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Ceramics --- Ceramics. --- Ceramic technology --- Industrial ceramics --- Keramics --- Building materials --- Chemistry, Technical --- Clay --- noncrystalline ceramics and crystalline ceramics --- modeling --- simulation --- bioceramics and ceramic application in biology --- design --- ceramic processing approaches and manufacturing --- Chemical technology
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ceramics --- glasses --- refractories --- bioceramics --- ceramic matrix composite --- Ceramic materials --- Composite materials --- Composites (Materials) --- Multiphase materials --- Reinforced solids --- Solids, Reinforced --- Two phase materials --- Materials --- Ceramic industries --- Ceramics --- Mines and mineral resources
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This book highlights novel nano-engineering advances that enable enhanced bone formation at the implant/biomaterial and bone tissue interface, towards bone tissue engineering applications. Spanning a variety of biomaterial categories, from nanofibrous scaffolds (natural and synthetic) to the nanoscale modification of metallic implants, novel bioactive and therapeutic modifications have made it possible to enhance new bone formation, which could be particularly useful for the management of compromised sites.
human tooth powder --- bioceramics --- biocompatibility --- bone regeneration --- vascularization --- nano-composite --- microstructure --- nanoindentation --- bone implants --- powder metallurgy --- calcium orthophosphates --- nano-hydroxyapatite --- eggshell --- cuttlefish bone --- mussel shell --- amorphous calcium carbonate --- hydrogel --- tissue engineering --- biphasic calcium phosphate nanoparticle (BCP-NP) --- biodegradable --- gelatin methacryloyl (GelMA) --- visible light --- inorganic nanomaterials --- nano hydroxyapatites --- nano silica --- metallic nanomaterials --- magnesium and its alloys --- hydroxyapatite --- surface modifications --- titanium implants --- corrosion analysis --- bioactivity --- biomaterial --- bone substitute --- apatite --- microwave-assisted hydrothermal synthesis --- microgeometry --- mechanobiology --- global DNA methylation --- osteoblast mechanosensing --- n/a
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Biomaterials—the materials used for the manufacturing of medical devices— are part of everyday life. Each one of us has likely had the experience of visting a dentist’s office, where a number of biomaterials are used temporarily or permanently in the mouth. Devices that are more complex are used for to support, heal, or replace living tissues or organs in the body that are suffering or compromised by different conditions. The materials used in their construction are metals and metallic alloys, polymers—ranging from elastomers to adhesives—and ceramics.Within these three cases, there are materials that are inert in the living environment, that perform an active function, or that are dissolved and resorbed by the metabolic pathways. Biomaterials are the outcome of a dynamic field of research that is driven by a growing demand and by the competition among the manufacturers of medical devices, with innovations improving the performance of existing devices and that contribute to the development of new ones. The collection of papers forming this volume have one particular class of of biomaterial in common, ceramic (bioceramic) composites, which as so far been used in applications such as orthopaedic joint replacement as well as in dental implants and restorations and that is being intensively investigated for bone regeneration applications. Today’s bioceramic composites (alumina–zirconia) are the golden standard in joint replacements. Several manufracturers have proposed different zirconia–alumina composites for use in hip, knee, and shoulder joint replacements, with several other innovative devices also being under study. In addition, bioceramic composites with innovative compositions are under development and will be on the market in years to come. Something that is especially interesting is the application of bioceramic composites in the regeneration of bone tissues. Research has devoted special attention to the doping of well-known materials (i.e., calcium phosphates and silicates) with bioactive ions, aiming to enhance the osteogenic ability and bioresorbability of man-made grafts. Moreover, high expectations rely on hybrid biopolymer/ceramic materials that mimic the complex composition and multiscale structure of bone tissue.
