98results about How to "Width" patented technology

An electro-optical device includes first and second signal lines that extend in directions for intersecting each other on a component substrate, a pixel area in which a pixel electrode is disposed in correspondence with an intersection of the first and second signal lines, a signal output circuit that is disposed outside the pixel area and outputs a driving signal to the first signal line, and a connection wiring that connects the signal output circuit and the first signal line together. An outer peripheral edge of the pixel area has a curved portion or a bent portion in a portion facing the signal output circuit, and the signal output circuit includes a plurality of circuit blocks, and the circuit blocks are arranged along the curved portion or the bent portion of the portion facing the signal output circuit with deviated between adjacent circuit blocks in the direction of extension of the first signal line and / or the direction of extension of the second signal line.

A fiber optic cable enclosure having a rectangular box with a sliding cover and containing a cable reel disposed and supported therein on protuberances projecting from the bottom of the reel with the side panels of the enclosure supported in C section channels for horizontal sliding intermittent reciprocating motion whereby a cable wound on said reel can be extracted and utilized as a jumper cable for establishing emergency connections in a telecommunications network.

Anode active material particles and an electrolytic solution 16 are filled in an anode cell 12 as one of two vessels connected to each other with an ion-permeable separator 10 interposed therebetween, and cathode active material particles and an electrolytic solution 18 are filled in a cathode cell 14 as the other vessel. Electrically conductive current collectors 20 and 22 are provided in contact with the active material particles within the two vessels. The active material particles form fixed layers.

The present invention is characterized in that gettering is performed such that impurity regions to which a noble gas element is added are formed in a semiconductor film and the metallic element included in the semiconductor film is segregated into the impurity regions by laser annealing. Also, a reflector is provided under a substrate on which a semiconductor film is formed. When laser light transmitted through the semiconductor film substrate is irradiated from the front side of the substrate, the laser beam is reflected by the reflector and thus the laser light can be irradiated to the semiconductor film from the read side thereof. Laser light can be also irradiated to low concentration impurity regions overlapped with a portion the gate electrode. Thus, an effective energy density in the semiconductor film is increased to thereby effect recovery of crystallinity and activation of the impurity element.

A cutting tool is provided which comprises a curved cutting edge at a nose, a pair of straight cutting edges between which the nose is located, and a chamfer extending along the curved cutting edge and the straight cutting edges so as to form a curved ridge at a junction of a portion of the chamfer extending along the curved cutting edge and a tool face. A portion of the chamfer increases in width from a junction of the curved cutting edge and each of the straight cutting edges to a midpoint of the curved cutting edge when observed in plan.

A wind turbine is provided. The wind turbine includes a direct drive generator with a stator arrangement, a rotor arrangement substantially arranged around the stator arrangement and a longitudinal centre axis. The stator arrangement includes a stator support structure, which includes at least one substantially radial extending stator support element. The stator support element is attached to a substantially parallel to the centre axis extending stationary shaft, is substantially rigid in the radial direction and is at least partially in a certain extent flexible in the directions of the centre axis of the generator.

In a particular embodiment, a method includes forming a second hardmask layer adjacent to a first sidewall structure and adjacent to a mandrel of a semiconductor device. A top portion of the mandrel is exposed prior to formation of the second hardmask layer. The method further includes removing the first sidewall structure to expose a first portion of a first hardmask layer. The method also includes etching the first portion of the first hardmask layer to expose a second portion of a dielectric material. The method also includes etching the second portion of the dielectric material to form a first trench. The method also includes forming a first metal structure within the first trench.

Photoelectric conversion elements suitable for various applications and related components, and methods associated therewith, are described. A photoelectric conversion element may include a catalyst layer having at least two portions that are spaced from one another, and a current collector having a tip portion that extends toward or within the space between portions of the catalyst layer. A photoelectric conversion element may also include a semiconductor layer disposed a distance of between about 5 microns and about 20 microns away from the catalyst layer.

