103,444 materials
InBO2F is an inorganic ceramic compound containing indium, boron, oxygen, and fluorine elements, representing a mixed-anion ceramic in the borate-fluoride family. This material is primarily of research and development interest for optical and electronic applications, particularly where the combination of boron-oxygen bonding with fluorine incorporation offers potential advantages in transparency, thermal stability, or specific refractive properties. InBO2F and related indium borofluoride ceramics are being investigated as candidate materials for specialized optical components, scintillators, and potentially high-temperature electronic insulators, though industrial production and widespread adoption remain limited compared to established ceramic alternatives.
InBO2N is an advanced ceramic compound combining indium, boron, oxygen, and nitrogen—a nitride-oxide hybrid material in the indium borate nitride family. This is a research-phase ceramic being investigated for high-temperature structural applications and semiconductor-related uses, where the combination of metallic (indium), covalent (boron-nitrogen bonds), and ionic (oxygen) character may offer unique thermal stability, hardness, or electrical properties compared to conventional oxides or nitrides alone.
InBO₂S is an experimental mixed-anion ceramic compound combining indium, boron, oxygen, and sulfur into a single-phase material. This composition lies at the intersection of borate and sulfide ceramic chemistry, representing research-stage material development rather than established industrial production. While not yet widely commercialized, materials in this family are being investigated for optoelectronic applications, solid-state ion conductors, and wide-bandgap semiconductors where the combination of anionic species can tune electronic and ionic properties beyond traditional oxides or sulfides alone.
InBO3 is an indium borate ceramic compound belonging to the family of metal borate ceramics, which are typically characterized by strong covalent bonding and high hardness. This material is of primary interest in research and specialized optical applications, particularly where high refractive index, low thermal expansion, or nonlinear optical properties are advantageous. InBO3 represents an emerging functional ceramic rather than a commodity material, with potential applications in optical devices, photonic components, and high-temperature structural ceramics where its borate chemistry offers advantages over traditional oxides.
InBOFN is a ceramic compound within the indium borate oxynitride family, combining indium, boron, oxygen, and nitrogen phases to achieve tailored mechanical and thermal properties. This material is primarily investigated in research contexts for high-temperature structural applications and advanced optoelectronic devices, where its nitride-oxide hybrid composition offers potential advantages in thermal stability and hardness compared to conventional single-phase ceramics or boron nitride alone.
InBON2 is a ceramic compound in the indium boron oxynitride family, combining indium, boron, oxygen, and nitrogen into a single-phase material. This is primarily a research and development material studied for high-temperature structural and thermal applications where conventional ceramics face limitations. The material is notable for its potential to operate in demanding aerospace and energy sectors, though it remains largely in experimental phases compared to established oxide or carbide ceramics.
InBr is an indium bromide ceramic compound belonging to the III-V semiconductor and halide ceramic family. It is primarily investigated in research and specialized optoelectronic applications, particularly for infrared (IR) window materials, radiation detection, and photonic devices where its wide bandgap and optical transparency in specific wavelength regions are advantageous. Engineers consider InBr when designing systems requiring thermal stability, chemical resistance, or IR transmission in harsh environments, though it remains less common than established alternatives like GaAs or CdZnTe due to limited commercial availability and processing complexity.
InBr₂ is an indium bromide ceramic compound belonging to the halide ceramics family. It is primarily of research and specialized industrial interest rather than a commodity material, with potential applications in optoelectronics, semiconductor device fabrication, and thermal management systems where its ionic bonding and structural properties may offer advantages in niche operating environments.
InBr₂O is an indium bromide oxide ceramic compound, representing a mixed-halide metal oxide system with potential applications in advanced materials research. This material belongs to the broader family of indium-based oxides and halides, which are primarily investigated for optoelectronic, photocatalytic, and functional ceramic applications. As a research-phase compound, InBr₂O is not yet widely deployed in mainstream industrial production, but its composition suggests potential utility in semiconducting or photocatalytic applications where combined halide-oxide chemistry offers tunable electronic properties compared to pure oxides or halides alone.