biomaterials --- bone grafts --- bone repair --- dental implants --- scaffolds --- alumina --- zirconia --- Alumina-Toughened Zirconia --- Zirconia-Toughened Alumina --- hip arthroplasty --- calcium phosphates --- hydroxyapatite --- bone cements --- bioactive composites --- bone regeneration --- zirconia–alumina composite --- stabilizing oxides --- critical grain size --- tetragonality --- mechanical properties --- fracture toughness --- flexural strength --- ceramic additive manufacturing --- DLP --- bioceramics --- calcium phosphate --- carbon fibers --- mineralization --- zirconia-toughened alumina --- phase transformation --- Raman spectroscopy --- calcium-based biomineralization --- hydroxyapatite nanoparticles --- biomimicry --- multifunctional materials --- Freeze Foam --- hybrid bone --- biocompatibility --- bone replacement --- transformation toughening --- platelet reinforcement --- hip --- alumina matrix composite --- AMC --- hip prosthesis --- prosthesis --- case series --- ceramic-on-ceramic --- n/a --- zirconia-alumina composite
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The goal of the Special Issue “Brittle Materials in Mechanical Extremes” is to spark a discussion of the analogies and the differences between different brittle materials, such as ceramics and concrete. The contributions to the Issue span from construction materials (asphalt and concrete) to structural ceramics to ice. Data reported in the Issue were obtained by advanced microstructural techniques (microscopy, 3D imaging, etc.) and linked to mechanical properties (and their changes as a function of aging, composition, etc.). The description of the mechanical behavior of brittle materials under operational loads, for instance, concrete and ceramics under very high temperatures, offers an unconventional viewpoint on the behavior of such materials. While it is by no means exhaustive, this Special Issue paves the road for the fundamental understanding and further development of materials.
restraint --- creep --- double feedback method --- concrete --- temperature stress testing machine (TSTM) --- alkali-activated slag --- elevated temperatures --- Na2O concentration --- residual strength --- brittleness --- melting --- Fiber-reinforced concrete --- X-ray computed tomography (CT) --- anisotropic fiber orientation --- inverse analysis --- silica --- super-insulating materials --- instrumented indentation --- porosity --- electro-fused zirconia --- microcracking --- synchrotron x-ray refraction radiography (SXRR) --- thermal expansion --- ice --- high rate loading --- compressive loading --- Split Hopkinson bar --- in-situ fractography --- biomaterials --- bioceramics --- coating --- mechanical properties --- existing buildings --- reinforced concrete --- seismic vulnerability assessment --- in situ concrete strength --- variability of concrete strength --- high speed railway --- SBS/CR modified asphalt --- long-term aging --- anti-aging --- engineered cementitious composites --- steel grid --- fiber --- tensile capacity --- energy dissipation --- ceramics --- asphalt --- microstructure --- strength
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This book, entitled “Mesoporous Metal Oxide Films”, contains an editorial and a collection of ten research articles covering fundamental studies and applications of different metal oxide films. Mesoporous materials have been widely investigated and applied in many technological applications owing to their outstanding structural and physical properties. In this book, important developments in this fast-moving field are presented from various research groups around the world. Different preparation methods and applications of these novel and interesting materials have been reported, and it was demonstrated that mesoporosity has a direct impact on the properties and potential applications of such materials. The potential use of mesoporous metal oxide films and coatings with different morphology and structures is demonstrated in many technological applications, particularly chemical and electrochemical sensors, supercapacitors, solar cells, photoelectrodes, bioceramics, photonic switches, and anticorrosion agents.
