard GB/T 13612-2006
    • EN 437:2021 (Test gases, gas pressures, appliances)
    • Local public health and safety regulations for utility supply

    Typical usage ratio

    • Coal gas is injected at 10–40% of total urban grid throughput, variable based on seasonal demand, local natural gas supply availability, and target calorific value blending.

    Downstream process integration

    • Gas introduced to municipal distribution grids post-purification, blending with other feedstocks and odorization prior to pressure regulation and final delivery.

    Final product types

    • Distributed pipeline gas for residential heating
    • Commercial catering supply
    • Combined heat and power plants (CHP fuel)
    • Industrial park utility fuel

    5. Calcium Carbide Production (Reducing Agent and Heat Source)

    Calcium carbide workshops use coal gas both as an energy carrier and as a reducing atmosphere within electric arc furnaces. This dual function increases conversion rates and decreases coke consumption per ton of finished carbide, provided that the gas composition meets strict flammability and sulfur impurity limits to prevent quality degradation of downstream acetylene.

    Industry compliance standards

    • ISO 9001:2015 (Quality management for chemical processes)
    • GB 20660-2020 (Calcium carbide chemical specification)
    • Chinese Occupational Health Standard (GBZ 2.1-2019)
    • EU REACH Regulation (for downstream chemical safety)

    Typical usage ratio

    • Between 65 and 110 Nm³ of gas per ton of calcium carbide produced, with adjustment for feed limestone quality and furnace electric load profiles.

    Downstream process integration

    • Direct injection into electric arc furnace chambers during reaction phase, synchronized with lime and coke charging cycles for each production batch.

    Final product types

    • Calcium carbide blocks
    • Technical grade calcium carbide granules
    • Feedstock for acetylene
    • Deoxidizer for steelmaking

    6. Direct-Reduced Iron (DRI) Shaft Furnace Feedstock

    Plants operating direct-reduction ironmaking rely on coal gas as a principal reducing gas for shaft furnaces, where it replaces or complements natural gas in regions with local coal resources. Operators tightly regulate gas composition, specifically its hydrogen/carbon monoxide ratio, to enhance metallization and control carbon deposition during sponge iron formation.

    Industry compliance standards

    • ISO 16410:2011 (Direct reduced iron production and testing)
    • American Iron and Steel Institute (AISI) DRI safety guidance
    • GB/T 30299-2013 (Chinese DRI operation code)
    • API 691 (Process safety for critical facilities)

    Typical usage ratio

    • Typical coal gas input: 240–320 Nm³ per ton of iron, adjusted according to feed ore quality, shaft temperature, and target metallization rate (commonly >92%).

    Downstream process integration

    • Coal gas preheated and injected into shaft furnace reduction zone, integrated with off-gas recycling and dust abatement units.

    Final product types

    • DRI pellets and briquettes
    • Password iron for electric arc steelmaking
    • Basic engineering steel intermediates
    • Input for specialty steel alloys
    Free Quote

    Competitive Coal Gas 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

    Coal Gas: Real-World Value from the Source

    What Coal Gas Means for Industry

    As a chemical manufacturer with decades of hands-on experience, coal gas has been much more than a standard offering in our line-up—it stands as one of the clearest reflections of our country’s industrial pulse. Ask any technician running a furnace or anyone in synthetic ammonia production: coal gas delivers a consistent, energy-rich fuel that brings process flexibility and helps keep factory floors running. Unlike bottled natural gas or imported LNG, coal gas reflects the reality of what many industries need—reliable, continuous delivery sourced and processed right here.

    In every batch we produce, there’s a careful balancing of gas composition. Our teams constantly adjust temperature and pressure in the retorts, monitor tar removal, and scrub for sulfur compounds. Typical coal gas produced from our bituminous and sub-bituminous feedstock includes hydrogen, methane, carbon monoxide, carbon dioxide, nitrogen, with lighter fractions of higher hydrocarbons. The composition swings by project and by contract, but on average our gas carries a calorific value hovering between 4,500 and 5,000 kcal per cubic meter. We maintain this through strict feedstock selection and air/fuel regulation, which reduces swings in combustion quality at your boilers and burners. No stack operator will find unburned streams or unstable flames when the gas meets those benchmarks.

    Technical Details: Beyond the Pipeline

    Customers will sometimes ask about “model numbers” or specific “grades.” In our operation, what matters more is the gas analysis matched to application: heating, synthesis, or direct reduction. For thermal use—the workhorse jobs of glassworks, steel rolling, brick kilns, and ceramics—our lean retort process maintains a clean-burning mixture with low tar and managed hydrogen sulfide. Moisture control also stays front-of-mind for our daily teams, because wet gas shortens the lifespan of burners and process hardware.