Indium tribromide (InBr₃) is an inorganic ceramic compound belonging to the III-V halide family, consisting of indium and bromine in a 1:3 stoichiometric ratio. This material is primarily of research and developmental interest rather than established in high-volume industrial production, with potential applications in optoelectronics, semiconductors, and layered material systems where halide perovskites and their precursors are explored. InBr₃ is notable in materials science as a precursor or component for emerging technologies in thin-film optics, solid-state devices, and two-dimensional material engineering where its layered crystal structure and halide chemistry offer tunable properties for next-generation semiconductors and photovoltaic systems.
InBr₄O is an indium-based mixed halide-oxide ceramic compound, representing a specialized material within the family of indium halides and oxyhalides. This is a research-phase compound with limited commercial deployment; materials in this chemical family are primarily studied for potential applications in optoelectronics, ion-exchange systems, and specialized optical or photonic devices where indium's electronic properties and halide coordination chemistry offer advantages over conventional ceramics.
InBrO is an experimental mixed-halide ceramic compound containing indium, bromine, and oxygen. This material belongs to the layered perovskite family and is primarily of research interest for optoelectronic and photovoltaic applications, where the combination of elements offers tunable bandgap properties and potential for solution-based processing. While not yet commercialized, InBrO represents an emerging class of halide ceramics being investigated as alternatives to lead-based perovskites, with particular attention to layered structures that may offer improved stability and reduced toxicity concerns in next-generation solar cells and light-emitting devices.
InBrO₂ is a rare earth indium bromide oxide ceramic compound, representing an emerging class of mixed-anion oxides with potential functional properties. This material remains largely experimental and is primarily investigated in academic and materials research settings for its possible applications in optoelectronics, catalysis, and solid-state chemistry, where the combination of indium and bromide within an oxide framework may enable novel electronic or photonic behavior not easily achieved with conventional binary oxides.
InC₂ is an indium carbide ceramic compound belonging to the family of transition metal carbides, characterized by high hardness and stiffness. While not commonly encountered in mainstream industrial production, this material is primarily of interest in materials research and specialized high-performance applications where extreme hardness, thermal stability, and wear resistance are required.
InC₃ is an indium carbide ceramic compound belonging to the family of refractory carbides. This material is primarily of research and specialized industrial interest, valued for its potential in high-temperature applications where chemical stability and hardness are critical. InC₃ and related indium carbides are explored in semiconductor processing, hard coatings, and advanced refractory applications where conventional materials may degrade; however, commercial adoption remains limited compared to more established carbides like tungsten carbide or silicon carbide.
InCaN₃ is an experimental ternary nitride ceramic composed of indium, calcium, and nitrogen, synthesized primarily in research settings rather than established commercial production. This material belongs to the wider family of metal nitrides and is of interest for wide-bandgap semiconductor and advanced ceramic applications, particularly where thermal stability, hardness, or electrical properties at high temperatures are required. Its novelty and limited industrial deployment make it relevant mainly to researchers and engineers exploring next-generation materials for optoelectronics, high-temperature electronics, or specialized structural applications where conventional nitride ceramics may fall short.
InCaO2F is a rare-earth-containing oxide fluoride ceramic composed of indium, calcium, oxygen, and fluorine elements. This is a research-phase material being investigated for optical and photonic applications, where the fluorine substitution in the oxide lattice is expected to modify bandgap, refractive index, and transparency properties compared to conventional oxide ceramics. Materials in this compositional family show promise for transparent ceramics, scintillators, and photoluminescent devices where tunable optical properties and chemical stability are needed, though InCaO2F remains largely in laboratory development rather than high-volume industrial use.
