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Aluminum Carbide

    • Product Name Aluminum Carbide
    • Alias aluminium carbide
    • Einecs 215-076-2
    • 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

    338678

    Chemicalformula Al4C3
    Molarmass 143.96 g/mol
    Appearance Yellow to brownish-gray crystalline solid
    Density 2.36 g/cm3
    Meltingpoint 2200°C
    Solubilityinwater Reacts with water, decomposing
    Crystalstructure Hexagonal
    Thermalconductivity 120 W/(m·K)
    Hardness 9 on Mohs scale
    Reactivity Reacts with acids and water, producing methane gas

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

    Packing & Storage
    Packing Aluminum Carbide, 500g, is packaged in a sealed, moisture-resistant amber glass bottle with a secure screw cap, labeled with hazard warnings.
    Shipping Aluminum carbide should be shipped in tightly sealed containers, protected from moisture and acids. Use appropriate hazardous material labeling, and transport it according to local regulations for flammable solids. Store and ship in a dry, cool place, away from incompatible substances. Handle with care to prevent exposure and container damage.
    Storage Aluminum carbide should be stored in a tightly sealed container in a cool, dry, and well-ventilated area. It must be kept away from moisture, acids, and oxidizing agents, as it reacts violently with water, producing flammable gases. Proper labeling and handling procedures should be followed to prevent accidental exposure or reactions. Store separately from incompatible substances.
    Application of Aluminum Carbide

    Applications of Aluminum Carbide in Industrial Manufacturing

    As a direct manufacturer specializing in high-purity aluminum carbide, our material consistently meets rigorous demands in advanced industrial sectors. The following real-world application scenarios illustrate how downstream partners integrate this compound within production processes, referencing authentic standards and concrete operational requirements across diverse markets.

    1. Metallurgical Desulfurization Additives for Steel Refining

    Leading steelmakers introduce aluminum carbide at strategic points during secondary steel refining to efficiently reduce sulfur levels in specialty steel grades. This compound reacts with molten iron and sulfur impurities, producing aluminum oxide and calcium sulfide, critical in reaching ultra-low sulfur content specified for high-performance steel alloys. Integrated dosing automation controls the precise feed of carbide granules into ladle metallurgy units, minimizing oxygen pickup and inclusion formation for downstream continuous casting operations.

    Industry compliance standards

    • ISO 4957 Tool Steels Specification
    • GB/T 700 Carbon Structural Steels
    • ASTM A566/A566M-19 Standard for Alloy Steels
    • Relevant national emission limitations on sulfur content (as low as 0.005%)

    Typical usage ratio

    • 0.15–0.30% of total steel charge by weight, fine-tuned according to targeted sulfur reduction and initial composition analysis.

    Downstream process integration

    • Continuous granule feeding into ladle or secondary metallurgy vessels following primary decarburization, typically post-argon stirring or vacuum degassing.

    Final product types

    • Bearings and rolling element steels
    • Spring and valve steels for automotive and rail sectors
    • High-purity structural alloys for aerospace forgings
    • Electroslag remelted steels for medical instruments

    2. Component in High-Temperature Aluminum Alloys and Composites

    Producers of advanced aluminum matrix composites incorporate controlled proportions of aluminum carbide as a grain refinement and strengthening phase. The carbide’s unique lattice structure imparts superior tensile strength, high creep resistance, and thermal stability to automotive, aeronautical, and industrial aluminum castings. Powder metallurgy lines blend the carbide with aluminum powders before extrusion or hot pressing, allowing designers to meet demanding fatigue and temperature resistance benchmarks.

    Industry compliance standards

    • AMS 4289 for Aluminum Alloy Forgings
    • GB/T 13818-2010 Aluminum Matrix Composites
    • SAE AMS4274 for Microstructure and Particle Dispersion
    • RoHS and REACH material restrictions for component safety

    Typical usage ratio

    • 0.2–1.5% by weight, based on application end-use (lower for ductility, higher for wear and temperature performance).

    Downstream process integration

    • Pre-mixing with aluminum powders before compaction; alternatively, direct addition into melts just prior to die casting or spray forming.

    Final product types

    • Cylinder head and engine block castings
    • Lightweight structural components for aerospace frames
    • Wear-resistant mechanical bushings
    • Thermostable support brackets for industrial furnaces

    3. Reducing Agent in Titanium Diboride (TiB₂) Synthesis

    Manufacturers of advanced ceramics utilize aluminum carbide as a reductant during carbothermal reduction processes for producing titanium diboride, a refractory material valued for its extreme hardness and high melting point. The carbide’s strong reducing ability enables efficient production at lower reaction temperatures with minimized oxide inclusions. Strict material traceability ensures TiB₂ output suitable for demanding applications in cutting tools and corrosion-resistant coatings.