SnO2 --- Metglas --- hemin --- H2O2 --- cyclic voltammetry --- magnetoelastic resonance --- sensor --- titanium dioxide --- mesoporous --- thin film --- multi-layered --- photoanode --- semiconductor --- photoelectrochemical water oxidation --- Mn2O3 --- mesoporous materials --- electrochemical characterizations --- electrode --- supercapacitors --- gadolinium oxide --- hydrazine --- p-nitrophenol --- electrochemical sensing --- amperometric --- selective sensor --- nanocrystal --- ZnO --- density of states --- optical and electrical properties --- TiO2 films --- Ag nanoparticles --- optical properties --- spectroelectrochemistry --- surface plasmon --- Fe-doped TiO2 --- hydrothermal --- GCE --- chemical sensor --- amperometry --- dye-sensitized solar cells --- working electrode --- TiO2 --- NiO nanoparticles --- electron transport --- corrosion --- guar gum --- coatings --- electrochemical impedance spectroscopy (EIS) --- SECM --- AFM --- calcium phosphate silicate --- PEG --- bioceramics --- sol-gel preparation --- hard tissue engineering --- metal oxide --- sol-gel --- supercapacitor --- photoelectrode --- dye sensitized solar cell --- NiO
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The continuous miniaturization of products and the growing complexity of their embedded multifunctionalities necessitates continuous research and development efforts regarding micro components and related micro manufacturing technologies. Highly miniaturized systems, manufactured using a wide variety of materials, have found application in key technological fields, such as healthcare devices, micro implants, mobility, communications, optics, and micro electromechanical systems. Innovations required for the high-precision manufacturing of micro components can specifically be achieved through optimizations using post-process (i.e., offline) and in-process (i.e., online) metrology of both process input and output parameters, as well as geometrical features of the produced micro parts. However, it is of critical importance to reduce the metrology and optimization efforts, since process and product quality control can represent a significant portion of the total production time in micro manufacturing. To solve this fundamental challenge, research efforts have been undertaken in order to define, investigate, implement, and validate the so-called “product/process manufacturing fingerprint” concept. The “product manufacturing fingerprint” concept refers to those unique dimensional outcomes (e.g., surface topography, form error, critical dimensions, etc.) on the produced component that, if kept under control and within specifications, ensure that the entire micro component complies to its specifications. The “process manufacturing fingerprint” is a specific process parameter or feature to be monitored and controlled, in order to maintain the manufacture of products within the specified tolerances. By integrating both product and process manufacturing fingerprint concepts, the metrology and optimization efforts are highly reduced. Therefore, the quality of the micro products increases, with an obvious improvement in production yield. Accordingly, this Special Issue seeks to showcase research papers, short communications, and review articles that focus on novel methodological developments and applications in micro- and sub-micro-scale manufacturing, process monitoring and control, as well as micro and sub-micro product quality assurance. Focus will be on micro manufacturing process chains and their micro product/process fingerprint, towards full process optimization and zero-defect micro manufacturing.
n/a --- Fresnel lenses --- Electro sinter forging --- micro-injection moulding --- surface roughness --- charge relaxation time --- optimization --- gratings --- plasma-electrolytic polishing --- micro structures replication --- micro-grinding --- electrical discharge machining --- injection molding --- quality control --- commercial control hardware --- electrical current --- damping --- process monitoring --- fingerprints --- impact analysis --- current monitoring --- process control --- quality assurance --- surface integrity --- microfabrication --- microinjection moulding --- electro chemical machining --- superhydrophobic surface --- surface modification --- haptic actuator --- electrical discharge machining (EDM) --- surface morphology --- inline metrology --- optical quality control --- finishing --- flow length --- precision injection molding --- laser ablation --- micro metrology --- Halbach linear motor --- 2-step analysis --- computer holography --- PeP --- satellite drop --- process fingerprint --- materials characterisation --- current density --- micro drilling --- multi-spectral imaging --- lithography --- manufacturing signature --- artificial compound eye --- electrohydrodynamic jet printing --- ECM --- positioning platform --- diffractive optics --- bioceramics --- resistance sintering --- uncertainty budget --- product fingerprint --- confocal microscopy --- spectral splitting --- dental implant --- desirability function --- injection compression molding --- electrochemical machining (ECM) --- high strain rate effect --- process fingerprints
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Absorbable metals have shown significant clinical potential for temporary implant applications, where the material is eventually replaced by healthy, functioning tissue. However, several challenges remain before these metals can be used in humans. Innovations and further improvements are required. This book collects scientific contributions dealing with the development of absorbable metals with improved and unique corrosion and mechanical properties for applications in highly loaded implants or cardiovascular and urethral stents.
