mhurhangee/ep-ind-claims huggingface dataset:
A solid state image sensor having a readout architecture that incorporates a charge multiplier, said image sensor including: a first CCD register (106a, 307) adjacent to at least a second CCD register (106b, 308) coupled to the first register through a charge overflow barrier, the first CCD register being coupled to receive charge from the charge multiplier, and wherein the width of the charge multiplier increases correspondingly to the increasing amount of charge depending on the number of CCD stages that include charge multiplication devices. a first CCD register (106a, 307) adjacent to at least a second CCD register (106b, 308) coupled to the first register through a charge overflow barrier, the first CCD register being coupled to receive charge from the charge multiplier, and wherein the width of the charge multiplier increases correspondingly to the increasing amount of charge depending on the number of CCD stages that include charge multiplication devices.
An implantable bone anchor assembly comprising: an outer anchor tube defining a longitudinal axis of the bone anchor assembly and a longitudinal channel, the outer anchor tube comprising a plurality of fingers circumferentially spaced from one another about the longitudinal axis, each of the fingers having a free end; wherein the fingers are configured to project laterally outwardly at an angle relative to the longitudinal axis; and wherein the fingers are configured to self-expand radially outwardly and are configured to be deflectable radially inwardly for deployment; and an insert comprising a bore, the insert comprising a head and a shank, wherein the shank extends through the longitudinal channel of the outer anchor tube, wherein the bore of the insert extends from an opening in the head of the insert to a second opening in the shank located generally opposite the head; wherein the outer anchor tube is secured to the insert by insertion of the shank into the longitudinal channel of the outer anchor tube; characterised in that a suture element extends within the bore of the insert from the opening in the head of the insert to and proximally through the second opening, wherein the suture element is configured to engage the insert and resist withdrawal of the suture element from the bore of the insert after implantation. an outer anchor tube defining a longitudinal axis of the bone anchor assembly and a longitudinal channel, the outer anchor tube comprising a plurality of fingers circumferentially spaced from one another about the longitudinal axis, each of the fingers having a free end; wherein the fingers are configured to project laterally outwardly at an angle relative to the longitudinal axis; and wherein the fingers are configured to self-expand radially outwardly and are configured to be deflectable radially inwardly for deployment; and an insert comprising a bore, the insert comprising a head and a shank, wherein the shank extends through the longitudinal channel of the outer anchor tube, wherein the bore of the insert extends from an opening in the head of the insert to a second opening in the shank located generally opposite the head; wherein the outer anchor tube is secured to the insert by insertion of the shank into the longitudinal channel of the outer anchor tube; characterised in that a suture element extends within the bore of the insert from the opening in the head of the insert to and proximally through the second opening, wherein the suture element is configured to engage the insert and resist withdrawal of the suture element from the bore of the insert after implantation.
A shield housing for shielding interconnect structures and/or components disposed on a circuit board, wherein at least two antenna radiators with corresponding feed can be disposed on the shield housing (1, 11), and wherein the shield housing is configured in such a manner that it can cover the interconnect structures and/or components disposed on the circuit board, at least in part, - can be connected with a ground surface of the circuit board, and has a region between the antenna radiators, which is configured in such a manner that it provides electrical decoupling of the feed of the antenna radiators from one another, wherein the region between the antenna radiators is a region in the center of the shield housing (1, 11), which region is configured as an opening having folded areas around the opening in the shield housing (1, 11), and/or wherein the shield housing (1, 11) has recesses for placement of the at least two antenna radiators, wherein the shield housing has a structure that is deep-drawn from it, having at least one pin disposed on it for contacting the ground surface of the circuit board in a connecting region in which the inner conductor of each antenna radiator is connected with the circuit board. - can be connected with a ground surface of the circuit board, and has a region between the antenna radiators, which is configured in such a manner that it provides electrical decoupling of the feed of the antenna radiators from one another,
A method for arc or beam welding/brazing of workpieces made of steel, cast iron, nickel, cadmium, beryllium, titanium, molybdenum, magnesium, aluminum, copper, lead, zinc, tin, hard metal and alloys thereof with workpieces made of steel, cast iron, nickel, cadmium, beryllium, titanium, molybdenum, magnesium, aluminum, copper, lead, zinc, tin, hard metal and alloys thereof, wherein said workpieces and may consist of identical or different metals or metal alloys, using a fused additional metal alloy, comprising the step: a) positioning the workpieces to be joined; and characterized by these further steps: b) fusing the additional metal alloy consisting of an SnZn, SnZnAg, SnCu, SnCuAg, SnZnCu or SnZnCuAg alloy with a level of up to 55 wt% zinc and/or a level of up to 5 wt-% copper and/or up to 5 wt% Ag which, in addition to normal impurities, may include one or more of the following alloying additives as single components or in combination: up to 5 wt% Ti, up to 2000 ppm Li, up to 5000 ppm Bi, up to 5000 ppm Ce, and up to 5000 ppm Ga, c) applying the fused additional metal alloy on the contact surfaces or partial areas of the contact surfaces between the positioned workpieces; and d) cooling the joined workpieces; steps b) and c) being carried out one immediately after the other. a) positioning the workpieces to be joined; and characterized by these further steps: b) fusing the additional metal alloy consisting of an SnZn, SnZnAg, SnCu, SnCuAg, SnZnCu or SnZnCuAg alloy with a level of up to 55 wt% zinc and/or a level of up to 5 wt-% copper and/or up to 5 wt% Ag which, in addition to normal impurities, may include one or more of the following alloying additives as single components or in combination: up to 5 wt% Ti, up to 2000 ppm Li, up to 5000 ppm Bi, up to 5000 ppm Ce, and up to 5000 ppm Ga, c) applying the fused additional metal alloy on the contact surfaces or partial areas of the contact surfaces between the positioned workpieces; and d) cooling the joined workpieces;
