Failure Mechanisms in Alloys

The era of lean production and excellence in manufacturing, advancing with sustainable development, demands the rational utilization of raw materials and energy resources, adopting cleaner and environmentally-friendly industrial processes. In view of the new industrial revolution, through digital tr...

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Main Author: Pantazopoulos, George (auth)
Format: Book Chapter
Published: MDPI - Multidisciplinary Digital Publishing Institute 2020
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005 20210211
020 |a books978-3-03928-277-7 
020 |a 9783039282760 
020 |a 9783039282777 
024 7 |a 10.3390/books978-3-03928-277-7  |c doi 
041 0 |a English 
042 |a dc 
100 1 |a Pantazopoulos, George  |4 auth 
245 1 0 |a Failure Mechanisms in Alloys 
260 |b MDPI - Multidisciplinary Digital Publishing Institute  |c 2020 
300 |a 1 electronic resource (476 p.) 
506 0 |a Open Access  |2 star  |f Unrestricted online access 
520 |a The era of lean production and excellence in manufacturing, advancing with sustainable development, demands the rational utilization of raw materials and energy resources, adopting cleaner and environmentally-friendly industrial processes. In view of the new industrial revolution, through digital transformation, the exploitation of smart and sophisticated materials systems, the need of minimizing scrap and increasing efficiency, reliability and lifetime and, on the other hand, the pursuit of fuel economy and limitation of carbon footprint, are necessary conditions for the imminent growth in a highly competitive economy. Failure analysis is an interdisciplinary scientific topic, reflecting the opinions and interpretations coming from a systematic evidence-gathering procedure, embracing various important sectors, imparting knowledge, and substantiating improvement practices. The deep understanding of material/component role (e.g., rotating shaft, extrusion die, gas pipeline) and properties will be of central importance for fitness for purpose in certain industrial processes and applications. Finally, it is hoped and strongly believed that the accumulation of additional knowledge in the field of failure mechanisms and the adoption of the principles, philosophy, and deep understanding of failure analysis process approach will strongly promote the learning concept, as a continuously evolving process leading to personal and social progress and prosperity. 
540 |a Creative Commons  |f https://creativecommons.org/licenses/by-nc-nd/4.0/  |2 cc  |4 https://creativecommons.org/licenses/by-nc-nd/4.0/ 
546 |a English 
653 |a thermal-sprayed coatings 
653 |a n/a 
653 |a hydrogen-assisted cracking 
653 |a corrosion 
653 |a thermal aging 
653 |a modeling 
653 |a fracture plane 
653 |a macroscopic strength criterion 
653 |a lubrication 
653 |a slow-rate machining 
653 |a fracture 
653 |a parametric accelerated life testing 
653 |a constitutive equations 
653 |a austenitic stainless steels 
653 |a refractory steels 
653 |a crack growth 
653 |a micro flexible rolling 
653 |a tensile deformation 
653 |a shape 
653 |a high temperature fatigue 
653 |a tensile tests 
653 |a biaxial tensile test 
653 |a post-necking hardening 
653 |a EIS 
653 |a 3D Voronoi modelling 
653 |a SOHIC 
653 |a extrusion failures 
653 |a chip root 
653 |a cast duplex stainless steels 
653 |a bake hardening 
653 |a elastic moduli 
653 |a strip marking method 
653 |a wear 
653 |a flow loop 
653 |a austenitizing furnace 
653 |a failure analysis 
653 |a surface modification techniques 
653 |a creep fatigue 
653 |a pipeline steel 
653 |a yield strength 
653 |a convection tubes 
653 |a temperature 
653 |a low temperatures 
653 |a shear angle 
653 |a sensitization 
653 |a API 5L-X65 
653 |a dent resistance 
653 |a numerical simulation 
653 |a metal components 
653 |a linear Mohr-Coulomb criterion 
653 |a W-30Cu 
653 |a conveying system 
653 |a failure study 
653 |a texture 
653 |a finite element modeling 
653 |a AISI 304 stainless steel 
653 |a self-equalizing bearing 
653 |a surface-cracking process 
653 |a carbides 
653 |a potentiodynamic polarization 
653 |a cast reformer tubes 
653 |a aging 
653 |a reformer tubes 
653 |a multilinear regression 
653 |a softening 
653 |a polynomial regression 
653 |a GISSMO Model 
653 |a strength 
653 |a brass extrusion 
653 |a bendability 
653 |a degradation of protective layers 
653 |a inverse modeling 
653 |a G-phase 
653 |a forward slip prediction 
653 |a EBSD 
653 |a grain boundary 
653 |a quality improvement 
653 |a quality assessment 
653 |a smooth particle hydrodynamics 
653 |a hardfacings 
653 |a helix upper dispenser 
653 |a furnace component failure 
653 |a elevated temperature 
653 |a isotropic metals 
653 |a creep 
653 |a reliability design 
653 |a fracture mechanisms 
653 |a Titanium alloy machining 
653 |a failure mechanism 
653 |a mechanical properties 
653 |a faulty designs 
653 |a dynamic compression strength 
653 |a ductility 
653 |a automotive steels 
653 |a steam reforming 
653 |a cleavage fracture 
653 |a impingement 
653 |a automotive 
653 |a ductile irons 
653 |a erosion corrosion 
653 |a surface treatment 
653 |a HP-Mod 
653 |a impact toughness 
653 |a press hardening 
653 |a cold-working process 
653 |a chip formation 
653 |a nitrocarburizing 
653 |a built-up edge 
653 |a microhardness HV 
653 |a 6063 Alloy 
653 |a cutting forces 
653 |a tensile stress 
653 |a thermal distortion 
653 |a tribological properties 
653 |a plastic deformation processing 
653 |a CFD simulation 
653 |a wear scar 
653 |a nanocrystalline materials 
653 |a spinodal decomposition 
653 |a fractography 
653 |a microstructure homogeneity 
653 |a finite element analysis 
653 |a hot stamping 
653 |a iterative FEM Method 
653 |a thickness transition area 
653 |a fracture mechanics 
856 4 0 |a www.oapen.org  |u https://mdpi.com/books/pdfview/book/2118  |7 0  |z Get Fullteks 
856 4 0 |a www.oapen.org  |u https://directory.doabooks.org/handle/20.500.12854/47337  |7 0  |z DOAB: description of the publication