InCaO2N is an experimental ceramic compound containing indium, calcium, oxygen, and nitrogen elements, representing a mixed-anion ceramic system that combines oxide and nitride chemistry. This material is primarily of research interest for advanced applications requiring high-temperature stability, wide bandgap semiconductivity, or specialized dielectric properties; it belongs to the emerging class of oxynitride ceramics that can offer tunable properties between traditional oxides and nitrides. Engineers evaluating InCaO2N would do so in early-stage development contexts where the combination of indium's electronic properties with nitrogen-enhanced covalency could provide advantages in optoelectronic devices, thin-film applications, or high-k dielectric systems not yet achievable with conventional alternatives.
InCaO2S is a mixed-metal oxide-sulfide ceramic compound containing indium, calcium, oxygen, and sulfur elements. This material belongs to the family of complex metal chalcogenides and is primarily of research interest rather than established commercial use. The compound is studied for potential applications in optoelectronics, photocatalysis, and solid-state ion conductivity, where the combined ionic and electronic properties of the indium-calcium oxide-sulfide system may offer advantages in energy conversion or environmental remediation technologies.
InCaO₃ is an indium calcium oxide ceramic compound, likely an experimental or specialized material within the broader family of mixed-metal oxides used in electronic and optical applications. This ternary oxide system is of research interest for potential applications in semiconducting, photocatalytic, or dielectric applications where the combined properties of indium and calcium oxides may offer advantages over binary alternatives. The material remains relatively niche compared to established ceramics, making it most relevant for advanced technology development rather than conventional engineering applications.
InCaOFN is an experimental oxynitride ceramic compound containing indium, calcium, oxygen, and nitrogen elements. This material belongs to the oxynitride ceramic family, which combines oxide and nitride bonding to achieve enhanced properties such as improved thermal stability, hardness, and chemical resistance compared to traditional oxides. While primarily a research-phase material, oxynitride ceramics like InCaOFN are being investigated for high-temperature structural applications and specialty coating systems where conventional ceramics face limitations.
InCaON2 is an experimental oxynitride ceramic compound containing indium, calcium, oxygen, and nitrogen. This material belongs to the broader family of mixed-anion ceramics (oxynitrides), which are of research interest for combining properties from both oxide and nitride ceramics. While not yet established in mainstream industrial applications, oxynitride ceramics are being investigated for high-temperature structural applications, photocatalysis, and semiconductor devices where the nitrogen incorporation can modulate electronic properties and thermal stability compared to conventional oxides.
InCdN3 is an experimental ternary nitride ceramic compound combining indium, cadmium, and nitrogen elements. This material belongs to the family of III-V and mixed-metal nitrides under active research for semiconductor and wide-bandgap applications. As a research-phase compound, InCdN3 is being investigated primarily in academic and advanced materials labs for potential optoelectronic, photovoltaic, or high-temperature device applications, though industrial deployment remains limited; its development is motivated by the ability to tune electronic properties through cadmium incorporation relative to established binary nitrides like InN and GaN.
InCdO2F is an experimental mixed-metal oxide fluoride ceramic composed of indium, cadmium, oxygen, and fluorine. This compound belongs to the family of complex oxide ceramics being investigated for optoelectronic and photocatalytic applications, where the combination of metal cations and fluorine anion doping is explored to engineer band structure and ion transport properties. Research interest in this material focuses on potential uses in photocatalysis, transparent conducting oxides, or solid-state ion conductors, though it remains primarily a laboratory compound without established commercial production or widespread industrial deployment.
InCdO2N is an experimental quaternary ceramic compound combining indium, cadmium, oxygen, and nitrogen—a member of the oxynitride family being explored for advanced optoelectronic and semiconductor applications. This material is primarily a research-stage compound investigated for its potential in photocatalysis, thin-film transistors, and visible-light-active photocatalytic devices, where the nitrogen incorporation is expected to narrow the bandgap compared to traditional oxide counterparts. Engineers would consider this material when seeking nitrogen-doped oxide alternatives with tunable electronic properties, though commercial availability and scalability remain limited to specialized research applications.
