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Weijun Zhu - One of the best experts on this subject based on the ideXlab platform.

  • tailoring the mechanical properties of laser cladding deposited Ferrous Alloys with a mixture of 410l alloy and fe cr b si mo alloy powders
    Materials, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe–Cr–B–Si–Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe–Cr–B–Si–Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe–Cr–B–Si–Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe–Cr–B–Si–Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe–Cr–B–Si–Mo alloy powders for steel repairing applications is a feasible solution.

  • Tailoring the Mechanical Properties of Laser Cladding-Deposited Ferrous Alloys with a Mixture of 410L Alloy and Fe–Cr–B–Si–Mo Alloy Powders
    MDPI AG, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe⁻Cr⁻B⁻Si⁻Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe⁻Cr⁻B⁻Si⁻Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe⁻Cr⁻B⁻Si⁻Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders for steel repairing applications is a feasible solution

Sheng Huang - One of the best experts on this subject based on the ideXlab platform.

  • tailoring the mechanical properties of laser cladding deposited Ferrous Alloys with a mixture of 410l alloy and fe cr b si mo alloy powders
    Materials, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe–Cr–B–Si–Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe–Cr–B–Si–Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe–Cr–B–Si–Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe–Cr–B–Si–Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe–Cr–B–Si–Mo alloy powders for steel repairing applications is a feasible solution.

  • Tailoring the Mechanical Properties of Laser Cladding-Deposited Ferrous Alloys with a Mixture of 410L Alloy and Fe–Cr–B–Si–Mo Alloy Powders
    MDPI AG, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe⁻Cr⁻B⁻Si⁻Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe⁻Cr⁻B⁻Si⁻Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe⁻Cr⁻B⁻Si⁻Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders for steel repairing applications is a feasible solution

Ehsan Toyserkani - One of the best experts on this subject based on the ideXlab platform.

  • A critical review of powder-based additive manufacturing of Ferrous Alloys: Process parameters, microstructure and mechanical properties
    Materials and Design, 2018
    Co-Authors: Haniyeh Fayazfar, Allan Rogalsky, Dyuti Sarker, Vlad Paserin, Paola Russo, Mehrnaz Salarian, Ehsan Toyserkani
    Abstract:

    Additive manufacturing (AM) is an advanced manufacturing technology, enabling production of complex shapes by adding material layer-upon-layer, as distinct from conventional subtractive, forming and other manufacturing approaches. Thus far, several metallic materials including different types of Ferrous Alloys have been additively manufactured to full density with better or equivalent properties compared to counterparts made by conventional methods. In this perspective, this review article presents different powder-based additive manufacturing processes deployed to Ferrous Alloys, their key process parameters, phase transformation and microstructure development during solidification, all of which impact on mechanical behavior. The article enlightens the basics of Laser Powder-Bed (LPB, also known as selective laser melting), Laser Powder-Fed (LPF) and Binder Jetting (BJ) AM processes. These processes involve a sequence of complex/rapid thermal cycle and solidification behavior that influence the development of microstructure and eventually control the mechanical properties. A thorough discussion on mechanical behaviors, i.e., hardness, tensile, and cyclic/fatigue properties of AM manufactured steels is also presented based on several combined process parameters.

Xiaoyu Zhang - One of the best experts on this subject based on the ideXlab platform.

  • tailoring the mechanical properties of laser cladding deposited Ferrous Alloys with a mixture of 410l alloy and fe cr b si mo alloy powders
    Materials, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe–Cr–B–Si–Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe–Cr–B–Si–Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe–Cr–B–Si–Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe–Cr–B–Si–Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe–Cr–B–Si–Mo alloy powders for steel repairing applications is a feasible solution.

  • Tailoring the Mechanical Properties of Laser Cladding-Deposited Ferrous Alloys with a Mixture of 410L Alloy and Fe–Cr–B–Si–Mo Alloy Powders
    MDPI AG, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe⁻Cr⁻B⁻Si⁻Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe⁻Cr⁻B⁻Si⁻Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe⁻Cr⁻B⁻Si⁻Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders for steel repairing applications is a feasible solution

Lianzhong Zhang - One of the best experts on this subject based on the ideXlab platform.

  • tailoring the mechanical properties of laser cladding deposited Ferrous Alloys with a mixture of 410l alloy and fe cr b si mo alloy powders
    Materials, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe–Cr–B–Si–Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe–Cr–B–Si–Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe–Cr–B–Si–Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe–Cr–B–Si–Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe–Cr–B–Si–Mo alloy powders for steel repairing applications is a feasible solution.

  • Tailoring the Mechanical Properties of Laser Cladding-Deposited Ferrous Alloys with a Mixture of 410L Alloy and Fe–Cr–B–Si–Mo Alloy Powders
    MDPI AG, 2019
    Co-Authors: Sheng Huang, Lianzhong Zhang, Xiaoyu Zhang, Weijun Zhu
    Abstract:

    The effects of different ratios of 410L alloy and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders on the microstructure and mechanical properties of laser cladding-deposited Ferrous Alloys were investigated. The experimental results revealed that the 410L alloy had good strength and excellent ductility due to its microstructure consisting of large elongated ferrite dendrites surrounded by a small number of martensite grains, while the Fe⁻Cr⁻B⁻Si⁻Mo alloy had high strength and poor ductility because of its eutectic microstructure composed of ferrite and Fe2B/Cr2B. As the concentration of Fe⁻Cr⁻B⁻Si⁻Mo alloy powder added to the 410L alloy powder increased, the ferrite grains became finer and the volume fraction of the eutectic increased, which eventually improved the strength and reduced the plasticity. Then, 410L + 12.5% Fe⁻Cr⁻B⁻Si⁻Mo alloy powder was successfully deposited onto AISI 1060 steel substrate via laser cladding deposition, and the mechanical properties met those of the substrate, which verified that tailoring the mechanical properties of the laser cladding-deposited Alloys with a mixture of 410L and Fe⁻Cr⁻B⁻Si⁻Mo alloy powders for steel repairing applications is a feasible solution