Information om | Engelska ordet DIELECTRICS

Exempel på hur man kan använda DIELECTRICS i en mening

• In addition, he wrote many works on various aspects of physics: statistical mechanics and thermodynamics, physics of dielectrics, colour theory, electrodynamics, general relativity, and cosmology, and he made several attempts to construct a unified field theory.
• PD usually begins within voids, cracks, or inclusions within a solid dielectric, at conductor-dielectric interfaces within solid or liquid dielectrics, or in bubbles within liquid dielectrics.
• As components have scaled and transistors have gotten closer together, the insulating dielectrics have thinned to the point where charge build up and crosstalk adversely affect the performance of the device.
• It plays a major role in topics such as the capacitance of a material, as well as the response of dielectrics to an electric field, and how shapes can change due to electric fields in piezoelectricity or flexoelectricity as well as the creation of voltages and charge transfer due to elastic strains.
• Although all dielectrics exhibit some electrostriction, certain engineered ceramics, known as relaxor ferroelectrics, have extraordinarily high electrostrictive constants.
• BCB-based polymer dielectrics may be spun on or applied to various substrates for use in Micro Electro-Mechanical Systems (MEMS) and microelectronics processing.
• Von Hippel was a pioneer in the study of dielectrics, ferromagnetic and ferroelectric materials, and semiconductors and was a codeveloper of radar during World War II.
• The implementation of high-κ gate dielectrics is one of several strategies developed to allow further miniaturization of microelectronic components, colloquially referred to as extending Moore's Law.
• In 1914, Schrödinger received his Habilitation (higher postgraduate degree) with his "Studies on the kinetics of dielectrics, melting point, pyro- and piezoelectricity".
• Two types of PCMs have been popularly used: the dielectric PCM (D-PCM) in which the continuum is polarizable (see dielectrics) and the conductor-like PCM (C-PCM) in which the continuum is conductor-like similar to COSMO Solvation Model.
• Subsequently, the technique has been extended to III–V semiconductors, silicon carbide, metals such as titanium, tantalum, aluminium, molybdenum, nickel and niobium; thin films of manganite in the perovskite form; dielectrics like silicon nitride, organosilane self-assembled monolayers, dendritic macromolecules and carbonaceous films.
• The first type of circuit has a folded waveguide geometry in which anisotropic dielectrics and holey metamaterials are which consist of arrays of subwavelength holes (see image to the right).
• His research interests include dielectrics, ferroelectrics (including relaxors), non-linear optics and electro-optics.
• Andrew Gemant performed research in the areas of: X-ray fluorescence; pH of aqueous solutions; high voltage physics; dielectrics; colloids; acoustics; viscosity and internal friction of solids; electrets; electrochemistry of oils; radioactive tracers in solutions; high voltage cables; oxidative and photochemical ions in hydrocarbons; ion-exchange resins in hydrocarbons; solubilization of cholesterol; carcinogenesis; enzymic oxidative degradation of protein in senescence; and the reduction by chemical means of the reactivity of DNA (deoxyribonucleic acid) toward hydrogen peroxide in order to mitigate symptoms of aging.
• He has made numerous contributions to the fields of ceramics, superconductors, dielectrics, catalysis, thermoelectrics, multiferroics, ionic conductors, and organic synthesis.
• Such systems include ferroelectrics, antiferroelectrics, piezoelectrics, high-k dielectrics, multiferroics, shape-memory compounds, magnetic and nonmagnetic martensites.
• Polydimethylsiloxanes and paraffins were also used as replacements in transformer dielectrics and other electrical uses.
• successfully applied the charge-based BEM with fast multipole acceleration to molecular electrostatics of dielectrics.
• His research has applications in very high field accelerators based on lasers, wakefields, plasmas and dielectrics, as well as the production of radiation in free-electron lasers and Compton scattering sources, with applications ranging from high field pumps for studying non-equilibrium high field phenomena to atomic-molecular level ultra-fast imaging techniques.

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