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Smart and Functional Textiles is an application-oriented book covering a wide range of areas from multifunctional nanofinished textiles, coated and laminated textiles, wearable e-textiles, textile-based sensors and actuators, thermoregulating textiles, to smart medical textiles and stimuli-responsive textiles. It also includes chapters on 3D printed smart textiles, automotive smart textiles, smart textiles in military and defense, as well as functional textiles used in care and diagnosis of Covid-19.
3D Printing. --- Automotive Textiles. --- Chromic Materials. --- Conductive Textiles. --- Energy Harvesting Textiles. --- Functional Coatings. --- Functional Textiles. --- Material Characterization and Properties. --- Materials Science, Nanomaterials. --- Medical Textiles. --- Nanotechnology. --- Phase Change Materials. --- Polymer Nanocomposites. --- Polymers. --- Protective Textiles. --- Sensors and Actuators. --- Smart Textiles. --- Stimuli Responsive Materials. --- Thermoregulating Textiles. --- Wearable Electronics.
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Nanocelluloses: Synthesis, Modification and Applications is a book that provides some recent enhancements of various types of nanocellulose, mainly bacterial nanocellulose, cellulose nanocrystals and nanofibrils, and their nanocomposites. Bioactive bacterial nanocellulose finds applications in biomedical applications, https://doi.org/10.3390/nano9101352. Grafting and cross-linking bacterial nanocellulose modification emerges as a good choice for improving the potential of bacterial nanocellulose in such biomedical applications as topical wound dressings and tissue-engineering scaffolds, https://doi.org/10.3390/nano9121668. On the other hand, bacterial nanocellulose can be used as paper additive for fluorescent paper, https://doi.org/10.3390/nano9091322, and for the reinforcement of paper made from recycled fibers, https://doi.org/10.3390/nano9010058. Nanocellulose membranes are used for up-to-date carbon capture applications, https://doi.org/10.3390/nano9060877. Nanocellulose has been applied as a novel component of membranes designed to address a large spectrum of filtration problems, https://doi.org/10.3390/nano9060867. Poly(vinyl alcohol) (PVA) and cellulose nanocrystals (CNC) in random composite mats prepared using the electrospinning method are widely characterized in a large range of physical chemical aspects, https://doi.org/10.3390/nano9050805. Similarly, physical chemical aspects are emphasized for carboxylated cellulose nanofibrils produced by ammonium persulfate oxidation combined with ultrasonic and mechanical treatment, https://doi.org/10.3390/nano8090640. It is extraordinary how nanocellulose can find application in such different fields. Along the same lines, the contributions in this book come from numerous different countries, confirming the great interest of the scientific community for nanocellulose.
tensile strength --- amino acid --- poly (vinyl alcohol) --- Eu ion --- recycled fiber --- bacterial nanocellulose --- Fenton reagent --- cross-linking --- electrospinning --- biomedical applications --- complex --- fluorescent paper --- nanocomposite --- vancomycin --- reinforcement --- carbon source --- in situ modification --- facilitated transport --- water application --- scanning electron microscopy --- nanocellulose --- cellulosic fiber --- rheology --- polymer nanocomposites --- selective separation --- durability --- oxidation --- thermogravimetric analysis --- ex situ modification --- methacrylate --- nanofibrils --- bacterial cellulose --- ammonium persulfate --- high shear mixer --- ionic liquid --- tensile properties --- bioactive bacterial nanocellulose --- gas separation membranes --- CO2 separation --- dispersion --- cellulose nanocrystals --- ciprofloxacin
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Today, mainly man-made materials, such as carbon and glass fibers, are used to produce composite parts in aviation. Renewable materials, such as natural fibers or bio-sourced resin systems, have not yet found their way into aviation. The project ECO-COMPASS aims to evaluate the potential applications of ecologically improved composite materials in the aviation sector in an international collaboration of Chinese and European partners. Natural fibers such as flax and ramie will be used for different types of reinforcements and sandwich cores. Furthermore, bio-based epoxy resins to substitute bisphenol-A based epoxy resins in secondary structures are under investigation. Adapted material protection technologies to reduce environmental influence and to improve fire resistance are needed to fulfil the demanding safety requirements in aviation. Modelling and simulation of chosen eco-composites aims for an optimized use of materials while a Life Cycle Assessment aims to prove the ecological advantages compared to synthetic state-of-the-art materials. This Special Issue provides selected papers from the project consortium partners.