A pressure sensor includes: a housing having a pressure introduction port; and a connector case integrated with the housing. The connector case includes: a protruding portion that protrudes in the pressure introduction port along with the introduction direction from one end of the connector case, and has a concavity hollowed in a direction perpendicular to the introduction direction; a sensor chip having a pressure gauge on one surface of the chip in the concavity; a terminal having one end inserted and molded in the connector case; and a bonding wire that electrically connects the sensor chip and the one end of the terminal. The connector case seals a connection portion between the bonding wire and the terminal, a connection portion between the boding wire and the sensor chip, and the bonding wire.

An in-line surge suppressor insert and surge suppressor assembly having a body with a coaxial connection at a first and a second connector end. A surge suppressor insert mount is formed in the body between the first end and the second end adapted to receive a surge suppressor insert with a hollow cap having a top and an open end. A wire wound inductor is seated within the hollow cap. The wire wound inductor is coupled to the top at a first end and has a threaded contact at a second end. A center conductor extending between the first connector end and the second connector end, having a threaded hole proximate the surge suppressor insert mount is adapted to mate with the threaded contact as the surge suppressor insert is mated with the surge suppressor mount, coupling the inner conductor to the outer conductor via the wire wound inductor.

In a hybrid transmission, input and output side motor / generators (MG1, MG2) and input and output portions (In, Out) are coupled to two sets of the differential units (G1, G2) in such a manner that, under a selection of a first predetermined gear ratio, in a revolution speed order, the input side motor / generator (MG1), the input portion (In) from a prime mover (engine), the output portion (Out) toward a vehicular drive system, and the output side motor / generator (MG2) are coupled to the respective revolvable elements of the two sets of the differential units (G1, G2) and the output side motor / generator is coupled to any one of the revolvable elements of the two sets of the differential units including those revolvable elements thereof which do not contribute to a revolution of the output portion.

A hair extension includes a section of hair and a substrate. Hair strands of the section of hair are affixed together at a first end by a solidified liquid polymer such that ends of the hair strands are retained within the polymer across a width of the section of hair. The substrate is attached to the polymer on one side (e.g., a rear side) of the section of hair across at least part of a width of the hair section. According to one exemplary embodiment, the substrate is also a solidified polymer. The width of the substrate, as measured along a length of the extension's section of hair, is substantially greater than a width of the polymer, as similarly measured. The wider substrate facilitates reliable attachment of the extension to the user's hair, while the narrower polymer enables the installed extension to remain virtually undetectable.

Described is a lubricating device with at least one lubricating pinion for applying a lubricant, in particular grease, which is for example fed through a lubricant line by a lubricant pump from a reservoir, to at least one gearwheel or the like, wherein the lubricating pinion has an outer toothing into which at least one lubricant outlet opens out. The teeth of the outer toothing of the lubricating pinion have a shortened tooth flank profile in relation to an involute toothing, wherein the addendum and / or the width of the tooth flanks in the peripheral direction are reduced in a tooth flank section which is situated radially outside the reference circle.

A floor mop has two mop supporting wings, which carry an absorbent mop layer and are hinge-connected to a common supporting centerpiece. A mop handle is hinge-mounted to the supporting centerpiece via a Cardan joint. A squeezing slider, which is displaceable along the mop handle and is guided non-rotatably, has two rigid squeezing arms whose ends can each be brought into engagement with a guide surface on the upper side of the respectively assigned mop supporting wings via rollers. Each mop supporting wing forms a rectangular trapezium or triangle. The edges running at right angles to the hinge edge of each mop supporting wing form a common straight continuous front edge.

An X-ray source device includes a substrate, a cathode electrode on the substrate, an emitter on the cathode electrode, an insulation body around the cathode electrode, a gate electrode on the insulation body, a first secondary electron emission layer at a side wall of the gate electrode and emitting secondary electrons upon collision with an electron beam emitted by the emitter, and an anode electrode separated from the gate electrode.

