Abstract:
The present invention relates to a solar cell module (1). The solar cell module includes a flexible solar cell (10) and a shape memory alloy layer (15) having a predetermined trained shape. The flexible solar cell has a first surface (100) configured for receiving solar radiation and a second surface (101) opposite to the first surface. The shape memory alloy layer is attached to the second surface of the flexible solar cell.
Abstract:
A transflective FPD device is provided. The transflective FPD device includes a liquid crystal layer and a transflective layer. The transflective layer includes a matrix made of a transparent material and a plurality of reflective nano-particles. The reflective nano-particles are configured for reflecting ambient light and are dispersed uniformly and randomly in the entire matrix. The transflective layer is adapted for reflecting ambient lights, and as well as for allowing backlight to pass therethrough.
Abstract:
A variable focal length lens (12) includes a central transparent elastic portion (120) having a first wall (1200) and a second wall (1202) intersecting an optical axis and a peripheral portion (122) surrounding the body. The first wall and the second wall joined with the periphery form a container (124). The container is filled with magnetic fluid (126).
Abstract:
A polarizer (2) for a liquid crystal display device includes a polarizer base (21), a first protective layer (20) and a second protective layer (22) on two sides of the polarizer base for protecting the polarizer base, and an anti-reflection layer (25) on the first protective layer. The anti-reflection layer includes a first layer (26), a second layer (27), a third layer (28) and a fourth layer (29) stacked in order. The anti-reflection layer of the polarizer can reduce the reflection of the light irradiated on the polarizer, and the loss of light can be reduced and higher light transmission rate can be achieved.
Abstract:
A coaxial cable (10) includes at least one conducting wire (110), at least one insulting layer (120) coating a respective conducting wire, at least one shielding layer (130) surrounding the at least one insulting layer, and a single sheath (140) wrapping the at least one shielding layer. The shielding layer includes a polymer material (134) and a plurality of carbon nanotubes (132) embedded in the polymer material. The coaxial cable is, advantageously, an electromagnetic interference (EMI) shield cable.
Abstract:
An integrated reproducing/recording apparatus (10) comprises a magnetic reproducing/recording device (11), an optical reproducing/recording device (12) and a spindle (13) located therebetween. The magnetic reproducing/recording device has a magnetic disk (111) with a center hole (113) and a magnetic pickup head (112). The optical reproducing/recording device has an optical disk (121) with a center hole (123) and an optical pickup head (122). The spindle has fixtures at each end thereof. The magnetic disk or the optical disk is selectively fixed on the spindle.
Abstract:
A composite conductor includes a metal matrix and a certain amount of carbon nanotubes. The metal matrix is comprised of a material selected from the group consisting of copper, zinc, silver and any combination alloy thereof. A percentage by mass of the carbon nanotubes is in an approximate range from 0.2 percent to 2 percent. An electrical cable (100) includes an interior composite conductor core (10) and an exterior layer (20). The exterior layer further includes an insulating layer (21), a shielding layer (22) and a protective layer (23). The insulating layer is comprised of nanoclay and Teflon. The shielding layer is comprised of carbon nanotubes, carbon nanotube yarn and copper. The protective layer is comprised of nanoclay.
Abstract:
A surface acoustic wave (SAW) device includes a silicon substrate, a piezoelectric layer on the substrate and two generally comb-shaped electrodes. The thickness of the piezoelectric layer is preferably configured to be in the range from about 0.05 μm to about 2 μm, and the grain size of the piezoelectric layer is preferably configured to be in the range from about 1 nm to about 50 nm. A mobile phone assembled at least two SAW devices therein, and a method for manufacturing a SAW device, are also provided.
Abstract:
An anisotropic conductive film (10) is used for bonding a semiconductor component to a circuit board. The anisotropic conductive film includes an insulative adhesive film (12) and a plurality of nano-scaled conductive particles (14). The nano-scaled conductive particles are dispersed in the insulative adhesive film. The nano-scaled conductive particles are a nanotubes each containing metal particles and polyaniline therein. Because the sizes of the nano-scaled conductive particle are very small, more of the nano-scaled conductive particles can be compressed between two corresponding contacts of the semiconductor component and the circuit board. The interface area between the two corresponding contacts is correspondingly enlarged. In addition, the polyaniline both in the opening and inside of the nanotubes also has a more favorable viscosity. The bonding effect between a semiconductor component and a circuit board is improved.
Abstract:
A lighting device includes a cathode (11), a cover (12), an insulation layer (13), an emitter base (18), a molybdenum tip (19), a phosphor layer (15), an anode (16), and a silicon oxide layer (17). The cover is formed on the cathode. The insulation layer is formed on the cover. The base is formed on the insulation layer. The molybdenum tip is formed on the base. The phosphor layer is spaced apart from the molybdenum tip. The anode is formed on the phosphor layer. The silicon oxide layer is formed on the anode.