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Iron Pentacarbonyl

    • Product Name Iron Pentacarbonyl
    • Alias Iron carbonyl
    • Einecs 215-142-0
    • 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
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    Specifications

    HS Code

    808317

    Chemical Name Iron Pentacarbonyl
    Chemical Formula Fe(CO)5
    Molar Mass 195.90 g/mol
    Appearance Pale yellow liquid
    Odor Strong, unpleasant metallic odor
    Melting Point -20°C (−4°F)
    Boiling Point 103°C (217°F)
    Density 1.45 g/cm³ at 20°C
    Solubility In Water Insoluble
    Vapor Pressure 25 mmHg at 20°C
    Flammability Highly flammable
    Toxicity Highly toxic by inhalation, ingestion, and skin contact

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

    Packing & Storage
    Packing Iron Pentacarbonyl, 100 mL, supplied in a sealed amber glass bottle with tamper-evident cap, labeled hazardous and flammable.
    Shipping Iron Pentacarbonyl is shipped as a hazardous chemical, typically in tightly sealed steel drums or cylinders under inert gas. It must be handled with extreme care to prevent leaks, kept away from heat and ignition sources, and clearly labeled as toxic, flammable, and an environmental hazard according to international transport regulations.
    Storage Iron pentacarbonyl should be stored in a cool, dry, well-ventilated area away from heat, ignition sources, and incompatible materials such as acids and oxidizers. Use tightly sealed, corrosion-resistant containers, preferably under an inert atmosphere (e.g., nitrogen). Storage areas must be equipped with proper ventilation and clearly labeled. Handle with care, as iron pentacarbonyl is highly toxic, volatile, and flammable.
    Application of Iron Pentacarbonyl

    Applications of Iron Pentacarbonyl in Industrial Manufacturing

    Iron pentacarbonyl plays a critical role in several industrial production segments, where its unique chemical properties serve key transformation, metallization, and synthesis functions. As an original manufacturer, we ensure precise formulation and process integration in every application scenario outlined below.

    1. High-Purity Iron Powder for Soft Magnetic Components

    Chemical vapor decomposition of iron pentacarbonyl yields ultra-high-purity iron powders used in the fabrication of soft magnetic cores. Production facilities inject vaporized iron carbonyl directly into heated decomposition chambers. This method allows stringent control over particle size and carbon content, critical for inductors and transformer laminations in electronics. The iron powder’s low impurity profile supports magnetic properties stable under high-frequency conditions.

    Industry compliance standards

    • IEC 60404-1 Magnetic Materials Standard
    • ASTM B299/B299M – Powder Metallurgy Standard for Iron
    • RoHS Directive 2011/65/EU
    • REACH Regulation (EC) No 1907/2006

    Typical usage ratio

    • Iron pentacarbonyl feed rates are usually maintained at 70–85% of maximum vapor load, adjusted according to required throughput and target iron purity.

    Downstream process integration

    • Direct vapor injection into continuous pyrolysis reactors at 180–250°C
    • Post-decomposition sieving and passivation handling steps
    • Iron powder compacting and sintering under controlled atmospheres

    Final product types

    • Soft magnetic cores for transformers and reactors
    • Inductor core materials for high-frequency electronics
    • Powder metallurgy precision components for automotive electronics

    2. Iron-Based Catalysts for Fischer-Tropsch Synthesis

    The controlled thermal decomposition of iron pentacarbonyl generates nanostructured iron-based catalysts. These catalysts drive Fischer-Tropsch processes producing synthetic hydrocarbons from syngas in large-scale plants. Catalyst producers engineer the precursor feed and decomposition profiles for optimal porosity, surface area, and phase composition. This translates to improved hydrocarbon chain growth selectivity and process yields.

    Industry compliance standards

    • API Standard 939-A for Catalyst Reactors
    • ISO 9001:2015 Quality Management (catalyst manufacturing)
    • OECD Good Manufacturing Practice Guidelines for Chemical Plants
    • REACH Regulation (EC) No 1907/2006

    Typical usage ratio

    • Iron pentacarbonyl is dosed at 5–12% (wt) with respect to overall catalyst batch, often precisely tailored per targeted catalyst crystallography.