    For chemical synthesis, especially downstream methanol and ammonia plants, purity matters as much as consistency. We invest in extra washing columns and temperature differentials to drop out benzene, naphthalene, and other aromatics, since those can poison your process catalysts. We test batch-by-batch—hydrogen content routinely touches 50%, and our target for total sulfur drops below 300 ppm, less than half what’s typical in less-refined city gas. This selection means less fouling on your copper-based catalysts, fewer shutdowns, and tighter yield control.

    Our outsized gas holders, an engineering legacy from an earlier industrial age, let us smooth fluctuating demand and store product for flexible delivery—pipeline, truck, or custom onsite filling stations. Smaller users, like flower pot kilns or heritage tile factories, never see pressure swings or line contamination. Scaled up, the same network can feed an integrated chemicals cluster working round-the-clock, as occurred during the northern supply droughts a few winters ago.

    Why Coal Gas Holds Its Own

    Some point to the global shift toward natural gas and renewables, wondering whether there’s still room for coal gas. Experience at the plant level tells a different story. First, coal gas does not depend on high-pressure pipelines running from remote fields. The feedstock is locally sourced, trucked from regional mines, and even lower-grade coal can feed the process after beneficiation. That keeps jobs in the region and limits exposure to global price shocks. When regional energy costs surge, the fine control and local nature of coal gas can keep cost per gigajoule stable through the contract term.

    We’ve seen many industrial parks work through bottlenecks in piped LNG delivery or power blackouts. Coal gas, produced on-site or near-site, continues to flow regardless of weather and outside supply lines. Because our older gasworks were originally designed to support entire city grids before widespread electrification, the redundancy and scale already exist. Even under cold snaps or peak manufacturing windows, we rarely run short.

    In environmental discussions, efficiency matters. We steadily invest in improved scrubbing and condensation, not only for regulatory compliance but also for operational cost. Tar recovery streams now supply downstream chemical units. We can re-route naphthalene and light oils for resale as feedstock, minimizing what goes to waste. The residual heat from our gas-making process supplies local district heating, a practice standard in much of our city-adjacent plants. Not everything is glamorous, but where process integration is possible, we keep emissions controlled and supplies flowing.

    Different from Other Energy Options

    Comparing coal gas to other fuel sources gets down to practical concerns at the plant level: cost, logistics, usage flexibility, and emissions. Take natural gas, which comes pre-cleaned and high in methane. Where there’s robust pipeline infrastructure, it offers high calorific value and few contaminants—good for those who can afford the connection fees, have predictable supply, and can risk swings in commodity prices. For many facilities outside the main grids, or in industries like ceramics, glass, and metalworks, establishing that supply is expensive or even impractical.

    Onsite liquefied petroleum gas (LPG) or bulk tanked CNG appeals to operations needing high mobility—think construction or remote job sites—but scaling up for round-the-clock large heating or chemical feedstock becomes costly. Moreover, safety concerns and delivery logistics cannot be overlooked. Plants operating on coal gas see fewer restrictions with on-site production and controlled hazard zones.

    Electricity-driven systems—induction heating, direct electric, plasma—are making inroads, especially for precision heating in some sectors. But retrofitting thousands of burners or gas engines in established heavy manufacturing isn’t realistic quickly. With coal gas, existing furnace systems need small modifications, not full replacements, and operators already understand the safety protocols. That practicality cannot be underestimated in busy factories or aging plant sites.

    Key Operational Practices Gained Over Years

    After years spent keeping gas quality stable, we’ve learned the importance of steady retort operation. Managing charge density and air flow, periodically monitoring producer temperature, prevents sooting and coking in delivery lines. We’ve established real-time gas analyzers at every major node, with field workers empowered to run spot checks on hydrogen, carbon monoxide, and sulfur with handheld sensors. Rapid logging and immediate feedback allow us to catch drifts quickly—something less likely when operating with externally delivered fuels.

    Our tar and phenol scrubbers never sit idle, since downtime means risk of blocked burners and corrosion downstream. Operators routinely service the washing towers, replacing fill, managing pressure drops, clearing ammonia liquor build-up. The effort pays off not only in reduced downtime for clients, but also in longer lifetime for our own assets. Regular investment in this infrastructure means we rarely field emergency repair crews at odd hours, and product remains within specification.

    Safety is another core lesson. While gas is always a risk, the characteristic smell and rapid venting systems ensure any leak is immediately detected and mitigated. Staff stay up-to-date on drills: practiced, not theoretical. For decades we have maintained clear separation around our gas holders and process buildings, because we know from bitter experience—the incidents that shaped this industry—that shortcuts in site layout and maintenance quickly catch up in lost product or injury.

    Onsite Customization and Adaptation

    No two plant requirements look the same. We’ve worked with small ceramics factories wanting a cleaner flame for their glazes and color work, where sodium and calcium impurities in the feedstock needed closer control. In these cases, our teams adjusted scrubbing intensity, ran more frequent condensate checks, and even invested in additional process analytics. The customer achieved brighter, more reproducible colors without the haze and spots caused by inconsistency in fuel stream.

