Abstract: An integrated FinFET and deep trench capacitor structure and methods of manufacture are disclosed. The method includes forming at least one deep trench capacitor in a silicon on insulator (SOI) substrate. The method further includes simultaneously forming polysilicon fins from material of the at least one deep trench capacitor and SOI fins from the SOI substrate. The method further includes forming an insulator layer on the polysilicon fins. The method further includes forming gate structures over the SOI fins and the insulator layer on the polysilicon fins.

Abstract: After forming a laterally contacting pair of a semiconductor fin and a conductive strap structure having a base portion vertically contacting a deep trench capacitor embedded in a substrate and a fin portion laterally contacting the semiconductor fin, conducting spikes that are formed on the sidewalls of the deep trench are removed or pushed deeper into the deep trench. Subsequently, a dielectric cap that inhibits epitaxial growth of a semiconductor material thereon is formed over at least a portion of the base portion of the conductive strap structure. The dielectric cap can be formed either over an entirety of the base portion having a stepped structure or on a distal portion of the base portion.

Abstract: The present invention provides a reflective flexible liquid crystal display, which includes: an upper flexible substrate (1), a lower flexible substrate (3) arranged opposite to the upper flexible substrate (1), a layer of liquid crystal (5) filled between the upper flexible substrate (1) and the lower flexible substrate (3), a circular polarization sheet (7) arranged on an upper surface of the upper flexible substrate (1), and a flexible light guide plate (9) arranged on an upper surface of the circular polarization sheet (7). The upper flexible substrate (1) and the flexible light guide plate (9) are both transparent and the lower flexible substrate (3) includes a reflector layer (37) formed thereon. The reflective flexible liquid crystal display has a simple structure, allowing the liquid crystal display to be applied to flexible displaying.

Abstract: A power tool chuck includes at least one claw portion movable from a first position spaced apart from a centerline of the chuck toward a second position located closer to the centerline. The power tool chuck also includes a collar configured such that as the collar moves from a third position to a fourth position, the at least one claw portion is forced from the first position toward the second position. The power tool chuck also includes a locking member movable between a fifth position whereat the locking member locks the collar in the third position and a sixth position whereat the locking member does not lock the collar. The power tool chuck also includes a button movable between a seventh position whereat the locking member is forced into the fifth position and an eighth position whereat the locking member is free to move into the sixth position.

Abstract: The present invention provides a pixel electrode and a liquid crystal display panel. The pixel electrode comprises a rectangular frame (40), a plurality of first strip pixel electrode branches (41), a plurality of second strip pixel electrode branches (42), a plurality of third strip pixel electrode branches (43) and a plurality of fourth strip pixel electrode branches (44), which are inside the rectangular frame (40), and connected with the rectangular frame (40), and because the pixel electrode does not including the (cross) keel, it is capable of solving the issue that the (cross) keel part of the pixel electrode causes the penetration rate reduction of the liquid crystal display panel to promote the penetration rate of the liquid crystal display panel for reducing the demand to the backlight brightness of the liquid crystal display panel and the usage power consumption.

Abstract: The present invention provides a vertical alignment liquid crystal display, improving the present liquid crystal display of which the vertical alignment is implemented to the liquid crystal molecules with auxiliary alignment agent, and by forming the passivation layer (26) and a contact layer of the pixel electrode (27) to be oxide layers of which the surface property is similar with the pixel electrode; or by forming a flat layer (28) covering the pixel electrode (27), an acting force of the auxiliary alignment agent (31) dissolved in the liquid crystal layer (3) and the surface of the TFT substrate (2) is homogenized to solve the defect problems of aligning force difference and bright, dark lines display caused by the patterning of the pixel electrode (27).

Abstract: The present invention provides a manufacture method of a flexible liquid crystal panel and a flexible liquid crystal panel.

