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The book provides a comprehensive overview of nanostructures and methods used to design biosensors, as well as applications for these biosensor nanotechnologies in the biological, chemical, and environmental monitoring fields. Biological sensing has proven to be an essential tool for understanding living systems, but it also has practical applications in medicine, drug discovery, food safety, environmental monitoring, defense, personal security, etc. In healthcare, advancements in telecommunications, expert systems, and distributed diagnostics are challenging current delivery models, while robust industrial sensors enable new approaches to research and development. Experts from around the world have written five articles on topics including:Diagnosing and treating intraocular cancers such as retinoblastoma; Nanomedicine in cancer management; Engineered nanomaterials in osteosarcoma diagnosis and treatment; Practical design of nanoscale devices; Detect alkaline phosphatase quantitatively in clinical diagnosis; Progress in the area of non-enzymatic sensing of dual/multi biomolecules; Developments in non-enzymatic glucose and H2O2 (NEGH) sensing; Multi-functionalized nanocarrier therapies for targeting retinoblastoma; Galactose functionalized nanocarriers; Sensing performance, electro-catalytic mechanism, and morphology and design of electrode materials; Biosensors along with their applications and the benefits of machine learning; Innovative approaches to improve the NEGH sensitivity, selectivity, and stability in real-time applications; Challenges and solutions in the field of biosensors.

Technology: general issues --- advanced nanomaterials --- dual in-line sensing --- bi-functional properties --- non-enzymatic --- electrochemical sensing --- glucose and H2O2 --- nanotechnology --- bone diseases --- drug delivery --- nanocarriers --- osteosarcoma --- tumor-targeted --- retinoblastoma --- rare cancer --- surface-tailored multi-functionalized nanoparticles --- metallic nanoparticle --- tumor-suppressor gene mutation --- alkaline phosphatase --- terminal protection --- copper nanoparticle --- fluorescence --- biosensor --- electrochemical --- sensitivity --- amperometric --- voltammetric --- food quality monitoring --- machine learning --- n/a

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The combination of functional polymers with inorganic nanostructured compounds has become a major area of research and technological development owing to the remarkable properties and multifunctionalities deriving from their nano and hybrid structures. In this context, polyhedral oligomeric silsesquioxanes (POSSs) have increasing importance and a dominant position with respect to the reinforcement of polymeric materials. Although POSSs were first described in 1946 by Scott, these materials, however, have not immediately been successful if we consider that, starting from 1946 and up to 1995, we find in the literature 85 manuscripts regarding POSSs; which means that less than two papers per year were published over 50 years. Since 1995, we observe an exponential growth of scientific manuscripts concerning POSSs. It is changing from an annual average of 20 manuscripts for the period 1995–2000 to an annual average of about 400 manuscripts, with an increase of 2800%. The introduction of POSSs inorganic nanostructures into polymers gives rise to polymer nanostructured materials (PNMs) with interesting mechanical and physical properties, thus representing a radical alternative to the traditional filled polymers or polymer compositions.

graphene oxide --- n/a --- lithium ion battery --- liquefied --- polypropylene --- silsesquioxanes --- self-assembly behaviors --- nanocomposites --- Octavinyl-POSS --- polyimide --- thermal properties --- polyhedral oligomeric silsesquioxane-based ionic liquids --- aqueous self-assembly --- bi-functional POSS --- blends --- low refractive material --- cellular structure --- mechanism analysis --- morphology --- flame retardant --- hydrogels --- mercapto-modified --- damping --- POSS nanoparticles --- phthalonitrile polymers --- mechanical properties --- flame-retardant mechanism --- thiol-ene ‘click’ reaction --- POSS --- poly(?-caprolactone) --- siloxane-silsesquioxane resins --- polyhedral oligomeric silsesquioxane (POSS) --- surface properties --- fluoropolymer --- thiol–ene “click” reaction --- Monomethacryloxy POSS --- monodisperse --- thermogravimetry --- OLEDs --- fluorescent sensors --- double-decker-shaped silsesquioxane (DDSQ) --- dielectric constant --- composites --- organic-inorganic hybrids --- poly(?-caprolactone) nanocomposite --- POSS-based copolymer --- organic-inorganic crosslinking --- optoelectronics --- flame retardancy --- cone calorimeter tests --- lauryl methacrylate --- octa-ammonium POSS --- nitroaromatic explosives --- phthalonitrile-polyhedral oligomeric silsesquioxane copolymers --- cyanate ester --- thermoplastic polyurethane --- sodium alginate --- giant surfactant --- benzoxazine --- thermal stability --- temperature responsiveness --- polymerization kinetics --- mechanical performance --- Si@C anode --- ridgid polyurethane foams --- epoxy resin --- grafting synthesis --- direct synthesis --- filler --- bridged silsesquioxane --- hydrophobic modification --- dispersion --- polyhedral oligomeric silsesquioxanes --- anchor effect --- thiol-ene 'click' reaction --- thiol-ene "click" reaction