Shrinkage behavior of various stacking configurations consisting of three dissimilar dielectric tapes with different dielectric constants of k ∼ 8.2, 14.8 and 48.2 were investigated.
Contrarily, the permeability of integrated, Bi2O3-free ferrite layers, co-fired with dielectric tapes, is identical to that of monolithic ferrite multilayers.
The three concentric superconducting phases are made of BSCCO-2223 Htapespeseparatedted by layers of cold-dielectric tape.
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Configuration I involves aluminum foil as the electrode and a stack of 3 layers of double-sided adhesive tape as the dielectric film; no pressure is used.
In this work, dielectric properties of a VHB 4905 tape with different prestrains were studied using low-field broadband dielectric spectroscopy and high-field electric displacement-electric field loop measurements.
The results provided interesting insights for tailoring the structural and dielectric properties of the multilayered bismuth titanate ceramic tapes, placing them as a promising candidate fulfilling the needs in a wide variety of technological applications.
A site-selective hydrophilic pattern on a dielectric polymer surface was obtained through plasma surface treatment with an adhesive tape mask, thereby achieving a selective wetting pattern of electrolyte solution on a 2D flat and even 3D curved polymer surface.
Slip viscosity, mechanical properties of the green tapes, green and sintered density of K-squares, and dielectric permittivity were analyzed as output responses using statistical analysis methods.
This enables process design for tape which can be used in devices with true integration of dielectric and piezoelectric, ferroelectric and ferromagnetic layers in 3-dimensional multilayer structures.
A multilayer dielectric composite with a compositional gradient and temperature-stable characteristic was successfully prepared through the conventional tape casting technique.
