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Additive manufacturing (AM), more commonly known as 3D printing, has grown trememdously in recent years. It has shown its potential uses in the medical, automotive, aerospace, and spare part sectors. Personal manufacturing, complex and optimized parts, short series manufacturing, and local on-demand manufacturing are just some of its current benefits. The development of new materials and equipment has opened up new application possibilities, and equipment is quicker and cheaper to use when utilizing the new materials launched by vendors and material developers. AM has become more critical for the industry but also for academics. Since AM offers more design freedom than any other manufacturing process, it provides designers with the challenge of designing better and more efficient products.

Technology: general issues --- History of engineering & technology --- additive manufacturing --- modular design --- design-for-manufacturability --- design optimization --- part consolidation --- product re-design --- topology optimization --- design for additive manufacturing --- 3D printing --- aerospace --- full-life cycle manufacturing flow --- airfoil --- carbon fiber tubes --- telescoping spars --- chevrons --- porous scaffold design --- tetrahedral implicit surface modeling --- triply periodic minimal surface --- selective laser melting (SLM) --- Ti6Al4V --- structure-property relationship --- microstructure --- Hall-Petch relationship --- additive manufacturing --- modular design --- design-for-manufacturability --- design optimization --- part consolidation --- product re-design --- topology optimization --- design for additive manufacturing --- 3D printing --- aerospace --- full-life cycle manufacturing flow --- airfoil --- carbon fiber tubes --- telescoping spars --- chevrons --- porous scaffold design --- tetrahedral implicit surface modeling --- triply periodic minimal surface --- selective laser melting (SLM) --- Ti6Al4V --- structure-property relationship --- microstructure --- Hall-Petch relationship

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Additive manufacturing (AM), more commonly known as 3D printing, has grown trememdously in recent years. It has shown its potential uses in the medical, automotive, aerospace, and spare part sectors. Personal manufacturing, complex and optimized parts, short series manufacturing, and local on-demand manufacturing are just some of its current benefits. The development of new materials and equipment has opened up new application possibilities, and equipment is quicker and cheaper to use when utilizing the new materials launched by vendors and material developers. AM has become more critical for the industry but also for academics. Since AM offers more design freedom than any other manufacturing process, it provides designers with the challenge of designing better and more efficient products.

Technology: general issues --- History of engineering & technology --- additive manufacturing --- modular design --- design-for-manufacturability --- design optimization --- part consolidation --- product re-design --- topology optimization --- design for additive manufacturing --- 3D printing --- aerospace --- full-life cycle manufacturing flow --- airfoil --- carbon fiber tubes --- telescoping spars --- chevrons --- porous scaffold design --- tetrahedral implicit surface modeling --- triply periodic minimal surface --- selective laser melting (SLM) --- Ti6Al4V --- structure–property relationship --- microstructure --- Hall–Petch relationship --- n/a --- structure-property relationship --- Hall-Petch relationship

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The book deals with novel aspects and perspectives in metal oxide and hybrid material fabrication.

environment pollution --- Ti6Al4V titanium alloy --- polypropylene --- antibacterial --- physicochemical and morphological properties --- nanocomposites --- silica–lignin hybrid materials --- hazardous metals --- hierarchical --- oxyanions --- surface free energy --- CO2 capture --- dyes decolorization --- organic dyes decomposition --- mesoporous organosilica --- metal oxides --- surface layer --- mechanical properties --- ozone treatment --- adsorbents --- self-propagating --- molybdenum disulfide --- hybrid materials --- zirconia --- binary systems --- thermoplastic elastomers --- biodegradation --- sorption --- alumina --- binary oxide material --- porous hybrid adsorbents --- Ag-ZnO --- enzyme immobilization --- actinide --- photocatalysis --- aqueous durability --- zinc oxide --- inorganic oxide materials --- surface functionalization --- laccase --- nuclear waste --- water purification --- titanium dioxide --- polylactide --- zirconolite --- adhesive joint --- sol-gel method

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Nowadays, polymer self-assembly has become extremely attractive for both biological (drug delivery, tissue engineering, scaffolds) and non-biological (packaging, semiconductors) applications. In nature, a number of key biological processes are driven by polymer self-assembly, for instance protein folding. Impressive morphologies can be assembled from polymers thanks to a diverse range of interactions involved, e.g., electrostatics, hydrophobic, hots-guest interactions, etc. Both 2D and 3D tailor-made assemblies can be designed through modern powerful techniques and approaches such as the layer-by-layer and the Langmuir-Blodgett deposition, hard and soft templating. This Special Issue highlights contributions (research papers, short communications, review articles) that focus on recent developments in polymer self-assembly for both fundamental understanding the assembly phenomenon and real applications.

evaporative self-assembly --- encapsulation --- n/a --- microstructure --- solvent vapor annealing --- drug delivery --- polyhedral oligomeric silsesquioxane --- protein adsorption resistance --- photo-sensitive --- calcium carbonate --- fluorescence --- mucin --- polymerisation --- marine exopolysaccharide --- transglutaminases --- porous hydrogel --- adsorption --- aprotinin --- nanoparticle --- calcium alginate --- protamine --- nanocrystalline --- self-assembly --- morphological transformation --- cell culture --- block polymers --- stimuli-responsive polymer --- crosslinking --- mesoporous --- Ti6Al4V --- polymer --- flexible geometric confinement --- layer-by-layer --- surface modification --- co-synthesis --- nanolithography --- CaCO3 --- synthetic polypeptide --- air-liquid interface --- food industry --- stimuli-responsive polymers --- field-effect transistor --- Marangoni convection --- polymer scaffold --- collagen --- biomedicine --- thin films --- controlled release --- tension gradient --- monolayer

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The introduction of metal AM processes in such industrial sectors as the aerospace, automotive, defense, jewelry, medical and tool-making fields, has led to a significant reduction in waste material and in the lead times of the components, innovative designs with higher strength, lower weight, and fewer potential failure points from joining features. This Special Issue on “Additive Manufacturing (AM) of Metallic Alloys” contains a mixture of review articles and original contributions on some problems that limit the wider uptake and exploitation of metals in AM.

History of engineering & technology --- design for additive manufacturing (DfAM) --- displacements --- laser powder bed fusion (L-PBF) --- manufacturing constraints --- stiffness --- costs --- melting of a powder bed --- laser welding --- optical diagnostics --- molten pool --- temperature field --- residual stresses --- electrochemical additive manufacturing --- fountain pen feed system --- metal 3D printer --- residual stress prediction --- IN718 --- experimental measurement of residual stress --- additive manufacturing --- support structure --- Powder Bed Fusion --- titanium alloy --- Ti-6Al-4V --- fracture behavior --- mechanical properties --- L-PBF --- in situ sensing --- quality assurance --- machine learning --- roughness --- electron beam melting (EBM) --- surface texture --- lack of fusion --- part quality --- Ti6Al4V --- metal additive manufacturing --- tempered --- ausrolled nanobainite --- microstructures --- n/a