International audienceThere are very strong interests in developing low density advanced material systems for service at temperatures up to 1300°C. These materials should mainly have moderate fracture toughness at low and intermediate temperatures and should exhibit oxidation resistant behaviour. The intermetallic compound, MoSi2 has been considered to be an attractive candidate due to its melting point (2030°C) and excellent oxidation resistance at high temperatures. In this paper, we compare the results obtained with two different techniques for laser cladding, one using an online combination between Mo and Si powders, the second using direct injection of the MoSi2 powder
AbstractMoSi2 is one of the promising candidates for ultrahigh-temperature structural materials. How...
MoSi2-based composites are intermetallic materials that combine metallic and ceramic properties. Bec...
Molybdenum disilicide is a promising candidate material for high temperature structural uses. Howeve...
International audienceThere are very strong interests in developing low density advanced material sy...
International audienceIn the last decade, development of low density advanced material systems for s...
International audienceThe cladding process using laser beam radiation comprises different operationa...
The feasibility of the fabrication of coatings for elevated-temperature structural applications by l...
Molybdenum disilicide (MoSi₂) is a promising intermetallic material for high temperature application...
Beyond Ni-based superalloys, intermetallic compounds based on refractory metals offer high temperatu...
Composite materials consisting of a matrix of MoSi_2 having a melting point above 2000 C and ceramic...
In the first part of this paper a literature survey on the oxidation behaviour of MoSi2 and MoSi2 ...
The topic Oxidation behaviour of particle reinforced MoSi2 composites at temperatures up to 1700°...
Alumina is a candidate material for the reinforcement of molybdenum disilicide, potentially offering...
MoSi2, because of its mixed covalent-metallic atomic bonding, is a borderline intermetallic compound...
Molybdenum disilicide has been predominantly used for furnace heating elements, but recently there h...
AbstractMoSi2 is one of the promising candidates for ultrahigh-temperature structural materials. How...
MoSi2-based composites are intermetallic materials that combine metallic and ceramic properties. Bec...
Molybdenum disilicide is a promising candidate material for high temperature structural uses. Howeve...
International audienceThere are very strong interests in developing low density advanced material sy...
International audienceIn the last decade, development of low density advanced material systems for s...
International audienceThe cladding process using laser beam radiation comprises different operationa...
The feasibility of the fabrication of coatings for elevated-temperature structural applications by l...
Molybdenum disilicide (MoSi₂) is a promising intermetallic material for high temperature application...
Beyond Ni-based superalloys, intermetallic compounds based on refractory metals offer high temperatu...
Composite materials consisting of a matrix of MoSi_2 having a melting point above 2000 C and ceramic...
In the first part of this paper a literature survey on the oxidation behaviour of MoSi2 and MoSi2 ...
The topic Oxidation behaviour of particle reinforced MoSi2 composites at temperatures up to 1700°...
Alumina is a candidate material for the reinforcement of molybdenum disilicide, potentially offering...
MoSi2, because of its mixed covalent-metallic atomic bonding, is a borderline intermetallic compound...
Molybdenum disilicide has been predominantly used for furnace heating elements, but recently there h...
AbstractMoSi2 is one of the promising candidates for ultrahigh-temperature structural materials. How...
MoSi2-based composites are intermetallic materials that combine metallic and ceramic properties. Bec...
Molybdenum disilicide is a promising candidate material for high temperature structural uses. Howeve...