24,832 materials
Colibrium Additive Nickel 718 is the maker's Inconel 718 grade, printed by laser powder bed fusion and hot isostatically pressed. As built, it has fine columnar grains along the build direction, niobium-rich interdendritic segregation, high residual stress and rough downskin surfaces, so parts are stress relieved before support removal. Hot isostatic pressing closes internal pores, reduces segregation and anisotropy, and is usually followed by solution treatment and ageing to precipitate strengthening gamma double prime. Parts serve in gas turbine and rocket engines as combustor hardware, fuel nozzles, brackets and heat exchangers. 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 IN718 is one maker's grade of Inconel 718, a precipitation-hardening nickel superalloy, supplied as powder for laser powder bed fusion. Rapid solidification gives a fine cellular-dendritic structure with niobium segregation and columnar grains along the build direction, so properties differ between build orientations. Parts need supports and a stress relief before removal from the plate. They then usually receive solution treatment and aging, often with hot isostatic pressing, and machining of critical surfaces. Typical uses are gas turbine and rocket engine parts such as combustor components, injectors and heat exchangers with internal channels. 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 IN718 in the as-built condition is Inconel 718 made by laser powder bed fusion from this maker's powder, before any heat treatment. Rapid solidification leaves a fine cellular structure with columnar grains along the build direction and niobium segregation between cells, without the gamma double prime precipitation that age-hardens the alloy. Parts carry high residual stress, differ between build directions, need supports and have rough surfaces, so they are usually stress relieved on the plate, then solution treated and aged, often with hot isostatic pressing. The as-built state is mainly a starting point for turbine and rocket engine parts, brackets and heat exchangers. 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 IN718 is a laser powder bed fusion powder grade of the precipitation-hardening nickel superalloy Inconel 718, here in the heat-treated condition. As built, it has a fine cellular-dendritic structure with niobium segregation, columnar grains along the build direction and high residual stress, so parts are stress-relieved before removal from the plate and supports. Solution treatment and double aging precipitate the gamma double-prime strengthening phase, sometimes after hot isostatic pressing to close porosity, though the columnar texture leaves some anisotropy. Parts serve as turbine and rocket engine components, combustor hardware and heat exchangers, with functional surfaces usually machined. 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.
Farsoon IN718 is the Inconel 718 nickel-chromium-iron superalloy powder grade supplied by Farsoon for laser powder bed fusion. As printed, the alloy has a fine cellular-dendritic structure with columnar grains elongated along the build direction, niobium segregation and Laves phase between cells, high residual stress and direction-dependent properties. Parts are normally stress relieved on the plate, often hot isostatically pressed, then solution treated and aged to precipitate the strengthening gamma double prime phase, with supports cut off and functional surfaces machined. Printed parts serve as turbine and rocket engine components, manifolds, brackets and heat exchangers with complex internal channels. Every value on this page is read from Farsoon'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.
Farsoon IN718 heat-treated is Farsoon's grade of the nickel superalloy Inconel 718 made by laser powder bed fusion and then heat-treated. As printed, it has a fine cellular structure with niobium segregation and Laves phase, columnar grains along the build direction and high residual stress, and parts are built on supports. Heat treatment, typically stress relief followed by solution annealing and two-step aging, relieves stress and precipitates the gamma double prime and gamma prime phases that strengthen the alloy, though some anisotropy can remain. Parts are used for gas turbine and rocket engine components, combustion hardware and heat exchangers, usually with machined functional surfaces. Every value on this page is read from Farsoon'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 IN718 is that maker's grade of the nickel superalloy Inconel 718 for 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, niobium segregation and Laves phase between cells, and little of the gamma double prime precipitation that strengthens the alloy. Parts carry high residual stress, anisotropy and rough surfaces. They need supports, stress relief and usually hot isostatic pressing with solution and aging. Finished parts serve gas turbine and rocket engine hardware such as combustor and injector components, brackets and heat exchangers. 