InCdO2S is a quaternary ceramic compound combining indium, cadmium, oxygen, and sulfur—a mixed-anion material that bridges oxide and sulfide chemistry. This is primarily a research-phase compound investigated for optoelectronic and photocatalytic applications, where the combination of cations and anions can be engineered to tune bandgap and light absorption properties relative to binary or ternary alternatives.
InCdO3 is an indium–cadmium oxide ceramic compound, part of the broader family of transparent conducting oxides (TCOs) and mixed-metal oxide ceramics. This material is primarily investigated in research contexts for optoelectronic and photonic applications where transparent electrical conductivity is required. The indium–cadmium composition positions it as an alternative to more common TCOs like indium tin oxide (ITO), with potential advantages in specific wavelength ranges or processing conditions, though cadmium toxicity concerns generally limit industrial adoption compared to lead-free alternatives.
InCdOFN is an experimental oxide ceramic compound containing indium, cadmium, oxygen, fluorine, and nitrogen elements. This multinary ceramic belongs to the family of complex metal oxynitride and oxyfluoride materials currently under investigation for advanced electronic and photonic applications. The combination of these elements is designed to achieve tailored band gaps, ionic conductivity, or optical properties not easily accessed in simpler binary or ternary systems, making it primarily of research interest rather than established commercial use.
InCdON2 is an experimental ternary ceramic compound combining indium, cadmium, oxygen, and nitrogen. This material belongs to the oxynitride ceramic family and is primarily investigated in research contexts for optoelectronic and semiconductor applications, where its mixed anion structure offers potential for band gap engineering and tunable electronic properties. While not yet established in mainstream industrial production, oxynitride ceramics like InCdON2 are studied as alternatives to conventional binary oxides and nitrides, particularly where enhanced photocatalytic activity, visible-light absorption, or specific electrical properties are needed.
InCeO3 is an indium–cerium mixed oxide ceramic compound that belongs to the family of rare-earth doped oxides. This material is primarily explored in research and development contexts for applications requiring high-temperature stability, ionic conductivity, or catalytic activity, positioning it as a candidate material for solid oxide fuel cells, oxygen sensors, and catalytic converters where the combination of indium and cerium oxides offers potential advantages in thermal durability and chemical selectivity.
Indium monochloride (InCl) is an intermetallic ceramic compound combining indium and chlorine, typically studied in materials science research rather than as an established commercial ceramic. While InCl itself is not widely deployed in industrial applications, it belongs to the family of III-V semiconductor and intermetallic chlorides that are investigated for optoelectronic properties, solid-state chemistry, and as precursors in thin-film deposition processes. The material's potential relevance lies in emerging applications such as semiconductor device fabrication, photonic materials research, or high-temperature ceramic systems where its specific elastic and density characteristics may offer advantages in niche engineering contexts.
Indium chloride (InCl₂) is an inorganic ceramic compound belonging to the metal halide family, typically encountered as a precursor material or intermediate compound in materials synthesis rather than as a final engineered product. While InCl₂ itself sees limited direct structural applications, it is notable in semiconductor and optoelectronic manufacturing as a source material for indium-containing thin films, transparent conducting oxides, and compound semiconductors. Engineers and researchers select indium halides for their role in chemical vapor deposition, sol-gel processing, and other synthetic routes where precise control of indium incorporation is critical for producing high-purity functional ceramics and semiconductors.
Indium chloride (InCl3) is an inorganic halide ceramic compound used primarily as a precursor material and catalyst in chemical synthesis and semiconductor processing. It functions as a Lewis acid in organic transformations and serves as a starting material for producing indium oxide and other indium-based compounds in thin-film and optoelectronic applications. Engineers select InCl3 where high chemical reactivity and indium incorporation are needed, particularly in contexts where solution-based or vapor-phase deposition methods are preferred over alternative indium sources.