surface treatments --- roughness --- Mg-alloys --- degradation behavior --- absorbable --- corrosion --- degradation --- magnesium --- ureteral stent --- zinc --- mandibular condylar fracture --- unsintered hydroxyapatite/poly-l-lactide composite plate --- bioactive resorbable plate --- biomechanical loading evaluation --- fracture fixation --- WE43/HA composite --- friction stir processing --- microstructure --- mechanical properties --- corrosion behavior --- absorbable metal --- cytotoxicity --- stent --- ureteral --- urothelial cells --- zinc alloy --- poly-L-lactide --- uncalcined and unsintered hydroxyapatite --- biocompatibility --- osteoconductivity --- mesenchymal stem cell --- iron foam --- polyethyleneimine (PEI) --- biodegradation --- powder metallurgy --- coating --- biodegradable magnesium implants --- bioceramics --- bioactivity --- orthopedic implant --- bone surgery --- absorbable implants --- magnesium (Mg) --- oral and maxillofacial --- orthopedic --- titanium (Ti) --- biomaterials --- electrochemistry --- hydrogen evolution --- microscopy --- Mg-Zn-Sn alloy --- osteoinductive activity --- sirolimus --- rabbit coronary artery endothelial cells --- smooth muscle cells --- bioabsorbable metals --- in-vivo biocompatibility --- strontium --- toxicity --- systemic reactions --- alloy accumulation --- internal organs --- iron --- corrosion rate --- biodegradable material --- n/a
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This Special Issue focuses on computational detailed studies (simulation, modeling, and calculations) of the structures, main properties, and peculiarities of the various nanomaterials (nanocrystals, nanoparticles, nanolayers, nanofibers, nanotubes, etc.) based on various elements, including organic and biological components, such as amino acids and peptides. For many practical applications in nanoelectronics., such materials as ferroelectrics and ferromagnetics, having switching parameters (polarization, magnetization), are highly requested, and simulation of dynamics and kinetics of their switching are a very important task. An important task for these studies is computer modeling and computational research of the properties on the various composites of the other nanostructures with polymeric ferroelectrics and with different graphene-like 2-dimensional structures. A wide range of contemporary computational methods and software are used in all these studies.
single nanowires --- silicon --- dual shells --- off-resonance --- absorption --- photocurrent --- magnetism --- transition-metal oxide clusters --- DFT calculations --- structure --- electronic properties --- LGD theory --- polarization --- nanoscale ferroelectrics --- kinetics --- homogeneous switching --- computer simulation --- fitting --- diphenylalanine --- peptide nanotubes --- self-assembly --- water molecules --- DFT --- molecular modelling --- semi-empirical methods --- chirality --- Ir-modified MoS2 --- decomposition components of SF6 --- adsorption and sensing --- atomistic simulation --- core–shell bi-magnetic nanoparticles --- Monte Carlo simulation --- interfacial exchange --- terahertz --- graphene --- plasmons --- Drude absorption --- polarization conversion --- yield surface --- plastic flow --- crystal plasticity --- polycrystalline aluminum --- dipeptides --- helical structures --- molecular modeling --- dipole moments --- tunnel junction --- machine learning --- III-nitride --- hydroxyapatite --- modeling --- density functional theory --- defects --- vacancies --- substitutions --- structural and optical properties --- band gap --- electronic density of states --- nanomaterials --- plasmon-induced transparency --- strontium titanate --- slow light --- iron doping --- hydroxyapatite bioceramics --- hybrid density functional --- X-ray absorption spectroscopy --- phenylalanine --- protein secondary structure --- optoelectronic devices --- nanostructured polymer film --- antireflection coating --- finite-difference time-domain method --- ferroelectrics --- heterostructures --- domains --- negative capacitance
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