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 IN718 is that maker's grade of Inconel 718 printed by laser powder bed fusion, here in the heat-treated condition. As built, it has a fine cellular structure with niobium segregation, columnar grains along the build direction and residual stress, so parts are stress relieved before removal from the build plate and supports. Solution treatment and aging precipitate the gamma double prime and gamma prime phases that strengthen the alloy, though some anisotropy between build directions often remains. Printed parts serve as gas turbine and rocket engine components such as combustor hardware, brackets, manifolds and injectors. 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 In718-0405 is that maker's Inconel 718 powder grade for laser powder bed fusion, used to print the precipitation-hardening nickel superalloy layer by layer. As printed, it has a fine cellular-dendritic structure with niobium segregation, columnar grains along the build direction that make properties anisotropic, and high residual stress. Parts are usually stress relieved before removal from the plate and supports, then often hot isostatically pressed and solution treated and aged to precipitate the strengthening phases. Typical uses are gas turbine and rocket engine parts such as combustor components, brackets and manifolds with complex internal passages. 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 In718-0405 is that maker's Inconel 718 grade, made by laser powder bed fusion and given an ageing treatment. As printed, the alloy has a fine cellular-dendritic structure with niobium segregation, columnar grains along the build direction and high residual stress, so parts need supports and stress relief before removal from the plate. Ageing precipitates the strengthening gamma double prime and gamma prime phases, raising strength and hardness, while the columnar texture and some anisotropy remain. Printed parts serve gas turbine and rocket engine hardware such as brackets, combustor and fuel system components, and heat exchangers. 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 In718-0405 is the maker's grade of Inconel 718 for laser powder bed fusion, here in the as-built condition without post-print heat treatment. Rapid melt-pool solidification gives a fine cellular-dendritic structure with columnar grains along the build direction and niobium segregation between cells, without the age-hardening precipitates of the heat-treated alloy. As-built parts carry high residual stress, differ in properties between build directions and have rough supported surfaces. They are normally stress relieved on the plate, then solution treated and aged, often with hot isostatic pressing. Printed parts in this alloy serve gas turbine and rocket engine hardware, combustor parts, heat exchangers and brackets. 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 In718-0405 in the HIP condition is that maker's grade of Inconel 718 powder, built by laser powder bed fusion and then hot isostatically pressed. As printed, the alloy has a fine cellular-dendritic structure with niobium segregation, columnar grains along the build direction, residual stress and some internal porosity. Hot isostatic pressing closes internal pores not connected to the surface, relieves stress, and recrystallizes and homogenizes the structure. This reduces anisotropy and improves fatigue life but leaves the as-built surface unchanged, and solution treatment and aging normally follow. Parts are used for gas turbine and rocket engine hot-section components, brackets and heat exchangers. 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.
Inconel 718 made by laser powder bed fusion and then solution treated at 980 °C is a niobium-strengthened nickel-chromium-iron superalloy in a sub-solvus annealed state. As built, it has fine columnar cellular-dendritic grains along the build direction, niobium-rich segregation, high residual stress and direction-dependent properties. The 980 °C treatment relieves much of the stress and partly dissolves the segregation while leaving the columnar grains largely unrecrystallized, and it prepares the part for a later aging step. Parts are used for turbine and combustor hardware and other complex high-temperature components in aerospace and energy.
Inconel 718 printed by laser powder bed fusion, then solution treated and double aged, is a nickel-chromium-iron superalloy in its precipitation-hardened state. As printed, it has fine columnar grains textured along the build direction, niobium segregation between cells, residual stress and some anisotropy. Solution treatment relieves much of the stress and dissolves segregation, and the double age precipitates the strengthening phases, but porosity and rough surfaces remain, so hot isostatic pressing and machining are often added. Parts are used for turbine and engine hardware, ducting and brackets that must hold strength at elevated temperature.
Velo3D Inconel 718 is the maker's grade of the nickel superalloy Inconel 718 for laser powder bed fusion. As printed, it has a fine cellular-dendritic structure with niobium segregated between cells, columnar grains along the build direction that make properties anisotropic, and high residual stress. Parts are stress relieved before removal from the build plate, then typically hot isostatically pressed and solution treated and aged to precipitate the strengthening phases, with supports removed and rough surfaces machined. Uses include gas turbine and rocket engine parts such as injectors, manifolds and heat exchangers with internal passages. Every value on this page is read from Velo3D'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.