InClO is an indium chloride oxide ceramic compound, a layered material belonging to the broader family of mixed-metal oxychlorides and oxyhalides. This is primarily a research material under investigation for applications requiring semiconducting or electronic properties, rather than a conventionally established engineering ceramic. The material's layered crystal structure and relatively low exfoliation energy suggest potential for producing 2D nanosheet derivatives, which are of significant interest in emerging electronics, photocatalysis, and energy storage applications where tunable band gaps and high surface-area architectures are advantageous.
InCN₂ is an indium-based ceramic compound belonging to the nitride family, combining indium with carbon and nitrogen elements. While primarily explored in materials research rather than established industrial production, this compound is of interest in the context of wide-bandgap semiconductors and advanced ceramics, with potential applications in high-temperature, high-hardness, or electronic device contexts. The material represents an emerging exploration in nitride chemistry where indium compounds are investigated for novel property combinations not readily available in conventional ceramic or semiconductor alternatives.
InCo2N2 is an intermetallic nitride compound combining indium, cobalt, and nitrogen, representing an experimental material in the high-entropy and refractory compound family. While not yet widely commercialized, materials in this class are of interest for advanced applications requiring high hardness, thermal stability, and chemical resistance, particularly where conventional metal alloys or ceramics fall short. Research on indium-cobalt nitrides focuses on potential use in wear-resistant coatings, catalytic systems, and high-temperature structural applications.
InCo3N is a transition metal nitride compound combining indium and cobalt, belonging to the family of hard ceramic-metal hybrids that exhibit metallic conductivity alongside ceramic hardness and wear resistance. While primarily investigated in research settings, InCo3N and related ternary nitrides are explored for applications requiring high hardness, thermal stability, and chemical resistance—particularly in cutting tools, wear-resistant coatings, and high-temperature structural components where conventional alloys fall short. Its appeal lies in combining the toughness typical of metallic systems with the extreme hardness of ceramic nitrides, making it a candidate material for next-generation tool and protective coating applications.
InCo3SnS2 is an intermetallic compound combining indium, cobalt, tin, and sulfur elements, representing a complex multi-component metallic system with potential for advanced functional applications. This material falls within the realm of research-phase intermetallic compounds and chalcogenides, explored for its unique electronic and mechanical properties that differ from conventional binary or simple ternary alloys. Its dense, stiff structure makes it relevant for applications demanding high modulus and stability, particularly in thermoelectric devices, catalytic systems, or advanced energy storage where multi-element synergy provides performance advantages over traditional alternatives.
InCoN3 is a nickel-based superalloy from the inconel family, likely designed for high-temperature applications requiring exceptional strength and corrosion resistance. The material typically finds use in aerospace propulsion systems, power generation turbines, and chemical processing equipment where sustained elevated-temperature performance is critical. Engineers select InCoN3-class alloys when competing materials cannot meet the combination of creep resistance, oxidation resistance, and mechanical stability demanded in extreme thermal environments.
Inconel 625 made by bound metal deposition is the nickel-chromium-molybdenum-niobium alloy printed from metal-filled polymer filament, then debound and sintered into a metal part. The green part is printed oversize to allow for sintering shrinkage, and the sintered part keeps layer lines, a rougher surface than machined stock, and some porosity. Sagging during sintering limits long unsupported spans, so supports or setters are often needed, and properties can vary with build direction. Typical uses are corrosion-resistant fixtures, housings and fluid-handling parts, and low-volume components for marine, chemical and aerospace service.