A nonvolatile semiconductor memory device according to an exemplary embodiment of the present invention including, a first gate electrode formed above a semiconductor substrate via a first insulating film, having a projecting part which projects in upper direction with a certain width; a second gate electrode formed beside a side surface of the first gate electrode via a second insulating film; two side walls having insulation properties formed on a side surface of the second gate electrode and a side surface of the projecting part respectively; and a silicide layer formed on an upper surface of the projecting part and a part of a surface of the second gate electrode, wherein a width of the projecting part is smaller than a width of the first gate electrode below the projecting part.

Camera methods and apparatus are described where the camera device includes multiple optical chains. In various embodiments two or more of the optical chains include light redirection devices such as mirrors or prisms. Sensors corresponding to multiple different optical chains, but not necessarily all optical chains, are parallel to each other. In some embodiments sensors corresponding to different optical chains are located in the same plane at the front or rear of the camera. However other sensor mounting positions are also possible.

An apparatus for adjusting a print width in a POS printer, such as a facsimile or a printer, in which the paper is wound in the form of a roll, so that the printer can selectively use various types of paper that is be supplied thereto. The apparatus includes a paper guide, the position of which is adjustable depending on the width size of a paper to be supplied, and a contact switching means for detecting the width of the paper. The apparatus automatically detects the width of the paper with a simple operation in which the paper is inserted between or taken out of the printer, and thus automatically sets the print width to be the same as the width of the paper, so that printing is performed on the paper.

A step is provided between a substrate surface of a select gate and a substrate surface of a memory gate. When the substrate surface of the select gate is lower than the substrate surface of the memory gate, electrons in a channel upon writing obliquely flow in the step portion. Even if the electrons obtain the energy required for passing a barrier during the oblique flow, the electron injection does not occur because electrons are away from the substrate surface. The injection can occur only on a drain region side from a position where the electrons reach the substrate surface. As a result, the injection of the electrons into a gap region is suppressed, so that the electron distribution comes close to the hole distribution. Therefore, variation in a threshold value upon information retention is suppressed, and information-retaining characteristics of a memory cell are improved.

To provide a biochip, a biochip manufacturing method, an electrophoresis method, and an electrophoresis apparatus, by which the detection accuracy may improve, there is a biochip introducing a sample in band form into a sample separation passage, by a means for reducing the band width of sample, at which the sample is before being introduced in the sample separation passage in band form. The band of sample supplied to the sample separation passage is compressed, and the expansion by diffusion may be prevented, thus the detection accuracy may improve.

The semiconductor laser device includes first and second light emitting portions each including a first cladding layer, an active layer and a second cladding layer, and each having a stripe structure. The stripe structure of the first light emitting portion has a section having a width changing along a resonator direction and includes a first front end face, and relationships of Wf1≧W1; W1>W2; and (Wf1−W1) / 2L1<(W1−W2) / 2L2 hold wherein Wf1 is a width on the first front end face; W1 is a width in a position away from the first front end face by a distance L1; and W2 is a width in a position away from said the front end face by a distance L1+L2 (whereas L1+L2≦L). The stripe structure of the second first light emitting portion has a section having a width changing along a resonator direction and includes a second front end face, and relationships of Wf2≧W3; W3>W4; and (Wf2−W3) / 2L3<(W3−W4) / 2L4 hold wherein Wf2 is a width on the second front end face; W1 is a width in a position away from the second front end face by a distance L3 (whereas L1≠L3); and W4 is a width in a position away from the second front end face by a distance L3+L4.

The invention discloses a spiral electrical connection device and a slide-type electronic device therewith. The slide-type electronic device includes a base, a cover, and the spiral electrical connection device. The cover is slidably connected to the base. The spiral electrical connection device includes an electrical connection member having a first end and a second end and two connecting portions. The two connecting portions are connected to the first end and the second end of the electrical connection member, respectively. The connecting portions are electrically connected to each other via the electrical connection member, and they are connected to the cover and the base, respectively. The electrical connection member winds around a winding direction to the first end. When the cover moves away from the base, the electrical connection member extends. When the cover moves toward the base, the electrical connection member gathers around.