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This work deals with the experimental investigation of the mechanical properties of nanowires. Experiments are conducted in a dedicated system inside the electron microscope. The mechanical response of various material systems is probed, the underlying deformation mechanisms are elucidated and subsequently put into context with mechanical size effects.

Nanotechnology, Nanowires, Size-Effect, Scanning-Electron Microscopy, mechanical Properties

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ca. 200 words; this text will present the book in all promotional forms (e.g. flyers). Please describe the book in straightforward and consumer-friendly terms.[Aluminium alloys are the most common non-ferrous materials utilised for a wide range of engineering applications, namely, automotive, aerospace, mould and structural industries, among others. The wide spread of these alloys in the modern word is due to the unique combination of material properties combining lightness, excellent strength, corrosion resistance, toughness, electrical and thermal conductivity, recyclability, and manufacturability. Last but not least, the relatively low cost of aluminium extrusion is important as it makes aluminium alloys very attractive for applications in different key sectors of the world economy. Despite great interest, extensive previous research, and knowledge accumulated in the past, recent advances in production and processing technologies, combined with the development of new and more ingenious and competitive products, require a profound understanding of the physical and mechanical behaviour of such alloys, specifically in terms of modelling and predictions of the fracture and fatigue life of aluminium alloy components. This Special Issue aims to gather scientific contributions from authors working in different scientific areas, including the improvement and modelling of mechanical properties, alloying design and manufacturing techniques, the characterization of microstructure and chemical composition, and advanced applications.

Aluminium alloys --- Structural integrity --- Manufacturing and processing techniques --- Alloy design --- Microstructure and texture --- Mechanical properties --- Loading history --- Environmental conditions --- Applications

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AlSi12-based metal matrix composites using metallic glass Ni??Nb??Ta?? as reinforcement were produced via gas pressure melt infiltration technique. Comprehensive investigations were performed to determine the composite´s microstructural, mechanical and thermal properties as well as damage mechanisms. The results contribute to a better understanding on the material´s processing-structure-property relations.

Metallmatrixverbundwerkstoff, Metallisches Glas, Gasdruckinfiltration, Mechanische Eigenschaften, Schädigungsmechanismenmetal matrix composite, metallic glass, gas pressure infiltration, mechanical properties, damage mechanisms

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The need to reduce the ecological footprint of water/land/air vehicles in this era of climate change requires pushing the limits regarding the development of lightweight structures and materials. This requires a thorough understanding of their thermomechanical behavior at several stages of the production chain. Moreover, during service, the response of lightweight alloys under the simultaneous influence of mechanical loads and temperature can determine the lifetime and performance of a multitude of structural components. The present Special Issue, comprising eight original research articles, is dedicated to disseminating current efforts around the globe aimed at advancing understanding of the thermomechanical behavior of structural lightweight alloys under processing or service conditions.

magnesium alloys --- alloying --- second phases --- dynamic recrystallization --- mechanical properties --- aluminum nanocomposites --- aluminum welding --- TIG fillers --- electrical conductivity --- wire fabrication --- aluminium alloy --- 7003 alloy --- corrosion resistance --- thermomechanical treatment --- TEM --- X-ray diffraction --- magnesium alloys --- ECAP --- powder metallurgy --- mechanical properties --- LPSO-phase --- magnesium alloys --- zinc addition --- neodymium --- Mg-Nd-Zn alloys --- deformation behaviour --- in situ synchrotron radiation diffraction --- Cast Al-Si alloys --- 3D characterization --- synchrotron tomography --- in-situ tensile deformation --- 3D microstructure --- damage --- strength --- connectivity --- thermomechanical treatment --- aluminium alloy --- recovery --- recrystallisation --- dislocations --- materials modelling --- AlMgSi alloy --- EN AW-6082 --- welding --- mechanical properties --- microstructure --- DSC --- thermo-mechanical analysis --- digital image correlation --- tensile test --- numerical simulation --- n/a

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3D printing is rapidly emerging as a key manufacturing technique that is capable of serving a wide spectrum of applications, ranging from engineering to biomedical sectors. Its ability to form both simple and intricate shapes through computer-controlled graphics enables it to create a niche in the manufacturing sector. Key challenges remain, and a great deal of research is required to develop 3D printing technology for all classes of materials including polymers, metals, ceramics, and composites. In view of the growing importance of 3D manufacturing worldwide, this Special Issue aims to seek original articles to further assist in the development of this promising technology from both scientific and technological perspectives. Targeted reviews, including mini-reviews, are also welcome, as they play a crucial role in educating students and young researchers.

selective laser melting --- maraging steel --- aging behaviour --- reversed austenite --- 3D printing --- selective laser melting (SLM) --- part redesign --- SLM structure performance --- frame structure reconstruction --- additive manufacturing --- 3D printing --- electron beam melting --- titanium alloys --- microstructure --- wear properties --- selective laser melting --- aluminum matrix composites --- microstructure --- thermodynamic behavior --- formation mechanism --- additive manufacturing --- forming defects --- bonding quality --- forming morphology --- selective laser melting (SLM) --- magnesium --- additive manufacturing --- microstructure --- mechanical properties --- corrosion behavior --- porosity --- microhardness --- Selective Laser Melting (SLM) --- advanced X-ray computed tomography (XCT) --- Ti6Al4V --- selective laser melting --- electron beam melting --- single strut --- mechanical properties --- tailored blanks --- additive manufacturing --- laser deposition welding --- n/a