Desktop Metal Nickel Alloy IN625 (Studio System 2) is the maker's grade of Inconel 625 printed by bound metal deposition, here in the sintered condition. Alloy powder held in a polymer and wax binder is extruded layer by layer, then debound and furnace-sintered, shrinking substantially, so parts are printed oversized to reach final dimensions. Sintering gives an equiaxed grain structure without the melt-pool texture of laser processes, but leaves some residual porosity, visible layer lines and a rough surface, so functional faces are usually machined. Parts serve as low-volume corrosion- and heat-resistant brackets, fittings, fixtures and prototypes for chemical, marine and energy equipment. Every value on this page is read from Desktop Metal's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Markforged Inconel 625 is the maker's grade of the nickel-chromium-molybdenum alloy printed by bound metal deposition, extruded as a metal-powder-filled polymer filament. The green part is debound and furnace-sintered, shrinking as it densifies, so it is printed oversize. It ends with a sintered grain structure and some closed residual porosity, without the melt-pool structure and residual stress of laser-fused parts. Surfaces show layer lines, and critical features are usually machined. Parts are used for corrosion- and heat-resistant fixtures, tooling, manifolds and low-volume replacement parts in chemical processing, marine and energy equipment. Every value on this page is read from Markforged's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Markforged Inconel 625 is the maker's grade of the nickel-chromium-molybdenum-niobium alloy printed by bound metal deposition, here as a part in the sintered condition. The part is extruded oversized from polymer-bound powder filament, debound to remove the binder and furnace-sintered, shrinking as the powder densifies into a near-dense metal with a sintered grain structure rather than a melt-pool structure. Some residual porosity remains, and layer lines leave a rough surface, so critical faces and holes are usually machined. Printed parts are used for corrosion- and heat-resistant fixtures, tooling, brackets and low-volume functional components in chemical, marine and industrial equipment. Every value on this page is read from Markforged's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Inconel 625 printed by laser powder bed fusion is the nickel-chromium-molybdenum-niobium alloy built layer by layer from fine gas-atomized powder. Rapid solidification gives a fine cellular-dendritic structure with columnar grains along the build direction, so properties can differ between vertical and horizontal builds. Parts have high residual stress and a rough as-built surface, need supports for overhangs, and are usually stress relieved on the plate, then often heat treated, hot isostatically pressed or machined. Printed parts serve as corrosion- and heat-resistant aerospace ducting, combustor components, heat exchangers and chemical-process hardware with complex internal passages.
3D Systems LaserForm Ni625 (A) is a grade of Inconel 625, a nickel-chromium-molybdenum-niobium alloy, made by laser powder bed fusion. As printed, it has a fine cellular solidification structure with columnar grains along the build direction, so its properties differ between build directions. Parts carry residual stress and need supports, so they are usually stress relieved on the build plate, often hot isostatically pressed or solution annealed, and machined where the rough surface matters. Typical parts are corrosion- and heat-resistant heat exchangers, manifolds, combustion hardware and chemical processing components with internal channels. Every value on this page is read from 3D Systems' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
3D Systems LaserForm Ni625 (A) is that maker's grade of Inconel 625 made by laser powder bed fusion, here in the annealed condition. As printed, the alloy has a fine cellular structure with niobium and molybdenum segregated at cell boundaries, columnar grains along the build direction and high residual stress. Annealing relieves that stress and homogenizes the structure, lowering strength, raising ductility and reducing anisotropy compared with the as-built state, while supports still need removing and functional surfaces machining. It is used for corrosion- and heat-resistant parts with complex internal passages, such as manifolds, heat exchangers and combustion hardware. Every value on this page is read from 3D Systems' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
3D Systems LaserForm Ni625 (A) is a grade of Inconel 625 printed by laser powder bed fusion, here in the as-built condition without heat treatment. Rapid solidification gives a fine cellular-dendritic structure with niobium and molybdenum segregated to the cell boundaries, inside columnar grains elongated along the build direction, so properties vary with build orientation. Parts carry high residual stress, need supports and have rough surfaces, so printing is usually followed by stress relief, support removal and often machining. Typical uses are heat- and corrosion-resistant parts with internal channels, such as heat exchangers, manifolds and combustion hardware. Every value on this page is read from 3D Systems' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
3D Systems LaserForm Ni625 (A) is Inconel 625 printed by laser powder bed fusion from that maker's powder grade and then stress-relieved. As printed, it has a fine cellular-dendritic structure with columnar grains along the build direction, giving some anisotropy, and high residual stress. Stress relief, usually done on the build plate, lowers that stress and distortion on removal while largely keeping the as-built grain structure. Overhangs need supports, and the rough surface is often machined where sealing or fatigue matters. Typical parts are complex corrosion- and heat-resistant components such as heat exchangers, manifolds, ducting and exhaust parts. Every value on this page is read from 3D Systems' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Inconel 625 in the as-built condition is the nickel-chromium-molybdenum-niobium alloy exactly as it leaves the L-PBF machine, before stress relief, hot isostatic pressing or solution treatment. Rapid solidification gives fine cellular-dendritic grains, often elongated along the build direction, with niobium and molybdenum segregated between cells, so properties can vary with orientation. High residual stress can distort parts once they are cut from the plate, and surfaces are rough with supports to remove. The state is mainly a starting point for heat treatment and machining of parts for corrosion- and heat-exposed service, such as ducting and heat exchangers.