Velo3D Inconel 718 (HIP) is Velo3D's grade of the nickel superalloy Inconel 718, printed by laser powder bed fusion and then hot isostatically pressed. As printed, the alloy has fine columnar grains along the build direction, niobium-rich segregation with Laves phase between dendrites, residual stress and some internal porosity. Hot isostatic pressing closes internal pores, dissolves much of the segregation and partly recrystallizes the grains, which reduces anisotropy and improves fatigue life. Solution treatment and aging are still needed for full strength, and critical surfaces are machined. Typical parts are gas turbine and rocket engine hardware such as manifolds, injectors, combustor components and brackets. Every value on this page is read from Velo3D'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.
InCoSi₂ is an intermetallic compound combining indium, cobalt, and silicon, belonging to the family of ternary metal silicides. This material is primarily of research interest for high-temperature structural applications and thermoelectric device development, where its refractory nature and electronic properties offer potential advantages over conventional binary silicides, though industrial adoption remains limited pending further optimization of processing and manufacturing scalability.
InCrN3 is a ternary nitride ceramic compound combining indium, chromium, and nitrogen, representing an emerging material in the hard coatings and refractory ceramics family. While primarily in research and development rather than established production, InCrN3 belongs to the class of metal nitrides being investigated for high-hardness, wear-resistant coatings and extreme-environment applications where conventional hard coatings may be insufficient. The indium-chromium nitride system is notable for potential superior thermal stability and oxidation resistance compared to binary nitride alternatives, making it relevant to thermal protection, cutting tool enhancement, and high-temperature structural applications.
InCu is an intermetallic compound combining indium and copper, belonging to the family of metallic intermetallics that combine reactive and noble metals. This material is primarily investigated in research contexts for semiconductor packaging, bonding applications, and thermal management due to its potential for low-temperature processing and good wetting characteristics on oxide surfaces.
InCu2 is an intermetallic compound composed primarily of indium and copper, belonging to the family of binary metallic intermetallics. This material is of primary interest in research and specialized applications where the unique electronic and thermal properties of indium-copper systems offer advantages over conventional alloys, though industrial adoption remains limited compared to more common copper alloys.
InCu3 is an intermetallic compound composed of indium and copper, belonging to the family of metallic intermetallics that exhibit ordered crystal structures and distinct properties different from conventional solid solutions. This material is primarily of research and specialized industrial interest, valued for applications requiring specific combinations of electrical conductivity, thermal properties, and mechanical characteristics that differ from pure metals or conventional alloys.
InCuGeS₄ is a quaternary chalcogenide compound combining indium, copper, germanium, and sulfur. This is a research-phase material belonging to the I–III–IV–VI₂ semiconductor family, studied primarily for its potential in photovoltaic and optoelectronic applications due to its tunable bandgap and crystal structure. While not yet commercially established, chalcogenide semiconductors like this are of interest for thin-film solar cells, infrared detectors, and thermoelectric devices as alternatives to conventional silicon-based or cadmium-based materials, particularly where environmental or performance constraints make traditional semiconductors less suitable.
InCuN3 is an experimental intermetallic nitride compound combining indium, copper, and nitrogen in an unspecified stoichiometric ratio. While not yet commercialized as an engineering material, this compound belongs to the research family of metal nitrides, which are investigated for potential applications requiring high hardness, thermal stability, and electrical conductivity. The material's development context suggests interest in semiconductor processing, wear-resistant coatings, or advanced functional materials, though its practical utility and scalability remain under investigation.
InCuP2Se6 is a layered ternary chalcogenide compound combining indium, copper, phosphorus, and selenium elements. This is an experimental research material in the family of van der Waals layered compounds, notable for its potential in optoelectronic and energy conversion applications due to its tunable band structure and weak interlayer bonding characteristic of this material class.
InCuPd2 is an intermetallic compound combining indium, copper, and palladium, belonging to the family of precious metal alloys with ordered crystal structures. This material is primarily of research interest rather than established industrial production, with potential applications in electronic contacts, barrier layers, and high-reliability interconnect systems where the combination of noble metals offers corrosion resistance and thermal stability. Engineers would consider InCuPd2 in applications requiring controlled intermetallic phases where copper's cost-effectiveness is balanced against indium and palladium's superior oxidation resistance and contact reliability.
