Haiming Wen

Associate Professor

Missouri University of Science and Technology

United States

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Dr. Haiming Wen is an Associate Professor at Missouri University of Science and Technology in the United States. His research focuses on high-temperature materials, particularly multi-principal element alloys and their applications in nuclear reactor technology. Recent works include studies on refractory alloys, hydrogen permeation in FeCrAl alloys, and the oxidation behaviors of various materials. Dr. Wen's contributions also extend to additive manufacturing techniques for lightweight insulation materials.

Haiming Wen

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Articles (20)

Local chemical ordering of a neutron-irradiated CrFeMnNi compositionally complex alloy

Martensitic transformation induced strength-ductility synergy in additively manufactured maraging 250 steel by thermal history engineering

Design of novel refractory equiatomic multi-principal elemental alloys based on Mo-Nb-Ti system for Gen IV reactor applications

High-temperature stability and thermal expansion behavior of equi-atomic refractory multi-principal element alloys based on MoNbTi system for Gen IV reactor applications

Hydrogen permeation in iron-chromium-aluminum (FeCrAl) alloys and the effects of microstructure and surface oxide

Influence of temperature, oxygen partial pressure, and microstructure on the high-temperature oxidation behavior of the SiC Layer of TRISO particles

New insights into the high-temperature oxidation behavior of (TiZrHfTaNb)C high-entropy carbide

Site-specific nanoscale characterization of zirconium hydrides in the hydride rim structure of hydrogen-charged zircaloy-4 cladding

Water vapor oxidation of SiC layer of tristructural isotropic particles

Additive manufacturing of novel lightweight insulation refractory with hierarchical pore structures by direct ink writing

A high-strength precipitation hardened cobalt-free high-entropy alloy

A strong and ductile cobalt-free solid-solution Fe<sub>30</sub>Ni<sub>30</sub>Mn<sub>30</sub>Cr<sub>10</sub> multi-principal element alloy from hot rolling

Additive manufacturing of (MgCoNiCuZn)O high-entropy oxide using a 3D extrusion technique and oxide precursors

Additive manufacturing of SiC-Sialon refractory with excellent properties by direct ink writing

Additive manufacturing of continuous carbon fiber-reinforced SiC ceramic composite with multiple fiber bundles by an extrusion-based technique

Additive manufacturing of high mechanical strength continuous C<sub>f</sub>/SiC composites using a 3D extrusion technique and polycarbosilane-coated carbon fibers

Designing shell-layer-core architecture in Ti-based composites to achieve enhanced strength and plasticity

High-temperature oxidation behavior of the SiC layer of TRISO particles in low-pressure oxygen

Influence of partial substitution of Cr by Al on microstructure and mechanical behavior of Fe<sub>30</sub>Ni<sub>35</sub>Cr<sub>35</sub> multi-principal element alloy

Lightweight Ti-Zr-Nb-Al-V refractory high-entropy alloys with superior strength-ductility synergy and corrosion resistance

Collaborators (4)

Frank Liou

Mark Aindow

Mario Buchely

Adrien Couet

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