Colibrium Additive Nickel 625 is the maker's Inconel 625 grade for laser powder bed fusion, here as-built, without post-print heat treatment. Rapid melt-pool solidification gives a fine cellular-dendritic structure, columnar grains along the build direction and niobium and molybdenum segregation at cell boundaries, making properties orientation-dependent. Parts carry high residual stress, are anchored to the plate by supports and have rough down-facing surfaces, so stress relief, plate removal and often hot isostatic pressing or solution annealing and machining follow. Printed parts serve as heat- and corrosion-resistant components with internal channels, such as heat exchangers and combustion hardware. Every value on this page is read from Colibrium Additive's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Colibrium Additive Nickel 625 is the maker's laser powder bed fusion grade of the nickel-chromium-molybdenum-niobium alloy Inconel 625, here in the stress-relieved condition. Printing gives a fine cellular-dendritic structure with columnar grains along the build direction, interdendritic segregation of molybdenum and niobium, and high residual stress. Stress relief, usually done before parts are cut from the build plate, reduces distortion but largely keeps the as-built structure and its anisotropy between build directions. Supports must still be removed and rough surfaces machined or finished. Typical parts are heat- and corrosion-resistant components with internal passages, such as heat exchangers and manifolds. Every value on this page is read from Colibrium Additive's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
EOS NickelAlloy IN625 is a maker's grade of Inconel 625, a nickel-chromium-molybdenum-niobium alloy, processed by laser powder bed fusion. As built it is near fully dense, with a fine cellular-dendritic structure and columnar grains along the build direction that make properties differ between orientations. Rapid solidification leaves residual stress and niobium segregation, so parts are stress-relieved before removal from the plate and often solution annealed or hot isostatically pressed. Overhangs need supports, and the rough surface is usually machined or polished. Parts serve as corrosion- and heat-resistant components with complex geometry, such as aerospace ducting, heat exchangers and chemical-processing hardware. Every value on this page is read from EOS's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
EOS NickelAlloy IN625 is one maker's grade of the nickel-chromium-molybdenum-niobium alloy Inconel 625 printed by laser powder bed fusion, here in the as-built condition. As built, it has a fine cellular-dendritic structure with columnar grains along the build direction and niobium and molybdenum segregated at cell boundaries. This makes it stronger but less ductile than annealed wrought alloy and gives it properties that differ between build directions. Parts carry high residual stress and a rough surface, need supports on overhangs, and are usually stress relieved before removal from the plate. They are used for corrosion- and heat-resistant manifolds, heat exchangers, ducting and combustion hardware. Every value on this page is read from EOS's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
EOS NickelAlloy IN625 is a maker's powder grade of the nickel-chromium-molybdenum-niobium alloy Inconel 625, printed by laser powder bed fusion and then heat-treated. As built, it has a fine cellular structure with niobium and molybdenum segregated to cell boundaries, columnar grains along the build direction and high residual stress. Heat treatment relieves that stress before parts are cut from the plate and can homogenize the structure, reducing anisotropy, though supports must still be removed and the rough surface usually machined. Typical parts are heat exchangers, combustion and exhaust hardware, ducting and fluid-handling components for aerospace, energy and chemical processing. Every value on this page is read from EOS's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Nikon SLM Solutions IN625 is that maker's grade of the nickel-chromium-molybdenum-niobium alloy Inconel 625 for laser powder bed fusion. As printed, it has a fine cellular-dendritic structure with columnar grains along the build direction, so its properties differ between build orientations. Residual stress calls for stress relief before parts are cut from the plate. This is often followed by solution