    Then there’s the steelmaking crowd, often running open hearth or reheating furnaces day and night. Thick soot and high tar would choke their regenerative burners and wreck heat exchangers. We overhauled water injection and increased the frequency of carbon filter changes, addressing high particulate loads upstream. Over time, those extra steps yielded longer maintenance cycles and truer furnace temperatures. Energy managers could finally predict consumption rates, impacting their cost per ton calculations in ways that tipped contracts to their favor.

    We work with fertilizer plants requiring ultra-low sulfur coal gas for synthesis. Even before new environmental standards, our in-house chemists developed amine scrubbers and improved condenser sequencing to bring sulfur and ammonia levels in line. These rarely generate headlines, but the everyday grind of incremental improvements stacked up to tighter compliance, smoother catalyst cycles, and better relationships between plant engineers and our field teams.

    Environmental and Social Responsibility

    Long ago, coal gas earned a reputation for smog and harsh byproducts. Times have changed. Continuous improvements in pollution abatement make a daily difference. We run closed-loop tar collection, recapture condensate for cleaning plant floors, and sell surplus benzol for synthesis or solvent blending. Dust emissions from our storage yards dropped since we added wind screens and paved additional transport paths. The work isn’t glamorous or overnight, but year by year, neighborhoods near our gasworks notice the difference—less odor, cleaner air, and fewer complaints logged at municipal meetings.

    Community engagement no longer sits at the bottom of our priority list. From school visits to local research partnerships on waste heat recovery, we invest in transparency and feedback, not just compliance. Several times our operations managers have sat in public hearings with blueprints and emissions spreadsheets, fielding questions from residents about safety and air quality. Being present, owning our impact, and showing year-on-year improvements—those have sustained our operating license through both regulatory and social winds.

    Solid waste from gas production—slags, spent catalysts, absorbents—travels under tight manifest tracking to certified disposal. With a renewed national focus on resource efficiency, we have started blending slags with cement feedstock in nearby construction material factories, closing the loop wherever possible. This approach costs less than landfill and builds industrial relationships that last longer than individual management cycles.

    Trust Built from Decades of Production

    Coal gas production at scale isn’t for those who seek quick gains. Experience in the field reminds us that reliability wins the trust of buyers year after year. Even small interruptions in supply during peak hours—say, during winter heating surges or power grid failures—add up to costly shutdowns at customer plants. We maintain redundant compressors, backup boilers, and double containment on critical pipelines. Equipment failures will always happen, but we minimize downtime by keeping inventory of replacement valves, pressure sensors, and scrubbing media on-site, not waiting for suppliers with long shipping times.

    Operator training keeps the system running. We cross-train all operators on control room systems and field repairs, and keep a mix of veteran hands alongside fresh graduates. Apprentice programs in partnership with technical colleges ensure the next generation is ready, even as seasoned plant managers retire. Gas quality standards and incident logs move from one shift to the next with full handovers, not just checklists.

    Several of our clients have been with us since the days of citywide gas lighting. Their loyalty grows not only from our technical ability but from accountability—when things do go wrong, we own the mistake, fix it, and follow up to make sure issues never repeat. That approach extends trust through ups and downs, and provides the stability for investments, plant upgrades, and expansions rooted in confidence, not risk.

    Coal Gas and the Future: Meeting Changing Needs

    Energy systems everywhere face change. In the transition era, bridging fuels matter. Many industries depend on coal gas not out of nostalgia, but out of need—equipment is built for it, operator know-how is deep, supply is local and secure. Step by step, we are integrating renewable hydrogen streams into gas production. Pilot programs with agricultural biomass are underway in some retorts, slowly changing the carbon footprint without disrupting customer operations. The technical lessons transfer easily: the same experience in balancing gas composition, cleaning, and delivery applies whether the input is pure coal or a mixture of coal and renewable feedstocks.

    We see new demand from sectors looking to diversify fuel portfolios, especially those exposed to unpredictable cross-border energy markets. Security looks different in every industry, but for those for whom local sourcing, real-time support, and investment in infrastructure matter, coal gas remains a viable answer. We are not locked in the past—automation upgrades, remote monitoring, and predictive maintenance have all joined our toolkit, layered into the fundamentals built by generations of plant workers.

    Summary: Why Our Coal Gas Works in the Real World

    As a manufacturer, we judge value by what works in the field. Coal gas continues to provide a mix of flexibility, reliability, and local value that rivals or complements newer fuels in much of domestic industry. In practical, day-to-day decision-making, it supports hundreds of large and small businesses, providing clean combustion for heating, a versatile feedstock for the chemical sector, and a stable partner in broader industrial supply chains.

    The lessons we’ve learned through generations—from raw feedstock handling, to in-plant process control, to round-the-clock customer support—inform every cubic meter we produce and deliver. Every improvement in scrubbing, waste heat use, and emissions brings us closer in step with changing industrial and social needs. We take pride in continuing to innovate and adapt, making coal gas better for today and ready for tomorrow.