    Industry compliance standards

    • ISO 17561:2022 – Fine Ceramics (Advanced Ceramics, Advanced Technical Ceramics)
    • GB/T 20739-2019 Titanium Diboride Ceramics Specifications
    • ASTM C1326 for Sintered Refractory Ceramics
    • Customer process-specific purity benchmarks

    Typical usage ratio

    • 5–18 mol% relative to the TiO₂ precursor, adjustable based on target stoichiometry and reduction efficiency.

    Downstream process integration

    • Batch blending with titanium dioxide and boron oxide, followed by furnace loading; introduction during pre-milling phase for enhanced dispersion.

    Final product types

    • Hot-pressed TiB₂ cutting tool inserts
    • Electrodes for aluminum electrolysis
    • Thermal spray powders for protective coatings
    • Armor ceramics for ballistic protection panels

    4. Source Material for Ultra-Dry Acetylene Gas Generation

    Producers of specialty gases deploy aluminum carbide within controlled reactors to evolve high-purity, ultra-dry acetylene required for semiconductor and optical fiber manufacturing. This process minimizes water and oxygen contamination, crucial for downstream plasma-enhanced chemical vapor deposition. Automated moisture traps and purification columns ensure trace level control aligned with semiconductor-grade requirements.

    Industry compliance standards

    • SEMI E49.1 – Specification for Industrial Grade Acetylene Gas
    • ASTM D246 – Acetylene Purity for Analytical and Manufacturing Applications
    • ISO 14687 for Gaseous Hydrogen, Extended to Acetylene Purity
    • GB/T 7445—2007 High-Purity Acetylene Gas Specifications

    Typical usage ratio

    • Stoichiometric production basis: 1 mol aluminum carbide yields 3 mol acetylene; reactor fill volumes determined by weekly cylinder output levels and gas consumption forecasts.

    Downstream process integration

    • Charged into closed reaction vessels, in contact with controlled quantities of water or steam to initiate gas release under negative pressure systems.

    Final product types

    • Ultra-dry acetylene cylinders for microelectronics
    • Specialty gas mixtures for fiber optic preform manufacturing
    • Calibration gases for process instrumentation
    • Laboratory-standard acetylene for spectroscopic analysis

    5. Abrasive Manufacturing for Superhard Grinding Wheels

    Producers of superhard abrasives blend aluminum carbide with other advanced ceramics to achieve specific particle size distributions and fracture toughness. The carbide inclusion enhances wheel durability when machining composites, titanium alloys, and carbon fiber reinforced plastics. Quality assurance teams monitor feedstock trace metals and phase purity to align with precision grinding and surface finishing tolerances.

    Industry compliance standards

    • ISO 8486 – Microgrits for Industrial Diamond and CBN Products
    • GB/T 2481-2018 Abrasive Wheels for Industrial Use
    • EN 12413 Safety Requirements for Bonded Abrasive Products
    • Customer-specific wear and performance validation protocols

    Typical usage ratio

    • 3–10% by weight within abrasive mixtures; formulation customized for abrasive hardness and target workpiece materials.

    Downstream process integration

    • Integrated into ceramic bond matrices during wheel molding prior to sintering at high temperature; followed by post-processing inspection for structure homogeneity.

    Final product types

    • High-speed grinding wheels for aerospace machining
    • Precision lapping wheels for silicon wafers
    • Polishing disks for advanced composite materials
    • Industrial hones for precision surface finishing
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    Certification & Compliance
    More Introduction

    Aluminum Carbide: Directly from the Manufacturer’s Presses

    Forging Ahead with Genuine Aluminum Carbide

    Producing aluminum carbide is no off-the-shelf task. For us, the process starts deep in the foundry, under tight controls that keep oxygen out and yield a hard, yellow-gray compound fitting for engineers aiming to push beyond conventional alloys. Every batch from our furnaces bears a signature grain structure. We give special weight to purity and particle size, knowing from years of feedback that real-world carbide reactions crave less oxygen and more precision down to the micron. After decades behind the controls, we know aluminum carbide doesn’t just fill a stock list among industrial chemicals. Our aluminum carbide, produced at model standard Al4C3, meets strict requirements for maximum carbon integration, low moisture sensitivity, and reliable thermal stability.