annealing or hot isostatic pressing, and by machining of the rough surface. Printed parts serve as heat exchangers, combustor and exhaust hardware, and chemical-processing or marine components with intricate internal channels. Every value on this page is read from Nikon SLM Solutions' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Nikon SLM Solutions IN625 is that maker's grade of Inconel 625, a nickel-chromium-molybdenum-niobium alloy, for laser powder bed fusion, here annealed. As printed it has a fine cellular structure with niobium and molybdenum segregated to cell boundaries, grains elongated along the build direction and high residual stress, so parts need supports and stress relief before removal from the plate. Annealing relieves that stress and dissolves much of the segregation, lowering strength but raising ductility and reducing anisotropy. Parts serve as heat exchangers, combustor and exhaust hardware, manifolds and corrosion-resistant chemical and marine components with internal channels. Every value on this page is read from Nikon SLM Solutions' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Nikon SLM Solutions IN625 is that maker's grade of Inconel 625 for laser powder bed fusion, here in the as-built condition without heat treatment. Rapid solidification gives a fine cellular-dendritic structure, with niobium and molybdenum segregated to cell boundaries and columnar grains along the build direction. As a result, strength is high, ductility is below annealed wrought material and properties depend on build direction. Parts carry high residual stress and a rough surface, need supports on overhangs and are usually stress relieved, often also solution annealed or hot isostatically pressed. Typical uses are heat exchangers, combustor and exhaust parts, manifolds and chemical-process hardware with internal passages. Every value on this page is read from Nikon SLM Solutions' own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Renishaw In625-0402 is that maker's grade of Inconel 625, a nickel-chromium-molybdenum-niobium alloy, for laser powder bed fusion. Rapid solidification gives a fine cellular structure with niobium and molybdenum segregated to the cell walls, and columnar grains along the build direction make properties differ between orientations. Parts carry high residual stress, so they are stress relieved before removal from the plate and often solution annealed or hot isostatically pressed, then machined where the rough surface matters. Printed parts serve as corrosion- and heat-resistant components with complex internal passages, such as heat exchangers, manifolds and combustion hardware. Every value on this page is read from Renishaw's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Renishaw In625-0402 printed by laser powder bed fusion is the maker's grade of the nickel-based alloy Inconel 625 in the as-built state, without heat treatment. Rapid solidification gives a fine cellular-dendritic microstructure with niobium and molybdenum segregated at cell boundaries and columnar grains along the build direction, so properties are anisotropic. Parts carry high residual stress, need supports and have a rough surface. Stress relief, often hot isostatic pressing or solution annealing, and machining usually follow. It is used for corrosion- and heat-resistant parts such as aerospace exhaust and combustion hardware, heat exchangers and chemical-processing components. Every value on this page is read from Renishaw's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.
Renishaw In625-0402 is Renishaw's grade of the nickel-chromium-molybdenum-niobium alloy Inconel 625 for laser powder bed fusion, here in the heat-treated condition. As printed, it has a fine cellular structure with niobium and molybdenum segregated at cell boundaries, columnar grains along the build direction and high residual stress, giving direction-dependent properties. Heat treatment relieves that stress before parts are removed from the plate and can homogenize and recrystallize the structure, reducing anisotropy; supports still have to be removed and functional surfaces machined. It is used for corrosion- and heat-resistant parts such as heat exchangers, manifolds and combustor and exhaust components. Every value on this page is read from Renishaw's own material data sheet — quoted, cited and dated — and is the maker's statement about printed material, not a measurement by MatWorld; none has yet been reviewed by a person.