    Downstream process integration

    • Direct liquid or vapor introduction into catalyst precursor reactors
    • Thermal decomposition on support media (e.g., silica, alumina) at 200–300°C
    • Catalyst aging and passivation prior to Fischer-Tropsch reactor loading

    Final product types

    • Iron-based Fischer-Tropsch catalysts
    • Synthetic hydrocarbon oils and waxes
    • Liquid fuels such as diesel and kerosene from syngas conversion

    3. Metal Organic Chemical Vapor Deposition (MOCVD) for Thin-Film Magnetic Storage

    MOCVD engineers use iron pentacarbonyl as a volatile iron source in the deposition of ultra-thin magnetic films for data storage media. Controlled precursor flow into deposition chambers at low pressures ensures uniform film growth with precisely defined thickness and phase. These iron films are essential for hard disk platters and magnetic tape surfaces, where surface smoothness and magnetic domain consistency are required.

    Industry compliance standards

    • SEMI C3-0419 Standard for Electronic Grade Materials
    • ISO 9001:2015 for Thin-Film Manufacturing Facilities
    • IEC 62365 Magnetic Storage Devices Quality Control
    • Directive 2014/35/EU (Low Voltage Directive for Electronics)

    Typical usage ratio

    • Iron pentacarbonyl vapor delivery is maintained at 0.5–1.5% of the total gas mixture, adjusted to substrate area and deposition rate requirements.

    Downstream process integration

    • Direct vapor feeding via mass flow controllers into MOCVD reactors
    • Substrate pre-heating and in-situ gas analysis for film uniformity
    • Post-deposition annealing and surface finishing

    Final product types

    • Magnetic thin-film platters for hard disk drives
    • Magnetic tape substrate coatings
    • Specialized sensor elements for precision magnetic detection

    4. Synthesis of Organometallic Iron Compounds for Advanced Materials

    High-purity iron pentacarbonyl acts as an iron precursor in the synthesis of organometallic complexes, such as ferrocene and its derivatives. Research institutes and fine chemical producers utilize it in inert atmosphere conditions to construct molecular structures for use in electronic, electrochemical, and pharmaceutical research. Strict temperature and pressure controls enable the formation of uniform organometallic compounds, addressing batch reproducibility and scaling concerns.

    Industry compliance standards

    • ISO 13485 (for laboratory and pharmaceutical raw material handling)
    • OECD GLP Principles (Good Laboratory Practice)
    • REACH Regulation (EC) No 1907/2006
    • IUPAC Nomenclature and Quality Control Guidance

    Typical usage ratio

    • Feed amount varies between 0.8–1.2 mole per target organic ligand, optimized per reaction yield and compound crystallinity.

    Downstream process integration

    • In situ reaction in jacketed glass reactors under nitrogen or argon
    • Stepwise addition with controlled temperature escalation (typically 50–150°C)
    • Fractional distillation and chromatographic purification of end product

    Final product types

    • Ferrocene (Fe(C5H5)2) for material science applications
    • Substituted organoiron reagents for cross-coupling reactions
    • Catalyst precursors for polymerization or pharmaceutical synthesis

    5. Iron Carbonyl Cluster Production for Specialty Catalysis Research

    Some advanced catalysis laboratories employ iron pentacarbonyl to prepare iron carbonyl clusters, leveraging their unique electron-delocalization properties. Precise micro-scale handling and graduated heating protocols facilitate selective cluster assembly, serving as model systems or specialty catalysts for academic and industrial research into new reaction pathways and catalyst mechanisms.

    Industry compliance standards

    • OECD GLP Principles in Research Settings
    • REACH Regulation (EC) No 1907/2006 – Registration for Specialty Chemicals
    • Internal Research Ethics Committees for Specialty Catalyst Use
    • Material Safety Data Sheet (MSDS) Adherence

    Typical usage ratio

    • Precursor quantities range from 0.05–0.2 molar per synthesis batch, depending on desired cluster size and target research goals.

    Downstream process integration

    • Batchwise addition into high-vacuum or Schlenk-line vessels
    • Careful thermal ramp and ligand management for cluster selectivity
    • Extraction and spectroscopic verification before use in test reactions

    Final product types

    • Iron carbonyl clusters (e.g., Fe3(CO)12, Fe4(CO)13)
    • Testbed catalysts for organic transformation studies
    • Specialty reagents for electron-transfer reaction analysis

    6. Production of Iron Coatings for Anticorrosion Applications

    Several producers integrate iron pentacarbonyl decomposition into high-temperature vapor deposition systems for generating thin iron coatings on metal substrates. These coatings enhance base metal performance in aggressive environments and find use in anti-corrosive surface treatments for pipelines, valves, and marine applications. Tight control of precursor partial pressure and substrate preconditioning yields dense, adherent layers with predictable thickness profiles.