A closure device for doors; comprising: - a movable bolt made of ferromagnetic material, assembled in the door frame, and provided with a spring pushing it to a retracted position and, - an electric door opener assembled in the door leaf, opposite the bolt and comprising: - a rotary latch provided with a rear body assembled on a rotating shaft, and with a front body, fixed to a front face of the rear body, the height of which can be adjusted by means of screws, and defining a front cavity; - an electromechanical mechanism for the locking and unlocking of the latch in a closing position; and - magnetic means which magnetically attract the bolt to a locking position inside the front cavity of the latch of the door opener in the closing position of the door; characterised in that the magnetic means, which are in charge of moving the bolt into the front cavity of the latch, are located in a visible position on the front face of the front body of the latch in the closing position of the door and are directly opposite the movable bolt, without any element interposed between same, in the closing position of the door. - a movable bolt made of ferromagnetic material, assembled in the door frame, and provided with a spring pushing it to a retracted position and, - an electric door opener assembled in the door leaf, opposite the bolt and comprising: - a rotary latch provided with a rear body assembled on a rotating shaft, and with a front body, fixed to a front face of the rear body, the height of which can be adjusted by means of screws, and defining a front cavity; - an electromechanical mechanism for the locking and unlocking of the latch in a closing position; and - magnetic means which magnetically attract the bolt to a locking position inside the front cavity of the latch of the door opener in the closing position of the door; - a rotary latch provided with a rear body assembled on a rotating shaft, and with a front body, fixed to a front face of the rear body, the height of which can be adjusted by means of screws, and defining a front cavity; - an electromechanical mechanism for the locking and unlocking of the latch in a closing position; and - magnetic means which magnetically attract the bolt to a locking position inside the front cavity of the latch of the door opener in the closing position of the door;
A marking device, comprising: a planar marking blade having a longitudinally extending marking edge, wherein at least a portion of the marking edge is made of a marking material that makes legible marks on various surfaces, wherein the marking material is one of graphite, chalk, clay, coloring pigment, or ink or a combination thereof, wherein the planar marking blade comprises one or more cut-outs or notches configured to receive an alignment tab or positioning member of a support frame, and the planar marking blade comprises a plurality of blade sections which can be broken to release a fresh marking edge.
A device for powering and cooling a light source, comprising: a power source configured to supply power to the light source; a plurality of cooling devices arranged corresponding to a plurality of regions of the light source and configured to cool the plurality of regions, respectively; and a cooling control circuit configured to control the plurality of cooling devices, wherein the cooling control circuit includes: a plurality of output circuits configured to supply drive voltages to the plurality of cooling devices by use of power from the power source to drive the plurality of cooling devices, respectively; a plurality of temperature measurement circuits configured to respectively measure temperatures of the plurality of regions; and an output control circuit configured to regulate the drive voltages respectively supplied from the plurality of output circuits based on the temperatures respectively measured by the plurality of temperature measurement circuits, characterized in that the output control circuit is configured to control the plurality of output circuits so as to reduce a difference between two temperatures selected from the temperatures respectively measured by the plurality of temperature measurement circuits. a power source configured to supply power to the light source; a plurality of cooling devices arranged corresponding to a plurality of regions of the light source and configured to cool the plurality of regions, respectively; and a cooling control circuit configured to control the plurality of cooling devices, wherein the cooling control circuit includes: a plurality of output circuits configured to supply drive voltages to the plurality of cooling devices by use of power from the power source to drive the plurality of cooling devices, respectively; a plurality of temperature measurement circuits configured to respectively measure temperatures of the plurality of regions; and an output control circuit configured to regulate the drive voltages respectively supplied from the plurality of output circuits based on the temperatures respectively measured by the plurality of temperature measurement circuits, a plurality of output circuits configured to supply drive voltages to the plurality of cooling devices by use of power from the power source to drive the plurality of cooling devices, respectively; a plurality of temperature measurement circuits configured to respectively measure temperatures of the plurality of regions; and an output control circuit configured to regulate the drive voltages respectively supplied from the plurality of output circuits based on the temperatures respectively measured by the plurality of temperature measurement circuits, characterized in that the output control circuit is configured to control the plurality of output circuits so as to reduce a difference between two temperatures selected from the temperatures respectively measured by the plurality of temperature measurement circuits.