physical properties --- n/a --- plant fiber --- fracture toughness --- eco-composite --- functional composites --- flax fibre --- balsa --- bio-composites --- hybrid composite --- interface --- itaconic acid --- sandwich structures --- nonwoven --- flax --- engineering applications --- paper --- carbon nanotubes --- composite --- recycled carbon fibre --- poly-lactic acid --- rosin acid --- aviation sector --- crack sensing --- bio-sourced epoxy --- life cycle assessment --- natural fibre --- electrical properties --- glass fibre --- polymer nanocomposites --- environmental impacts --- multi-scale modeling --- function integrated interleave --- ramie fiber --- bio-based epoxy --- hybrid --- fabric --- sound absorption --- microstructures --- thermosetting resin --- wet-laying --- electrical conductivity --- green composite
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Graphene nanoplatelets (GNPs) have attracted considerable interest due to their exceptional mechanical, electrical, and thermal properties, among others. This book provides a deep review of some aspects related to the characterization of GNPs and their applications as nanoreinforcements for different types of matrices such as polymeric- or cement-based matrices. In this book, the reader will find how these nanoparticles could be used for several industrial applications such as energy production and storage or effective barrier coatings, providing a wide overview of future progress in this topic
concrete --- graphene oxide --- n/a --- water absorption --- photo-thermal conversion performance --- wear --- structural health monitoring --- epoxy composite --- melting --- graphene-polymer nanocomposites --- graphene --- multiblock copolyesters --- base oil --- freeze-thaw cycles --- composite --- nanocomposite --- stretchable electronics --- terahertz time-domain spectroscopy --- grease --- graphene nanoplatelet --- polyethylene glycol --- adsorption --- strain sensor --- flexible electronics --- reinforced bioplastics --- phase change materials --- graphene nanoplatelets --- graphene nanoflakes --- friction --- freezing --- Drude–Smith model for complex conductivity --- graphenene nanoplatelets --- MIL-101(Fe) --- titanium dioxide --- uranium --- graphene nanoplates --- thermal conductivity --- wearable electronics --- Drude-Smith model for complex conductivity
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This Special Issue focuses on the current state-of-the-art of “Polymer Clay Nano-Composites” for biomedical, anticorrosion, antibacterial, and other applications. Clay–polymer composite nanomaterials represent an emerging area of research. Loading polymers with clay particles essentially enhances the composite strength features. Of particular interest are different nano-assembly methods, such as silane mono and multilayers, polyelectrolyte layer-by-layer assembly, and others. An important development was reached for tubular and fibrous clay nanoparticles, such as halloysite, sepiolite, and imogolite. Polymer clay nanoparticles can be prepared as sheets with 1-nm thickness and width of a few hundred nm (e.g., kaolin and montmorillonite). Fibrous clays significantly reinforce the nano-composites in the assembly with biopolymers and other green polymers, leading to functional hybrid bio nano-composites. The scope of this Special Issue comprehensively includes the synthesis and characterization of polymer clay nano-composites used for several applications, including nano-clay polymer composites and hybrid nano-assemblies.