    Industry compliance standards

    • ISO 2063 Thermal Spraying — Zinc, Aluminium and Their Alloys and Coatings of Iron
    • ASTM B117 – Salt Spray (Fog) Testing Standard
    • ASME B31.3 for Process Piping (coated pipe components)
    • ISO 12944-5 Corrosion Protection for Steel Structures

    Typical usage ratio

    • Iron pentacarbonyl supply flow is regulated at 2–8% of total reactor inlet gases, modulated by desired coating thickness and substrate geometry.

    Downstream process integration

    • Direct vaporization and injection into thermal CVD reactors
    • Substrate rotation and temperature modulation for uniform coating
    • In-line oxidation/passivation for surface stability

    Final product types

    • Anti-corrosive iron coatings for steel pipelines and fittings
    • Protective layers for marine and offshore constructions
    • Iron-coated valves and compressor components in chemical plants
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    Certification & Compliance
    More Introduction

    Iron Pentacarbonyl: Precision from the Source

    Our Journey with Iron Pentacarbonyl

    Every batch of iron pentacarbonyl rolling off our line carries the mark of decades spent refining the art and science of chemical manufacturing. In our production halls, attention to detail guides every step — from the purity of iron raw materials to the meticulous control over carbonylation processes. With our signature model, Fe(CO)5, we’ve learned the peculiarities of this compound as both a tool and a challenge. It is an oily, straw-yellow liquid, volatile and sensitive to air and moisture, making containment, storage, and shipping a matter of deep expertise built over years in the field.

    Our customers — whether they step into plating shops, electronics labs, or steel refineries — recognize that iron pentacarbonyl is not just a reagent but a foundation for more advanced chemistry. Precision in iron content and minimal impurity levels are not just nice-to-haves; they define outcomes. We conduct rigorous distillation and purification so downstream metallurgical and chemical syntheses do not suffer from trace contaminants. Decades of plant operation have revealed all the ways impurities, inconsistent boiling points, or unstable packaging can wreak havoc on catalytic reactions, producing unpredictable results or, more critically, failed batches that cost far more in lost productivity and hazardous waste.

    Real-World Applications: Experience Driving Practical Performance

    In synthesis, iron pentacarbonyl serves as a starting material for high-purity iron powder. Our batches have landed in factories across Europe and Asia transforming fine iron powders into soft magnetic materials used by motor designers and electronics firms. Seeing end-users demand narrower particle size distributions, we invested in reaction control systems that fine-tune product streams based on real-time feedback, not hope or guesswork. In magnetic recording media, paint formulations, and catalyst production, consistency and contamination-free operations mean the difference between innovation and recall.

    Beyond raw iron production, researchers count on our iron pentacarbonyl for creating finely-dispersed iron catalysts in hydroformylation reactions and Fischer-Tropsch synthesis. The specifications we follow — often at the request of industrial teams or university researchers — reflect years of practical feedback from those grappling with problems like catalyst deactivation or batch-to-batch unpredictability. Knowledge does not come from manuals. It has come from lab calls at two in the morning and line operators flagging off-spec batches long before an automated sensor catches it.

    How Iron Pentacarbonyl Differs from Others: A Manufacturer’s Eye

    Standing inside the plant day after day, watching raw iron dissolve under a shroud of carbon monoxide, you gain a kind of respect for the differences between this compound and others in the transition metal carbonyl family. Iron pentacarbonyl is not ruthenium or nickel carbonyl. Its volatility sits lower than nickel carbonyl, and it behaves less aggressively under comparable conditions. Yet it requires much tighter atmospheric exclusion and temperature control than cobalt carbonyl if you expect a product to arrive as ordered.

    Competing products, sometimes supplied by repackagers or traders, may list similar minimum purities on paper but fall short in performance once applied to actual processes. Our feedback loops as manufacturers let us see how trace side-products, vapor pressures, and instability during transport account for much of the pain downstream. We maintain direct lines with our logistics teams and customers, adjusting packaging and handling protocols by what actually reduces loss and waste during transfer — not based on generic specifications.