A method for preparing a cross-polarization cancelling optical film for an optical article comprising: providing a film having at least a first section comprising a first edge, a second section comprising a second edge, a predetermined color intensity, and a thickness; providing an apparatus, wherein the apparatus comprises at least a first roller and a second roller, wherein the first roller and the second roller are configured to stretch at least a portion of the film; and continuously and asymmetrically stretching at least a portion of the film using the apparatus, while substantially maintaining the color intensity of the film. providing a film having at least a first section comprising a first edge, a second section comprising a second edge, a predetermined color intensity, and a thickness; providing an apparatus, wherein the apparatus comprises at least a first roller and a second roller, wherein the first roller and the second roller are configured to stretch at least a portion of the film; and continuously and asymmetrically stretching at least a portion of the film using the apparatus, while substantially maintaining the color intensity of the film.
High-pressure roller press for high-pressure comminution of material to be comminuted in a roller gap, having - two counter-rotating rollers (1, 2) which configure a roller gap through which the material to be comminuted passes upon comminution at high pressure, a rupture in the structure of the material to be comminuted thereby being configured in the roller gap; - a feeding device which feeds the material to be comminuted uniformly onto the roller gap, the volume of the fed material to be comminuted thereby configuring a compaction zone (4.1) above the roller gap, wherein a deaeration device for deaerating the material to be comminuted is disposed directly above the compaction zone (4.1), characterized in that a line for auxiliary comminution liquid for the humidification of the material to be comminuted furthermore reaches into the volume of the fed material to be comminuted and extends into the deaeration device. - two counter-rotating rollers (1, 2) which configure a roller gap through which the material to be comminuted passes upon comminution at high pressure, a rupture in the structure of the material to be comminuted thereby being configured in the roller gap; - a feeding device which feeds the material to be comminuted uniformly onto the roller gap, the volume of the fed material to be comminuted thereby configuring a compaction zone (4.1) above the roller gap,
A plate heat exchanger in which a plurality of heat transfer plates each provided with a passage hole in each corner are stacked in an upright posture; a flow-path forming gasket is interposed between peripheries of each adjacent ones of the heat transfer plates; communicating-path forming gaskets (32a, 32b) are installed, surrounding the passage holes in each adjacent ones of the heat transfer plates alternately; and thereby a first flow path adapted to pass a high-temperature fluid, a second flow path adapted to pass a low-temperature fluid, and communicating paths (21, 22) adapted to cause the high-temperature fluid and the low-temperature fluid, respectively, to flow in and out of the first flow path and the second flow path are formed alternately on opposite sides of each of the heat transfer plates, wherein the flow-path forming gasket is made up of an inner gasket member and an outer gasket member arranged in two parallel lines, wherein each of the heat transfer plates is double-grooved to correspond to the inner gasket member and the outer gasket member arranged in two parallel lines, wherein the heat transfer plates have a drain hole formed between the inner gasket member and the outer gasket member of the flow-path forming gasket in a lower part of each of the heat transfer plates, characterised in that the outer gasket member and the inner gasket member are arranged to extend substantially entirely in parallel lines, and wherein the outer gasket member is arranged to pass through between the inner gasket member and the communicating-path forming gaskets (32a, 32b).