graphene oxide --- n/a --- polysaccharide --- water resistance --- nanocomposites --- layered silicate --- polyimide --- intercalation --- barrier --- composite --- indentation recovery --- ionic network --- organically modified clays --- nanotechnology --- 2-polybutadiene --- doxorubicin --- sericite --- adsorption --- morphology --- phenyltrimethylammonium chloride --- supercritical CO2 --- blowing agent --- halloysite nanotubes --- mechanical properties --- glycerol --- ammonium persulfate --- TGA --- 1 --- interfacial interactions --- carbon fibers --- nanocomposite materials --- silica sol --- N?-methylenebisacrylamide --- intercalation stability --- polymer composites --- clay–polymer nanocomposites --- in-situ intercalation --- attapulgite/polypyrrole nanocomposite --- fish gelatin --- polyacrylic acid --- fuzzy optimization --- AFM --- variable cost --- organic montmorillonite --- positron annihilation --- whey protein isolate --- interface --- CTAB --- N --- hyaluronic acid --- swelling capacity --- water shutoff --- montmorillonite --- sol–gel transition --- in situ polymerization --- hexadecyltrimethylammonium bromide --- clay-amine interaction mechanisms --- gelation kinetics --- FTIR --- surface grafting --- Pareto set --- la uptake and release --- polyamines --- polystyrene foam --- CD44 receptor targeted --- tribological property --- polyethylene oxide --- structure effects --- catalytic composite --- polystyrene --- nanoclay --- thermal stability --- sacrificial bond --- Pd catalysis --- radical polymerization --- dental resins --- reinforcing --- montmorillonite clays --- coatings --- atrazine --- cellulose nanofibrils --- soap-free emulsion polymerization --- LAP --- doubly functionalized montmorillonite --- dispersion --- organo-clays --- clay-polymer nanocomposites --- sol-gel transition
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This Special Issue contains selected papers from works presented at the 8th EASN–CEAS (European Aeronautics Science Network–Council of European Aerospace Societies) Workshop on Manufacturing for Growth and Innovation, which was held in Glasgow, UK, 4–7 September 2018. About 150 participants contributed to a high-level scientific gathering providing some of the latest research results on the topic, as well as some of the latest relevant technological advancements. ?ine interesting articles, which cover a wide range of topics including characterization, analysis and design, as well as numerical simulation, are contained in this Special Issue.
n/a --- dynamic force analysis --- ditching simulation --- crashworthiness --- morphing wings --- pressurized fuselage --- scissor-like elements --- design of advanced power systems --- manufacturing --- nanomechanical properties --- composite materials --- multifunctionality --- electrical properties --- computational fluid dynamics --- aeronautic component --- nanomaterials --- circulation control --- multiscale damage model --- modelling and simulation --- unmanned aircraft --- kinematic analysis --- threshold concentration --- life cycle analysis --- autoclave --- blended wing-body aircraft --- incompressible flow --- low-curvature panels --- aircraft design --- composites structures --- carbon nanotubes --- vacuum assisted resin infusion --- active flow control --- building-block approach --- flight testing --- VTOL-UAV --- aerodynamic analysis --- suction and oscillatory blowing actuator --- technology readiness level --- scaling --- kinematic synthesis --- polymer nanocomposites --- thermal stability --- electrification --- cold diaphragm forming --- resin transfer molding --- fluid-structure interaction --- technology demonstrator --- light sport aircraft --- multi-objective optimization --- cost analysis --- scissor-structural mechanisms
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Antimicrobial packaging has recently attracted a great deal of interest from the food industry due to the boost in consumer demand for minimally-processed, preservative-free products. Antimicrobial polymeric packaging systems can be considered an emerging technology that could have an important impact on shelf life extension and food safety. Novel polymeric-based packaging materials are continually being developed. This book collects carefully chosen examples of the most recent and relevant advances in the preparation and characterization of antimicrobial composites for food packaging applications. Different polymer nanocomposites with improved packaging properties are discussed along with their mechanisms of action. Further, future perspectives for antimicrobial polymeric nanomaterials are provided.