InCuPt2 is an intermetallic compound combining indium, copper, and platinum in a 1:1:2 ratio, belonging to the family of high-density metallic intermetallics. This material is primarily of research and development interest rather than established industrial use, with potential applications in specialty electronics, high-temperature applications, or catalytic systems where the unique properties of platinum-based intermetallics offer advantages over conventional alloys.
InCuRh2 is a ternary intermetallic compound combining indium, copper, and rhodium elements, representing a specialized alloy composition not commonly found in standard engineering practice. This material appears to be primarily of research interest rather than established industrial use, likely explored for applications requiring specific electronic, thermal, or catalytic properties that the indium-copper-rhodium system might provide. The material family context suggests potential relevance to high-performance applications where rare element combinations could enable novel functionality, though broader adoption would depend on cost, scalability, and demonstrated performance advantages over conventional alternatives.
InCuSe₂ is an intermetallic compound combining indium, copper, and selenium, belonging to the family of ternary metal chalcogenides. This material is primarily investigated in research contexts for semiconductor and thermoelectric applications, where the combination of metallic and semiconducting character offers potential advantages in energy conversion and electronic device design. InCuSe₂ and related ternary chalcogenides are explored as alternatives to traditional semiconductors in niche applications where their unique electronic structure and thermal properties could provide improved performance or cost benefits compared to conventional materials.
InCuSeS is a quaternary metal compound combining indium, copper, selenium, and sulfur—a semiconductor or mixed-metal chalcogenide material. While not widely commercialized as a standard engineering alloy, this composition belongs to the family of multinary chalcogenides being explored for optoelectronic and thermoelectric applications where tunable band gaps and mixed-metal synergies are advantageous. Its research context suggests potential use in photovoltaic devices, infrared detectors, or solid-state energy conversion systems where conventional binary semiconductors (CdTe, CdSe) or ternary compounds prove limiting.
InCuSnSe4 is a quaternary semiconductor compound combining indium, copper, tin, and selenium elements, belonging to the chalcogenide family of materials. This is a research-stage compound investigated primarily for photovoltaic and thermoelectric applications, where its tunable bandgap and potential for efficient charge carrier transport offer advantages over simpler binary or ternary alternatives. The material represents an emerging direction in sustainable energy conversion, with development focused on thin-film solar devices and solid-state cooling/power generation systems where compositional flexibility and earth-abundant elements are valued over conventional silicon or III-V semiconductors.
InCuTe₂ is an intermetallic compound combining indium, copper, and tellurium, representing a ternary metallic system with potential semiconductor or thermoelectric properties. This material belongs to the family of metal-semiconductor compounds and appears to be primarily in research and development phases rather than established industrial production. Interest in this composition likely stems from applications in thermoelectric energy conversion, optoelectronic devices, or specialized alloy systems where the indium-copper-tellurium combination offers advantages in electrical conductivity, thermal management, or phase stability compared to binary alternatives.
InCuTeSe is a quaternary compound alloy containing indium, copper, tellurium, and selenium—a material system primarily developed for semiconductor and photovoltaic research rather than established commercial production. This composition belongs to the family of chalcogenide semiconductors and represents an experimental material being investigated for potential thermoelectric, photovoltaic, or optoelectronic device applications where tunable bandgap and electrical properties are advantageous. While not yet widely adopted in mainstream engineering practice, materials in this chemical family are of interest to researchers exploring next-generation energy conversion and light-responsive devices.
InFe2CuSe4 is a quaternary intermetallic compound combining indium, iron, copper, and selenium—a research-phase material belonging to the family of chalcogenide-based metallic compounds. While not yet in widespread commercial production, this material class is of interest in thermoelectric and semiconductor device research, where the combination of metallic and semiconducting character can offer unique electronic transport properties. Engineers would evaluate this compound primarily for emerging applications in energy conversion or specialized electronic devices where conventional alloys and semiconductors prove inadequate.