Abstract: A display device, an optical film and a manufacturing equipment thereof are provided. The optical film includes an optical layer. The optical layer includes: a first light-transmissive portion having mutually parallel light incident surface and light exit surface, and second light-transmissive portions distributed in the first light-transmissive portion. The first light-transmissive portion and the second light-transmissive portions have different refractive indexes. A contact surface of each of the second light-transmissive portions with the first light-transmissive portion includes an inclined surface neither parallel nor perpendicular to the light incident surface of the first light-transmissive portion, and at least a part of light rays perpendicularly incident from the light incident surface does not strike on the inclined surface and exits from the light exit surface. By the above solution, the invention can reduce image blurriness while enlarging viewing angle.

Abstract: The present invention provides a flexible liquid crystal panel and a manufacture method thereof.

Abstract: A display panel and a thin film transistor (TFT) array substrate are disclosed. A peripheral electrode, a first bar-shaped electrode array, a second bar-shaped electrode array, a third bar-shaped electrode array, and a fourth bar-shaped electrode array are included in a pixel electrode in the display panel. The first bar-shaped electrode array, the second bar-shaped electrode array, the third bar-shaped electrode array, and the fourth bar-shaped electrode array respectively are disposed on a first area, a second area, a third area, and a fourth area which are surrounded by the peripheral electrode. The peripheral electrode connects with the first bar-shaped electrode array, the second bar-shaped electrode array, the third bar-shaped electrode array, and the fourth bar-shaped electrode array. The penetration rate of a pixel unit can be improved by the present invention.

Abstract: The present invention provides a color liquid crystal display panel and a manufacturing method thereof. The color liquid crystal display panel includes: a first substrate (2), a second substrate (3), and dye-doped liquid crystal layers (4) hermetically sealed between the first substrate (2) and the second substrate (3). The dye-doped liquid crystal layers (4) each include a liquid crystal material, a chiral dopant, and at least one dichroic dye. Each of the dichroic dyes absorbs a light of a predetermined wavelength range.

Abstract: A golf club component, such as a golf club head and/or a golf club shaft, can comprise a golf club component substrate having an outer layer of titanium carbide, typically comprising at least forty percent (40%) carbon content. Alternatively, a golf club component can comprise a golf club component substrate, at least a portion of which is enveloped by a first coating layer of, for example, electroplated nickel, a second coating layer of, for example, electroplated chromium or palladium, and a third coating layer of titanium carbide applied by physical vapor deposition. The titanium carbide layer is durable and can provide the golf club component with a desired aesthetic appearance, such as a black color. Additionally, the golf club component can be coated with a fourth coating layer, such as a layer comprising a sealant or clear coat material.

Abstract: The present invention provides a color liquid crystal display panel and a manufacturing method thereof, in which red, green, and blue sub-pixels are formed by means of a black matrix barrier and dye-doped liquid crystal layers that contain dichroic dyes so that the manufacturing process is reduced, the structure is simple, and the cost is low. In addition, there is no need to manufacture a conventional color filter substrate and there is no need to include a conventionally used polarizer thereby simplifying the manufacturing process of a liquid crystal display panel, lowering down the manufacturing cost of the liquid crystal display panel, reducing the required backlighting brightness, and enhancing light transmittal and optic efficiency.

Abstract: The present invention provides a liquid crystal panel and a manufacturing method thereof. The liquid crystal panel is used for a field sequence color display mode and includes a first substrate (1), a second substrate (2), a liquid crystal layer (3), an upper polarizer (11) arranged on a surface of the first substrate (1) distant from the liquid crystal layer (3), a lower polarizer (21) arranged on a surface of the second substrate (2) distant from the liquid crystal layer (3), and a comb electrode (22) arranged on a surface of the second substrate (2) adjacent to the liquid crystal layer (3). The liquid crystal layer (3) is of a polymer-dispersed liquid crystal structure and includes a polymer layer (32) and liquid crystal drops (31) dispersed in the polymer layer (32). The upper polarizer (11) and the lower polarizer (21) have axes that are perpendicular to each other and are each slanted with respect to the comb electrode (22).