A medium transport apparatus comprising: an apparatus main body including a medium transport path from a supply unit, which supplies a medium, to a discharge unit, which discharges the medium; a switcher that switches an attitude of the apparatus main body with respect to a mounting surface on which the apparatus main body is mounted; a detection unit (44a, 44b, 44c) that detects the attitude of the apparatus main body; and a controller that, when the attitude of the apparatus main body with respect to the mounting surface is switched, performs control in accordance with the attitude after the switching based on a detection result of the detection unit, wherein the attitude of the apparatus main body includes a first attitude in which a discharge direction of the medium from the medium transport path takes a first inclination angle (Θ1) with respect to the mounting surface, wherein the switcher is configured to switch the apparatus main body to a second attitude in which the discharge direction takes a second inclination angle (Θ3) that is closer to a horizontal angle than is the first inclination angle with respect to the mounting surface or in which the discharge direction is horizontal, and wherein the apparatus main body includes, at a top portion thereof, a displayer that displays content related to apparatus operation, and characterized in that: the controller, when the apparatus main body is in the first attitude, sets a display on the displayer to a first orientation in which the display is read, in plan view of the apparatus main body, with downstream down and upstream up in the discharge direction, and, when the apparatus main body is in the second attitude, sets the display on the displayer to a second orientation rotated clockwise or counterclockwise 90° from the first orientation. an apparatus main body including a medium transport path from a supply unit, which supplies a medium, to a discharge unit, which discharges the medium; a switcher that switches an attitude of the apparatus main body with respect to a mounting surface on which the apparatus main body is mounted; a detection unit (44a, 44b, 44c) that detects the attitude of the apparatus main body; and a controller that, when the attitude of the apparatus main body with respect to the mounting surface is switched, performs control in accordance with the attitude after the switching based on a detection result of the detection unit, wherein the attitude of the apparatus main body includes a first attitude in which a discharge direction of the medium from the medium transport path takes a first inclination angle (Θ1) with respect to the mounting surface, wherein the switcher is configured to switch the apparatus main body to a second attitude in which the discharge direction takes a second inclination angle (Θ3) that is closer to a horizontal angle than is the first inclination angle with respect to the mounting surface or in which the discharge direction is horizontal, and wherein the apparatus main body includes, at a top portion thereof, a displayer that displays content related to apparatus operation, and
A multi-sided controlling device, comprising: a housing (300, 302, 304) having a first side and a second side, wherein the first side has a first set of activable key elements and the second side has a second set of activable key elements, a first IR transmitter and a second IR transmitter; and a processing device having associated programming which is configured to use a received signal to select a single one of the first IR transmitter and the second IR transmitter and which is configured to cause the selected single one of the first IR transmitter and the second IR transmitter to generate an IR transmission signal corresponding to an activated one or more of the first set of activable key elements of the first side of the housing or an activated one or more of the second set of activable key elements of the second side of the housing; and a sensor, coupled to the processing device, for generating the received signal whereby the processing device uses the received signal to select the single one of the first IR transmitter and the second IR transmitter, characterized in that the sensor comprises an orientation sensor. a housing (300, 302, 304) having a first side and a second side, wherein the first side has a first set of activable key elements and the second side has a second set of activable key elements, a first IR transmitter and a second IR transmitter; and a processing device having associated programming which is configured to use a received signal to select a single one of the first IR transmitter and the second IR transmitter and which is configured to cause the selected single one of the first IR transmitter and the second IR transmitter to generate an IR transmission signal corresponding to an activated one or more of the first set of activable key elements of the first side of the housing or an activated one or more of the second set of activable key elements of the second side of the housing; and a sensor, coupled to the processing device, for generating the received signal whereby the processing device uses the received signal to select the single one of the first IR transmitter and the second IR transmitter, characterized in that the sensor comprises an orientation sensor.
An aqueous dispersion characterized by dispersedly containing a carboxyl group-containing chlorinated propylenic random copolymer produced with a metallocene catalyst and another α-olefin as a comonomer, with a chlorine content of 5 to 40 % by weight, a grafting level of α,β-unsaturated carboxylic acid or its anhydride of 0.1 to 20 % by weight, based on raw material propylenic random copolymer, and a stabilizer, wherein the carboxyl group-containing chlorinated propylenic random copolymer has a weight average molecular weight of 10,000 to 300,000, wherein the raw material propylenic random copolymer has a melting point of 115 to 165 °C as measured by differential scanning calorimetry, and wherein the stabilizer is an epoxy compound used in an amount of 0.1 to 10 % by weight based on the weight of carboxyl group-containing chlorinated propylenic random copolymer.
A rail vehicle body extending in a longitudinal direction and having, when seen perpendicular to the longitudinal direction, a substantially constant main cross-sectional profile along the longitudinal direction, the rail vehicle body comprising an upper part and a lower part, the lower part tapering towards the bottom of the rail vehicle body, characterized in that the rail vehicle body comprises at least one local widening structure projecting beyond the main cross-sectional profile in a given region of the rail vehicle body to provide more interior space for a piece of equipment, particularly for a passenger toilet compartment, wherein the local widening structure of the rail vehicle body is provided in the lower part of the rail vehicle body.