InFeAs is an intermetallic compound composed of indium, iron, and arsenic, belonging to the family of III-V and transition metal arsenides. This material is primarily of research interest rather than established industrial production, investigated for its potential in semiconductor and optoelectronic applications due to its mixed metallic-semiconducting character. The compound's properties make it relevant to materials scientists exploring alternatives in thermoelectric devices, magnetoresistive components, and narrow-bandgap semiconductor systems where unconventional band structures could offer performance advantages.
InFeCo₂ is an intermetallic compound combining indium, iron, and cobalt, belonging to the family of rare-earth-free magnetic and structural intermetallics. This material is primarily of research interest rather than established in high-volume production, investigated for potential applications in magnetic devices and high-temperature structural applications where conventional alloys face limitations. Engineers would consider this compound when exploring alternatives to rare-earth magnets or when seeking materials with tailored magnetic properties combined with structural performance in specialized aerospace, automotive, or electronics contexts.
InFeN3 is an experimental iron-indium nitride compound belonging to the family of ternary metal nitrides, currently under research for potential functional and structural applications. This material is not yet in widespread industrial production; its development is driven by interest in exploring novel magnetic, electronic, or mechanical properties within transition-metal nitride systems. Engineers would consider this material primarily in research contexts investigating advanced coatings, magnetic materials, or high-hardness applications where the combination of iron and indium nitride phases might offer advantages over established binary nitride alternatives.
InFeRh2 is an intermetallic compound composed of indium, iron, and rhodium, belonging to the family of ternary metallic systems studied for advanced functional and structural applications. This material is primarily of research interest rather than established industrial production, investigated for its potential in high-temperature applications, magnetic properties, or catalytic systems where the combination of these transition and post-transition metals offers unique electronic and thermal characteristics. Engineers considering this material should recognize it as an emerging compound requiring evaluation for specific performance requirements rather than a conventional off-the-shelf alloy.
InGaAg₂Se₄ is a quaternary semiconductor compound combining indium, gallium, silver, and selenium in a fixed stoichiometric ratio. This material belongs to the I-III-VI₂ ternary semiconductor family and is primarily of research interest rather than established in high-volume production, with potential applications in optoelectronic and photovoltaic device research where tunable band gaps and mixed-cation flexibility are advantageous.
InGaAu is a ternary alloy combining indium, gallium, and gold—a compound typically explored in semiconductor and optoelectronic research rather than conventional structural applications. This material family is investigated for specialized electronic contacts, solder alternatives in high-reliability microelectronics, and potentially for infrared detector or photovoltaic device architectures where the combination of these metallic and semi-metallic elements offers tunable electrical and thermal properties. Engineers would consider InGaAu primarily in research and development contexts where conventional solders or contact metallization prove inadequate, particularly in applications requiring enhanced thermal management or compatibility with III-V semiconductor substrates.
InGaCu₂Se₄ is a quaternary semiconductor compound belonging to the chalcopyrite family, combining indium, gallium, copper, and selenium elements. This material is primarily of research and developmental interest for optoelectronic and photovoltaic applications, where its tunable bandgap and mixed-cation structure offer potential advantages over binary or ternary semiconductors in light absorption and charge transport. Engineering consideration of this compound is driven by its potential in next-generation thin-film solar cells and photodetectors where compositional flexibility and cost reduction compared to conventional III-V semiconductors are valued.
InGaCuAgSe4 is a quaternary semiconductor compound combining indium, gallium, copper, silver, and selenium. This is a research-stage material belonging to the I-III-VI₂ semiconductor family, synthesized for potential optoelectronic and photovoltaic applications where tunable bandgap and mixed-valence compositions offer advantages over binary or ternary alternatives.
InHgAu is a ternary intermetallic compound combining indium, mercury, and gold—a specialized metal alloy in the precious metal family. This material is primarily of research and experimental interest rather than established industrial production, studied for potential applications in specialized electronic contacts, high-density interconnects, and thin-film devices where the combination of gold's nobility, mercury's unique electronic properties, and indium's semiconductor behavior may offer distinct advantages. Engineers would consider this material only in advanced research contexts where its unusual phase stability or electronic characteristics provide benefits unavailable from conventional binary alloys or more mature ternary systems.