Research & information: general --- coatings --- Eucomis comosa extract --- antibacterial --- antimicrobial properties --- antimicrobial --- EVOH --- essential oils --- carvacrol --- halloysite nanotubes --- multilayered films --- strawberry --- nano-Ag packaging --- storage --- quality change --- antibacterial activity --- food packaging --- orange oil --- pectin film --- bionanocomposites --- polyhydroxybutyrate --- bacterial cellulose --- antimicrobial activity --- thermal properties --- packaging --- morphology --- Polylactic acid (PLA) --- TiO2 nanoparticles --- polymer nanocomposites --- antibacterial packaging --- cinnamon extraction oil --- algae --- biodegradation --- shelf-life --- chitosan --- composite films --- cross-linking --- physical properties --- bacteriostasis properties --- antiradical activity --- hydroxypropylmethylcellulose --- lignin --- pathogenic microorganisms --- organosolv --- blackberry --- arrowroot starch --- gum arabic --- freeze-drying --- water solubility --- water vapor permeability --- anthocyanins --- antioxidant capacity --- powder --- ZnAl hydroxide --- hybrid --- urea method --- chitosan amount --- poly(lactic acid) --- thymol --- β-cyclodextrin --- antifungal activity --- metal oxide nanoparticles --- vegetable oils --- thermosetting polymers --- antibacterial properties --- nanocomposites --- reactive oxygen species --- n/a
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Graphene-polymer nanocomposites continue to gain interest in diverse scientific and technological fields. Graphene-based nanomaterials present the advantages of other carbon nanofillers, like electrical and thermal conductivity, while having significantly lower production costs when compared to materials such as carbon nanotubes, for instance. In addition, in the oxidized forms of graphene, the large specific area combined with a large quantity of functionalizable chemical groups available for physical or chemical interaction with polymers, allow for good dispersion and tunable binding with the surrounding matrix. Other features are noteworthy in graphene-based nanomaterials, like their generally good biocompatibility and the ability to absorb near-infrared radiation, allowing for the use in biomedical applications, such as drug delivery and photothermal therapy.This Special Issue provides an encompassing view on the state of the art of graphene-polymer composites, showing how current research is dealing with new and exciting challenges. The published papers cover topics ranging from novel production methods and insights on mechanisms of mechanical reinforcement of composites, to applications as diverse as automotive and aeronautics, cancer treatment, anticorrosive coatings, thermally conductive fabrics and foams, and oil-adsorbent aerogels.
Technology: general issues --- graphene oxide --- polymer composite fiber --- interfacial bonding --- polypropylene --- thermal stability --- graphene --- unsaturated polyester resins --- tung oil --- biobased polymer nanocomposites --- in situ melt polycondensation --- graphene polymer matrix composite --- polyamide 66 --- elongational flow --- hydrogen bond --- poly(trimethylene terephthalate) --- electrospinning --- composite fiber --- morphology --- crystallization --- electrical conductivity --- mechanical property --- elastic recovery --- cellulose nanofibers --- polyvinyl alcohol --- directional freeze-drying --- oil absorption --- graphene oxide–platinum nanoparticles nanocomposites --- prostate cancer --- cytotoxicity --- oxidative stress --- mitochondrial membrane potential --- DNA damage --- conducting polymer --- PANI --- LEIS --- corrosion --- fabric --- cellulose nanocrystal --- thermal conductivity --- adhesives --- cohesive zone model --- finite element method --- graphene-polymer nanocomposite --- graphene/polymer interface --- molecular dynamics --- regressive softening law --- polysulfone foams --- tortuosity --- water vapor induced phase separation --- scCO2 --- toughening mechanisms --- graphene nanoplatelets --- recycled rubber --- Halpin–Tsai --- SEM --- light emitting diode --- phototherapy --- polyethylene glycol --- thermal reduction --- n/a --- graphene oxide-platinum nanoparticles nanocomposites --- Halpin-Tsai
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Antimicrobial packaging has recently attracted a great deal of interest from the food industry due to the boost in consumer demand for minimally-processed, preservative-free products. Antimicrobial polymeric packaging systems can be considered an emerging technology that could have an important impact on shelf life extension and food safety. Novel polymeric-based packaging materials are continually being developed. This book collects carefully chosen examples of the most recent and relevant advances in the preparation and characterization of antimicrobial composites for food packaging applications. Different polymer nanocomposites with improved packaging properties are discussed along with their mechanisms of action. Further, future perspectives for antimicrobial polymeric nanomaterials are provided.