    In catalysis, iron pentacarbonyl’s decomposition profile can differ dramatically from other iron compounds such as iron(III) chloride or iron oxalate. The pentacarbonyl offers its iron in zero oxidation state, releasing carbon monoxide as it decomposes, resulting in highly reactive metal centers. Paint formulators and laboratory chemists value this aspect, using it to deposit pure iron films or to initiate organic transformations impossible with oxidized iron salts. Years of shipping to specialty paint and magnetic material customers have reinforced the importance of controlling every aspect from distillation to filling drums, since minor contamination can undermine these downstream products.

    Specifications Shaped by Real-World Needs

    Technical sheets rarely tell the real story. Over the years, we have tuned our iron pentacarbonyl to have iron content consistently above 30 percent by weight, with less than 50 ppm non-volatile residue. These aren’t arbitrary numbers; these reflect repeated customer feedback from semiconductor production lines where each stray particle costs a fortune in wafer loss. We design our purification trains to trim sulfur and phosphorus down to non-detectable levels, keeping our promise to catalyst producers who came to us after having whole production lots fail due to catalyst poisoning.

    We have learned the value of packaging formats by watching substances degrade or leak during ocean transit. We offer sealed stainless steel drums or custom monel canisters for larger needs, with container liners engineered to limit oxygen ingress during months at sea. We do not rely on data sheets alone; we have loss statistics, field test reports, and direct communications with safety engineers who have taught us exactly where things go wrong — and how to keep them from happening.

    Handling and Safety: Lessons from the Shop Floor

    Iron pentacarbonyl, in our hands, is as much about safety as chemistry. Our own personnel undergo regular training with full face respirators, acid gas filters, and strict protocols for leak detection. Stories circulate every few years about less-prepared facilities suffering exposure incidents, sometimes sparking fires or toxic clouds. We invest in engineering controls, negative pressure rooms, and constant monitoring because real people work with these chemicals every shift. That direct experience reflects in the advice we give customers planning to use or scale up with our product. We show up for site audits, and we have spent hours alongside client EHS managers, flagging piping runs that need heat tracing or secondary containment.

    Our emergency protocols grew out of actual events — pressure relief gone wrong, a container breached in transport, a sudden drop in ambient temperature causing condensation and unexpected venting. These situations forged the culture in our plant, embedding safety awareness into every shipment. Clients benefit from incident-proven practices, not untested theory. Our teams remain on call for shipment tracking, and we supply not just chemicals but guidance forged by the lessons of real emergencies.

    Quality Control: Not Just a Box to Check

    Quality assurance becomes muscle memory when you have seen the consequences of a contaminated or unstable shipment. Every container leaving our plant undergoes multi-stage analysis by infrared spectroscopy, gas chromatography, and wet chemical iron quantitation. We reject any batch showing elevated levels of iron carbonyl clusters or non-volatile residues. Downtime in customer factories taught us the cost of letting spec drift slide, so we batch-test not only by lot but with random stress tests simulating months of rough shipping.

    Customers in high-value applications like electronic materials or pharmaceutical intermediates audit us unannounced. We welcome them. They walk our lines, open our records, and inspect our labs. Long-term relationships in this business depend on transparency. We found that showing rather than telling builds more trust than any label or certificate.

    Supply Chain Reliability: More Than a Line Item

    Iron pentacarbonyl buyers rely on just-in-time delivery. We know because we have lived through customs strikes, port closures, weather-driven delays, and regulatory shifts that topple carefully-laid schedules. Our production planning grew out of these repeated disruptions. Dual-sourcing of precursors, backup production runs, and in-house container fabrication let us absorb shocks without passing loss downstream. It’s a point of pride — and necessity — that our clients have consistently rated us among the fastest to recover from unforeseen events. The close ties we maintain with major shippers, airline handlers, and chemical safe zones at destination ports save time and hassle every month, keeping our customers on schedule and out of regulatory hot water.

    Delays, poor packaging, or paperwork errors can turn a valuable chemical into a regulatory liability overnight. Our customer service team sits adjacent to our shipping department, not outsourced halfway across the world. Experience showed us the value in keeping these lines short and capable, so urgent changes or snap inspections don’t paralyze our logistics flows.