Abstract: A method including forming a deep trench in a semiconductor-on-insulator substrate including an SOI layer directly on top of a buried oxide layer directly on top of a base substrate, masking only a top surface of the SOI layer and a sidewall of the SOI layer exposed within an upper portion of the deep trench with a dielectric material without masking any surface of the base substrate exposed within a lower portion of the deep trench, and forming a bottle shaped trench by etching the base substrate exposed in the lower portion of the deep trench selective to the dielectric material and the buried oxide layer.

Abstract: Isolated monoclonal antibodies are disclosed herein that specifically bind endoplasmin. In some embodiments these antibodies are fully human. Recombinant nucleic acids encoding these antibodies, expression vectors including these nucleic acids, and host cells transformed with these expression vectors are also disclosed herein. In several embodiments the disclosed antibodies are of use for detecting and/or treating tumors that express endoplasmin, such as melanoma, breast cancer, head and neck squamous cell carcinoma, renal cancer, lung cancer, glioma, bladder cancer, ovarian cancer or pancreatic cancer. In one example, the tumor is a melanoma.

Abstract: A color liquid crystal display panel includes: a plurality of layers of liquid crystal cells that are arranged parallel to each other and bonding members bonding the plurality of layers of liquid crystal cells. Each of the liquid crystal cells includes a thin-film transistor substrate, a package substrate, and a dye-doped liquid crystal layer sealed between the thin-film transistor substrate and the package substrate. The dye-liquid crystal layer includes a liquid crystal material, a dichroic dye, and a chiral reagent. The dichroic dye of each of the liquid crystal cells absorbs light of a predetermined range of wavelength. The plurality of layers of liquid crystal cell respectively absorbs lights of different ranges of wavelength. The color liquid crystal display panel requires no conventionally used polarizer and color filter, so that the manufacture cost of and the requirement for backlighting brightness by the liquid crystal display panel can both be reduced.

Abstract: The present invention provides a color liquid crystal display panel, which includes: a plurality of mutually parallel layers of liquid crystal cells (2) and bonding members (8) bonding the plurality of layers of liquid crystal cells (2). Each of the liquid crystal cells (2) includes a thin-film transistor substrate (20), a package substrate (30), and a dye-liquid crystal layer (40) sealed between the thin-film transistor substrate (20) and the package substrate (30). The dye-liquid crystal layer (40) includes a liquid crystal material and a dichroic dye. The dichroic dye of each of the liquid crystal cells (2) absorbs light of a predetermined range of wavelength. The plurality of layers of liquid crystal cells (2) respectively absorbs lights of different ranges of wavelength.

Abstract: A conductive strap structure in lateral contact with a top semiconductor layer is formed on an inner electrode of a deep trench capacitor. A cavity overlying the conductive strap structure is filled a dielectric material to form a dielectric capacitor cap having a top surface that is coplanar with a topmost surface of an upper pad layer. A semiconductor mandrel in lateral contact with the dielectric capacitor cap is formed. The combination of the dielectric capacitor cap and the semiconductor mandrel is employed as a protruding structure around which a fin-defining spacer is formed. The semiconductor mandrel is removed, and the fin-defining spacer is employed as an etch mask in an etch process that etches a lower pad layer and the top semiconductor layer to form a semiconductor fin that laterally wraps around the conductive strap structure. An access finFET is formed employing two parallel portions of the semiconductor fin.

Abstract: An integrated FinFET and deep trench capacitor structure and methods of manufacture are provided. The method includes forming a plurality of fin structures from a substrate material. The method further includes forming a deep trench capacitor structure, contacting at least selected fin structures. The method further includes forming a liner over the deep trench capacitor structure. The method further includes forming replacement gate structures with the liner over the deep trench capacitor structure protecting the deep trench capacitor structure during deposition and etching processes.