    What Sets Our Process Apart

    Most suppliers just chase volume, cranking up the carbothermic reaction and serving whatever comes out. Working the production line ourselves brings another level of trust and detail. The reaction between pure aluminum and carbon demands more than high temperatures; it asks for slow cooling and exact handling to dodge contamination. By keeping reaction chambers clean and cycling batches through a calibrated grinding system, we shape a powder that gives consistent results wherever tight particle size distribution matters most — in metal matrix composites, abrasive production, and even the latest lithium-ion battery labs.

    There is a world of difference between aluminum carbide scraped from a furnace in bulk and carbide that holds up under scrutiny. Moisture control remains the key. Poor handling during packaging can spark hydrolysis, making carbide lose its edge and generate methane. We seal every kilogram against exposure, and storage goes straight from our ovens into inert atmosphere barrels. Any deviation sacrifices quality, so we take no shortcuts.

    Field-Driven Experience Guides Production Choices

    From aluminum foundries seeking tight grain refinement to composite material developers replacing traditional ceramics, we see trends accelerate as industries chase lighter, more resilient metals. Aluminum carbide acts as a fine grain modifier, blending with molten metal and promoting unique structures after solidification. Out here, even small shifts in carbide composition ripple through casting lines, changing everything from toughness to wear resistance. We don’t just ship powder — we troubleshoot blend ratios, monitor reactions, and visit client plants when breakdowns strike.

    Old challenges teach us plenty. In abrasive industries, keeping carbide free of iron impurities spells the difference between a smooth finish and shattered discs. Our process keeps contamination below detectable limits. This requires not just pure input material but also crucibles and blending systems built from inert refractories. The lessons ground in abrasive wheel plants and high-precision casting floors feed directly into ongoing improvements at our own shop.

    Aluminum Carbide Specifications and Real Life Results

    Standard aluminum carbide comes as a yellow-gray crystalline powder, formula Al4C3. We place strict controls on particle size distribution, with most production centered on the 1–10 micron range. That said, some additive users push for submicron refinement for ultra-high-performance aluminum composites. We’ve adjusted sintering profiles and grinding speed to meet actual use cases. No filler resin. No diluent masking.

    Moisture and hydrolysis stand as the primary concerns for any user downstream. If handled poorly, aluminum carbide can react with atmospheric water, converting back into aluminum hydroxide and methane. That’s wasted product and real safety risk, so we pack and ship with this in mind. Over time, we’ve shifted to argon-purged bags and double-sealed drums on any order leaving our doors.

    To any client pushing the edge in composite research, specification sheets give only the starting point. In the lab, aluminum carbide’s high hardness (around 9 Mohs) and predictable decomposition at temperatures above 1400°C set it apart. As a grain refiner, it prompts nucleation at lower metal solidification points, refining the final casting’s structure. In chemical syntheses, we guarantee consistent reactivity, with strict batch-to-batch carbon and aluminum analysis reported for every lot. We do this not for compliance, but because one misstep in a pilot reactor can waste weeks’ work.

    Real Differences From Other Carbides

    Plenty of buyers walk in familiar with silicon carbide or tungsten carbide — those heavy hitters of the ceramics world. They ask what makes aluminum carbide worth their attention. In day-to-day use, aluminum carbide carries distinct chemistry. It decomposes in humid environments, putting off methane, unlike silicon carbide which shrugs off water. For that reason, users cannot treat it as a simple cross-over powder. Each use demands special packaging, short exposure in blending, and airtight storage at the worksite.

    From the mechanical side, aluminum carbide brings lower density than most carbides. This property transforms how metal matrix composites behave — offering lightweight reinforcement without dragging down the finished product. That’s now playing out in rapidly evolving automotive alloys, where every gram matters. If a supplier expects bulk or high-density carbide, they often get tripped up by aluminum carbide’s tailored role: enhancing rather than dominating.

    Thermal conductivity also puts it in a different class. High-purity aluminum carbide nearly rivals aluminum’s capability to conduct heat, a fact that comes alive in electronics packaging and heat sink projects. Meanwhile, brittle carbides like boron carbide cannot deliver the same thermal profile. Our process, crafted for low defect rates, keeps these conduction properties intact up to technical temperature limits.

    Guiding Clients to Optimal Use

    Sooner or later, every buyer faces the learning curve in handling aluminum carbide. Our technical teams keep the conversation direct. We walk end-users through everything from consistent powder dosing to safe wet blending — steering clear of open-air mixing to prevent reaction losses. Packaging cannot be an afterthought. We recommend immediate transfer from drums to glovebox or sealed process hopper. Many operators need support setting up preventive maintenance routines, since any moisture intrusion can degrade more than just one shipment — it can throw off entire casting sequences.