    Environmental Responsibility: Beyond Regulatory Compliance

    The discussion around chemical safety and sustainability has shifted over my years in this business. Early on, meeting the local regulatory baseline seemed enough. Today, with iron pentacarbonyl’s reputation as an environmental and health hazard, our focus turned toward robust mitigation beyond paperwork compliance. Waste streams from production go to closed-system treatments, eliminating fugitive gas losses. Leak detection routines paired with scrubber systems have reduced plant emissions year-on-year. Neighbors and local authorities see us as a barometer for safety because mishaps elsewhere often lead inspectors straight to our gate.

    Inspiration often came from the ground up. Engineers and floor workers brought forward ideas for solvent recycling, vent recovery, and energy optimization that actually worked when put to the test. We reinvest into local infrastructure — pipes, scrubbers, safety gear — and actively participate in regional chemical safety coalitions. This engagement helped us anticipate regulatory trends and avoid the sort of public backlash that has shut other plants down. We not only meet, but often exceed, emission standards; our aim remains to support a sustainable industry that answers to neighbors and the market, not just regulators.

    Addressing Issues and Offering Solutions

    No chemical runs smoothly through its lifecycle without trouble, especially one as reactive and demanding as iron pentacarbonyl. Over the years, we saw common pain points: product instability during transport, unpredictable moisture ingress, and misunderstanding of required storage protocols by downstream users. These led us to redesign our shipping drums, improve purging and sealing steps, and create better instruction materials — steps taken not out of contractual obligation, but due to seeing the cost of repeatedly fixing the same mistakes.

    Customer education took on a new dimension as global supply chains grew. We created clear, practical onboarding guides, site-inspection checklists, and tailored advice for new users. Our field teams travel globally, bringing this know-how directly to client operations. Our trainers grew out of the same crews who worked with iron pentacarbonyl for years rather than out of generic “consultancy” firms. Our aim: to make sure our product delivers value without surprise incidents or costly cleanups.

    Corrosion is a well-known risk with carbonyl compounds. We invested in metallurgy studies and developed technical bulletins to ensure customer facilities match compatible materials to our product. Quite a few customers see improvement in their own operations from switching to more resistant alloys or applying recommended protective coatings. Feedback from their maintenance crews — not just their managers — guided our innovations here.

    Unexpected regulatory waves periodically sweep the industry. Having seen shipping lanes close to dangerous goods on short notice more than once, we put adaptive routing and local storage networks in place well ahead of most. Our commitment extends to continuing to work directly with port authorities, chemical trade bodies, and regional regulators so shipments get where they are going — legally, safely, and with a minimum of delay.

    Raising the Bar for Chemical Manufacturing

    Through decades of making, handling, and shipping iron pentacarbonyl, we learned that technical prowess alone doesn’t define a good manufacturer. Trusted relationships formed by doing the hard work together — responding to recalls, sharing data, standing behind the product — make a difference that cannot be substituted or simulated by a third party or repackager. End users who come to us from supplier switches quickly notice the gulf: batches behave differently, failures drop, and transparency rises. The direct connection to the actual plant gives us leverage to solve problems at the source.

    Each step in the supply chain, each specification, each improvement to safety and sustainability arises from seeing real risk and opportunity together with customers, regulators, and our own workforce. The value offered by a true manufacturer is resilience, flexibility, and a commitment to keep learning — not just to supply a commodity but to build a partnership that solves problems as they come, no matter how challenging.

    Looking Ahead with Confidence

    Markets and technologies evolve, often unpredictably. The uses for high-quality iron pentacarbonyl, too, shift as new industries emerge. Still, our foundations hold strong: reliable chemistry, direct accountability, and a sharp focus on delivering what matters most to those who rely on each drum, each shipment. We believe in transparency, steady improvement, and keeping promises — because no chemical, however important, delivers its full value without a manufacturer deeply committed to its journey from lab bench to end application.

    Our iron pentacarbonyl reflects not just a formula, but decades of real-world learning, investment, and problem solving. We continue to refine, to listen, and to answer the needs of evolving industries. For those who know the stakes tied to this chemical — from catalyst lines to novel materials research — a direct link to a focused manufacturer remains the surest guarantee of both performance and safety.