Research & information: general --- coatings --- Eucomis comosa extract --- antibacterial --- antimicrobial properties --- antimicrobial --- EVOH --- essential oils --- carvacrol --- halloysite nanotubes --- multilayered films --- strawberry --- nano-Ag packaging --- storage --- quality change --- antibacterial activity --- food packaging --- orange oil --- pectin film --- bionanocomposites --- polyhydroxybutyrate --- bacterial cellulose --- antimicrobial activity --- thermal properties --- packaging --- morphology --- Polylactic acid (PLA) --- TiO2 nanoparticles --- polymer nanocomposites --- antibacterial packaging --- cinnamon extraction oil --- algae --- biodegradation --- shelf-life --- chitosan --- composite films --- cross-linking --- physical properties --- bacteriostasis properties --- antiradical activity --- hydroxypropylmethylcellulose --- lignin --- pathogenic microorganisms --- organosolv --- blackberry --- arrowroot starch --- gum arabic --- freeze-drying --- water solubility --- water vapor permeability --- anthocyanins --- antioxidant capacity --- powder --- ZnAl hydroxide --- hybrid --- urea method --- chitosan amount --- poly(lactic acid) --- thymol --- β-cyclodextrin --- antifungal activity --- metal oxide nanoparticles --- vegetable oils --- thermosetting polymers --- antibacterial properties --- nanocomposites --- reactive oxygen species --- n/a
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Graphene-polymer nanocomposites continue to gain interest in diverse scientific and technological fields. Graphene-based nanomaterials present the advantages of other carbon nanofillers, like electrical and thermal conductivity, while having significantly lower production costs when compared to materials such as carbon nanotubes, for instance. In addition, in the oxidized forms of graphene, the large specific area combined with a large quantity of functionalizable chemical groups available for physical or chemical interaction with polymers, allow for good dispersion and tunable binding with the surrounding matrix. Other features are noteworthy in graphene-based nanomaterials, like their generally good biocompatibility and the ability to absorb near-infrared radiation, allowing for the use in biomedical applications, such as drug delivery and photothermal therapy.This Special Issue provides an encompassing view on the state of the art of graphene-polymer composites, showing how current research is dealing with new and exciting challenges. The published papers cover topics ranging from novel production methods and insights on mechanisms of mechanical reinforcement of composites, to applications as diverse as automotive and aeronautics, cancer treatment, anticorrosive coatings, thermally conductive fabrics and foams, and oil-adsorbent aerogels.
Technology: general issues --- graphene oxide --- polymer composite fiber --- interfacial bonding --- polypropylene --- thermal stability --- graphene --- unsaturated polyester resins --- tung oil --- biobased polymer nanocomposites --- in situ melt polycondensation --- graphene polymer matrix composite --- polyamide 66 --- elongational flow --- hydrogen bond --- poly(trimethylene terephthalate) --- electrospinning --- composite fiber --- morphology --- crystallization --- electrical conductivity --- mechanical property --- elastic recovery --- cellulose nanofibers --- polyvinyl alcohol --- directional freeze-drying --- oil absorption --- graphene oxide–platinum nanoparticles nanocomposites --- prostate cancer --- cytotoxicity --- oxidative stress --- mitochondrial membrane potential --- DNA damage --- conducting polymer --- PANI --- LEIS --- corrosion --- fabric --- cellulose nanocrystal --- thermal conductivity --- adhesives --- cohesive zone model --- finite element method --- graphene-polymer nanocomposite --- graphene/polymer interface --- molecular dynamics --- regressive softening law --- polysulfone foams --- tortuosity --- water vapor induced phase separation --- scCO2 --- toughening mechanisms --- graphene nanoplatelets --- recycled rubber --- Halpin–Tsai --- SEM --- light emitting diode --- phototherapy --- polyethylene glycol --- thermal reduction --- n/a --- graphene oxide-platinum nanoparticles nanocomposites --- Halpin-Tsai
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