InHgW₂ is a ternary intermetallic compound combining indium, mercury, and tungsten elements, belonging to the class of heavy metal alloys. This is primarily a research material studied for its unique phase stability and density characteristics rather than an established commercial alloy. Potential applications are being explored in high-density shielding, radiation protection, or specialized electronic/thermoelectric devices where the combination of heavy elements offers performance advantages, though industrial adoption remains limited and material behavior under service conditions requires further characterization.
InMnN3 is an experimental ternary nitride compound combining indium, manganese, and nitrogen, belonging to the broader family of metal nitrides under active research for functional and structural applications. This material remains largely in the research phase; the manganese-indium-nitrogen system is investigated for potential applications in magnetic materials, semiconductors, and high-performance coatings, leveraging the magnetic properties of manganese and the electronic characteristics of indium nitride derivatives. Engineers considering this compound should recognize it as an emerging material without established industrial production pathways, making it relevant primarily for advanced research projects, feasibility studies, and next-generation device prototyping rather than immediate production deployment.
InMnPt2 is an intermetallic compound combining indium, manganese, and platinum in a defined stoichiometric ratio. This ternary metal system belongs to the family of transition metal intermetallics and is primarily of research and development interest rather than established industrial production. The material is investigated for potential applications in magnetism, thermoelectric devices, and high-temperature structural applications where the combination of platinum's stability and manganese's magnetic properties may offer performance advantages over conventional alloys, though commercial adoption remains limited.
InMo is a intermetallic compound composed of indium and molybdenum, representing a refractory metal system with potential for high-temperature applications. This material family is primarily of research interest, explored for aerospace and electronics applications where elevated-temperature strength and corrosion resistance are valued, though industrial adoption remains limited compared to established refractory alloys like molybdenum-rhenium or tungsten-based systems.
InMo3Se3 is a ternary transition metal chalcogenide compound combining indium, molybdenum, and selenium. This material is primarily of research interest as an emerging layered compound potentially relevant to nanoelectronics and energy storage applications. InMo3Se3 belongs to a family of two-dimensional and quasi-2D materials being investigated for semiconducting or catalytic properties, though it remains largely in the exploratory stage without widespread commercial deployment.
InMo₆S₈ is a ternary metal chalcogenide compound combining indium, molybdenum, and sulfur, belonging to the Chevrel phase family of materials known for superconducting and catalytic properties. This is primarily a research material studied for potential applications in energy conversion and catalysis rather than a conventional engineering alloy; the Chevrel phase structure makes it of particular interest for hydrogen evolution catalysis, supercapacitors, and as a precursor for understanding layered metal sulfide systems.
InMo6Se4S4 is an experimental ternary chalcogenide compound combining indium, molybdenum, selenium, and sulfur—representing an emerging class of mixed-anion layered materials. This research-phase compound belongs to the family of transitional metal chalcogenides, which are being investigated for their unique electronic and catalytic properties arising from the combination of different chalcogen atoms in a single structure. While not yet in commercial production, materials of this chemical family show promise for energy conversion and electrocatalytic applications due to their tunable band structures and active surface sites.
InMo₆Se₈ is a ternary metal chalcogenide compound combining indium, molybdenum, and selenium—a material family primarily explored in condensed matter physics and materials research rather than established engineering production. This compound belongs to the Chevrel phase family, which are known for unique electronic and superconducting properties, and is typically investigated for potential applications in superconductivity, thermoelectric devices, and advanced electronic components. Current use is limited to research and experimental contexts; engineers would consider this material only when exploring emerging superconducting or quantum electronic device technologies where conventional alternatives cannot meet performance requirements.
InMoN3 is an intermetallic compound composed of indium, molybdenum, and nitrogen, belonging to the family of transition metal nitrides and intermetallics. This material is primarily of research interest for applications requiring high-temperature strength, wear resistance, and chemical stability; it represents an exploratory composition within the refractory metal nitride space, where similar compounds have shown promise for extreme environments where conventional alloys degrade.