    Over the years, we’ve tracked where things go wrong: misunderstood storage protocols, overlong transit in humid climates, use in open bins. Fixing these problems means more than restating handling advice. We have shipped to climates from northern Canada to humid Southeast Asia, and our support does not end when the order leaves our loading dock. We follow up, consult on moisture barriers, and swap shipment configurations as needs grow. This attention limits wasted carbide, lost time, and possible safety concerns from unwanted methane generation.

    Listening, Learning, and Improving With Each Batch

    Real experience means spending hours watching what happens outside controlled labs. We watch how casting lines respond to different carbide purities. On occasion, a customer calls after unexpected foaming or gas evolution in their melt. We’ve traced this back to overlooked drum seals or atmospheric leaks in their transfer setup. Each call becomes a chance to refine our process — adding new purge steps, switching sealant formulations, or even custom-fitting drum closures for unusual transport routes. Keeping an open channel to end-users has saved untold quantities of both product and time.

    Mistakes cost more than money in chemical production. An unchecked batch with slightly elevated oxygen can catalyze unwanted side reactions, whether in composite production or pyrotechnic applications. Years ago, a run of aluminum carbide with a subtle off-color signaled off-spec impurity pickup. Early, direct action meant pulling the lot, investing in equipment upgrades, and establishing new standards for inspection and supervisor sign-off. That sort of vigilance may add hours to a shift, but it earns the long-term trust of buyers who see the difference in every melt, mix, or composite they build.

    Solutions to Ongoing Industry Challenges

    Global shifts in supply chain reliability keep every manufacturer on their toes. As the landscape changes, dependence on imports or poorly controlled offshore sources threatens both supply and consistency. For us, vertical integration links raw material selection, process oversight, and direct client feedback. Each production run draws on regular audits of our own input carbon and aluminum. No task is finished until the latest batch matches target specifications, every time.

    New end uses continue to challenge established practice. In recent years, electronics developers have requested ultra-fine aluminum carbide for integration into heat-sinking composites or as a catalyst support. This need led us to update mill liners, introduce ever-finer particle separation steps, and invest in atmosphere controls more commonly seen in semiconductor fabs. Innovation finds its energy here, pulled along not by theory, but by questions from people building the next generation of products. We respond with hands-on changes and real feedback loops, not sweeping promises.

    Environmental and Safety Considerations Matter

    Chemical producers hold unique responsibilities. Aluminum carbide’s reactivity with moisture means safety protocols go beyond the shop floor. We work closely with logistics partners to train handlers, inspect containers, and streamline emergency responses for transport mishaps. Chemical fire risks and possible gas release in case of packaging breach make these precautions non-negotiable. On site, we convert process off-gas to harmless vent streams, invest in local pollution control, and document every emission point for stakeholders.

    Across the product cycle, reducing unintended releases remains a core commitment. By the time aluminum carbide leaves our plant, it comes with full batch traceability, direct shipment tracking, and pre-approved disposal procedures for any returned or expired lot. We maintain open access to safety documentation and staging for recycling or safe reaction byproducts. Clients soon learn that knowledge transfer means safer handling, fewer incidents, and better yield in their own processes.

    Building on Trust, Not Just Transactions

    Being a true manufacturer, day in and day out, brings clarity to what matters. Aluminum carbide can be as simple or as sophisticated as the end-user demands. Yet behind every shipment stands an entire cycle of planning, testing, and improvement. We do not hand off responsibility at the shipping dock — ongoing partnerships with buyers shape our processes, our quality systems, and our commitment to resolving issues quickly and accurately. We understand what it means for an entire casting run to depend on a flawless batch, just as we know the cost of missteps in high-purity electronics builds.

    Thinking beyond commodity sales, we continue investing in process scale-up, advanced analytical equipment, and the human insight that comes from decades of hands-on production. Whether the need is for targeted particle size, ultra-clean product, or on-site troubleshooting, our work sits where the foundry meets the lab — and where real experience shapes tomorrow’s alloys and composites.

    Closing the Loop — Why Experience Matters

    Aluminum carbide stands apart from other metal carbides not just by chemistry, but by the relationship it requires between producer and user. Our insight emerges not from distance but from immersion: long hours refining every reaction, fine-tuning every particle, sharing gathered experience openly with those who rely on our powder in critical processes. In an industry driven by results, shortcuts rarely pay off. We take each order as a fresh commitment to quality, safety, and real partnership.

    From initial production to last-mile delivery, staying close to the product and its users guides every practical decision. This hands-on tradition underscores the trust built over years in the field, laboratory, and across industries. The story of aluminum carbide isn’t static. Each new application and challenge breeds new solutions — and with every drum that leaves the plant, we stake our name and reputation on getting every detail right.