AbstractFull exploitation of the many attractive engineering properties of ultra-high temperature ceramics (UHTCs) requires that they can be joined. This paper explores progress in identifying joining strategies based on the use of transient liquid phases (TLPs). Wetting studies are used to explore the suitability of specific liquids for joining, while bonding studies provide the ultimate test. Sintering aids in the UHTC provide a major potential obstacle to successful joining, and dissolved impurities in the TLP can also complicate the joining process. Nonetheless, we show that well-bonding interfaces can be achieved when ZrC ceramics are bonded at 1673 K using a Ni/Nb/Ni multilayer interlayer
Non-oxide ceramics, such as carbides, nitrides and borides represent one of the fastest growing clas...
Advanced silicon carbide-based ceramics and composites are being developed for a wide variety of hig...
Both fundamental and practical aspects of ceramic joining are understood well enough for many, if no...
Full exploitation of the many attractive engineering properties of ultra-high temperature ceramics (...
Joining is an enabling technology for many ceramics applications. Often ceramics are only useful in...
Partial-transient-liquid-phase (PTLP) bonding of advanced ceramics employs an A/B/A sandwich-style i...
Joining is crucial for ultra-high temperature ceramics (UHTCs) to be used in demanding environments ...
Transient-liquid-phase (TLP) bonding was used to join high-strength, high-purity Al2O3 ceramic. This...
In order for ceramics to be fully utilized as components for high-temperature and structural applica...
In this study, Al2O3-ceramics were joined via TLP bonding using interlayers of eutectic Au-12Ge (wt%...
We designed a composite filler beginning with becoming light elements to be the main diffusing eleme...
Alumina ceramics were joined by a transient liquid phase (TLP) bonding method at relatively lower te...
This thesis was submitted for the degree of Doctor of Philosophy and awarded by Brunel University.Th...
Ceramic joining is recognized as one of the enabling technologies for the application of silicon car...
In the framework of joining processes of Ultra High Temperature Ceramics (UHTCs), sessile drop exper...
Non-oxide ceramics, such as carbides, nitrides and borides represent one of the fastest growing clas...
Advanced silicon carbide-based ceramics and composites are being developed for a wide variety of hig...
Both fundamental and practical aspects of ceramic joining are understood well enough for many, if no...
Full exploitation of the many attractive engineering properties of ultra-high temperature ceramics (...
Joining is an enabling technology for many ceramics applications. Often ceramics are only useful in...
Partial-transient-liquid-phase (PTLP) bonding of advanced ceramics employs an A/B/A sandwich-style i...
Joining is crucial for ultra-high temperature ceramics (UHTCs) to be used in demanding environments ...
Transient-liquid-phase (TLP) bonding was used to join high-strength, high-purity Al2O3 ceramic. This...
In order for ceramics to be fully utilized as components for high-temperature and structural applica...
In this study, Al2O3-ceramics were joined via TLP bonding using interlayers of eutectic Au-12Ge (wt%...
We designed a composite filler beginning with becoming light elements to be the main diffusing eleme...
Alumina ceramics were joined by a transient liquid phase (TLP) bonding method at relatively lower te...
This thesis was submitted for the degree of Doctor of Philosophy and awarded by Brunel University.Th...
Ceramic joining is recognized as one of the enabling technologies for the application of silicon car...
In the framework of joining processes of Ultra High Temperature Ceramics (UHTCs), sessile drop exper...
Non-oxide ceramics, such as carbides, nitrides and borides represent one of the fastest growing clas...
Advanced silicon carbide-based ceramics and composites are being developed for a wide variety of hig...
Both fundamental and practical aspects of ceramic joining are understood well enough for many, if no...