InMoS₂ is an experimental composite or alloy material combining indium, molybdenum, and sulfur, belonging to the family of transition metal dichalcogenides (TMDs) and refractory metal systems. This material is primarily investigated in research contexts for applications requiring high-temperature stability, chemical resistance, or catalytic activity, particularly as an alternative or supplement to pure molybdenum disulfide (MoS₂) in demanding environments. The indium incorporation offers potential benefits for electronic properties and specific industrial catalytic processes where conventional molybdenum-based compounds show limitations.
In(MoSe)3 is a layered ternary metal chalcogenide compound combining indium with molybdenum selenide, representing an emerging class of materials in solid-state chemistry and materials research. This compound belongs to the broader family of transition metal dichalcogenides and their derivatives, currently under investigation for potential applications in thermoelectric conversion, electronic devices, and catalysis due to its layered crystal structure and mixed-metal composition. The material remains largely experimental, with research focused on understanding its electronic transport properties, thermal behavior, and suitability for energy conversion or advanced device applications where the interplay between different metal sites could offer tunable performance.
InNbN3 is an intermetallic nitride compound combining indium and niobium in a stoichiometric ratio, representing an emerging material from the refractory metal nitride family. This is primarily a research-stage material investigated for high-temperature structural applications and advanced ceramics, where the combination of refractory elements offers potential for improved thermal stability and hardness compared to conventional binary nitrides. InNbN3 belongs to the broader class of ternary metal nitrides being explored to overcome performance limitations of traditional single-element or binary ceramic coatings in extreme-environment applications.
InNi is an intermetallic compound combining indium and nickel, belonging to the class of ordered metallic phases that exhibit unique crystallographic structures and intermediate mechanical properties between its constituent elements. This material is primarily of research and emerging technological interest rather than established industrial production, with investigation focused on its potential in specialized applications requiring specific combinations of stiffness, density, and thermal stability. InNi represents the broader intermetallic materials family, which engineers explore for high-temperature structural applications, electronic device packaging, and joining applications where conventional alloys fall short.
InNi₂ is an intermetallic compound composed of indium and nickel, belonging to the class of ordered metallic intermetallics. This material exhibits the characteristic high stiffness and moderate ductility typical of nickel-based intermetallic phases, making it of interest in research contexts where thermal stability and strength at moderate temperatures are relevant. InNi₂ and related indium-nickel phases are primarily investigated in materials science research rather than established in high-volume industrial production, with potential applications in advanced alloy design, coating systems, and specialty metallurgical research.
InNi22B6 is an intermetallic compound combining indium, nickel, and boron, belonging to the family of hard, brittle boride-based materials. This material is primarily of research interest for high-temperature applications and wear-resistant coatings, where its combination of hardness and thermal stability offers potential advantages over conventional alloys, though industrial adoption remains limited compared to established boride ceramics like WB or TiB₂.
InNi₂As is an intermetallic compound combining indium, nickel, and arsenic, belonging to the family of ternary metal arsenides. This material is primarily of research and specialized applications interest rather than a conventional industrial workhorse, with potential relevance in semiconductor device research, thermoelectric studies, and magnetoelectronic applications where the combination of transition metal (Ni) and post-transition metal (In) elements with a pnictogen (As) can produce useful electronic or magnetic properties.
InNi3 is an intermetallic compound in the indium-nickel system, representing a stoichiometric phase that combines the properties of a hard, brittle intermetallic with potential for thermal and electrical applications. This material exists primarily in research and experimental contexts rather than established industrial production, belonging to the broader family of transition metal intermetallics studied for high-temperature stability and electronic properties. Engineers would consider InNi3 primarily for specialized applications requiring the unique combination of intermetallic phases, though commercial alternatives and more established binary systems typically dominate current industrial practice.
InNi₃N is an intermetallic nitride compound combining indium and nickel, representing an emerging material in the family of transition metal nitrides and intermetallics. This is primarily a research-stage material investigated for its potential in hard coatings, wear resistance, and high-temperature applications where conventional metallic alloys show limitations. The material combines the hardness characteristics typical of nitride ceramics with metallic conductivity and ductility, making it of interest for protective coatings, cutting tool inserts, and high-performance applications where thermal stability and mechanical robustness are critical.