mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device including a body chassis and a display chassis that are joined by and openably and closably supported by a pair of joining parts , the display chassis including a display screen to display an image , comprising: - an angle detection part configured to detect the opening angle between the body chassis and the display chassis; - a flat mode determination part configured to determine whether the opening angle is an angle that corresponds to the flat mode; - an image rotation control part configured to, when the opening angle is an angle that corresponds to the flat mode, rotate the image as a whole by a predetermined rotation angle; and - a timing detection unit configured to, when the image is rotated, detect an input-start timing that is timing when a user performs an input operation in an input area displayed within the image, characterized by - an input area display unit configured to, when the image is rotated and the input-start timing is detected, display the input area as a target of the input operation whereby the input area is directed to a direction set beforehand that is different from the direction of the rotated image. - an angle detection part configured to detect the opening angle between the body chassis and the display chassis; - a flat mode determination part configured to determine whether the opening angle is an angle that corresponds to the flat mode; - an image rotation control part configured to, when the opening angle is an angle that corresponds to the flat mode, rotate the image as a whole by a predetermined rotation angle; and - a timing detection unit configured to, when the image is rotated, detect an input-start timing that is timing when a user performs an input operation in an input area displayed within the image, - an input area display unit configured to, when the image is rotated and the input-start timing is detected, display the input area as a target of the input operation whereby the input area is directed to a direction set beforehand that is different from the direction of the rotated image.
A Wi-Fi hotspot connection method, wherein the method comprises: displaying (S701), by a terminal, a first screen, wherein the first screen comprises a service set identifier SSID input box and a security selection box for a wireless fidelity Wi-Fi hotspot and the first screen does not comprise a password input box; receiving (S702), by the terminal, an SSID of a first Wi-Fi hotspot input by a user in the SSID input box, wherein an encryption manner selected from the security selection box is an encryption manner input by default and the encryption manner input by default is unencrypted; in response to a user's operation on the first screen, obtaining (S703), by the terminal, an encryption manner of the first Wi-Fi hotspot based on the SSID of the first Wi-Fi hotspot; displaying (S705), by the terminal, a second screen if the obtained encryption manner of the first Wi-Fi hotspot is different from the encryption manner selected from the security selection box, wherein the second screen comprises a password input box; receiving (S706), by the terminal, an access password of the first Wi-Fi hotspot input by the user in the password input box; and in response to a user's connection operation on the second screen, connecting (S707), by the terminal, to the first Wi-Fi hotspot based on the SSID, the access password, and the obtained encryption manner of the first Wi-Fi hotspot. displaying (S701), by a terminal, a first screen, wherein the first screen comprises a service set identifier SSID input box and a security selection box for a wireless fidelity Wi-Fi hotspot and the first screen does not comprise a password input box; receiving (S702), by the terminal, an SSID of a first Wi-Fi hotspot input by a user in the SSID input box, wherein an encryption manner selected from the security selection box is an encryption manner input by default and the encryption manner input by default is unencrypted; in response to a user's operation on the first screen, obtaining (S703), by the terminal, an encryption manner of the first Wi-Fi hotspot based on the SSID of the first Wi-Fi hotspot; displaying (S705), by the terminal, a second screen if the obtained encryption manner of the first Wi-Fi hotspot is different from the encryption manner selected from the security selection box, wherein the second screen comprises a password input box; receiving (S706), by the terminal, an access password of the first Wi-Fi hotspot input by the user in the password input box; and in response to a user's connection operation on the second screen, connecting (S707), by the terminal, to the first Wi-Fi hotspot based on the SSID, the access password, and the obtained encryption manner of the first Wi-Fi hotspot.
An optical sensor based on CMOS technology and comprising: • a semiconductor substrate ; • an array of photocells , each of which - includes a respective photodetector active area that is formed in the semiconductor substrate and is exposed on a given planar surface of said semiconductor substrate , and - is designed to provide a respective output electrical signal related to incident light impinging on the respective photodetector active area ; • a multilayer structure , that includes metal and dielectric layers and is formed on the given planar surface of the semiconductor substrate ; and • light shielding means , that are formed in or on the multilayer structure and are made of one or more materials reflecting and/or absorbing incident light impinging on said light shielding means ; wherein each photodetector active area is associated with a corresponding optical path extending through the light shielding means and directed towards said photodetector active area to allow incident light with incident direction falling within a given direction range to reach said photodetector active area ; characterized in that : • all the photocells are connected in parallel to provide an overall output electrical signal related to incident light impinging on all the photodetector active areas ; and • all the optical paths are parallel to a given direction thereby causing all the photodetector active areas to be reached by incident light with incident direction parallel to said given direction. • a semiconductor substrate ; • an array of photocells , each of which - includes a respective photodetector active area that is formed in the semiconductor substrate and is exposed on a given planar surface of said semiconductor substrate , and - is designed to provide a respective output electrical signal related to incident light impinging on the respective photodetector active area ; - includes a respective photodetector active area that is formed in the semiconductor substrate and is exposed on a given planar surface of said semiconductor substrate , and - is designed to provide a respective output electrical signal related to incident light impinging on the respective photodetector active area ; • a multilayer structure , that includes metal and dielectric layers and is formed on the given planar surface of the semiconductor substrate ; and • light shielding means , that are formed in or on the multilayer structure and are made of one or more materials reflecting and/or absorbing incident light impinging on said light shielding means ; • all the photocells are connected in parallel to provide an overall output electrical signal related to incident light impinging on all the photodetector active areas ; and • all the optical paths are parallel to a given direction thereby causing all the photodetector active areas to be reached by incident light with incident direction parallel to said given direction.
A radiation detection device (10, 10a to 10f) for detecting radiation which is irradiated to a test subject (S) from a radiation source and is transmitted through the test subject (S), the radiation detection device comprising; a filter member (40, 40a to 40i, 41) having a filter (42, 42b to 42f) that attenuates at least a part of the incident radiation; a detector that detects the radiation with at least a part thereof having been attenuated by the filter (42, 42b to 42f), the detector comprising: a first line sensor including pixels having a first pixel width, the pixels being one-dimensionally arranged; and a second line sensor including pixels having a second pixel width, the pixels being one-dimensionally arranged, the second line sensor being disposed in parallel and adjacent to the first line sensor with an interval between said first and second line sensors narrower than the first and second pixel widths; and a housing that places the detector therein, wherein the housing comprises a principal surface including a part through which the radiation passes, and a side surface including an opening extending in a direction intersecting with the principal surface and allowing the filter (42, 42b to 42f) to be inserted therethrough, wherein the filter (42, 42b to 42f) is disposed in the housing so as to cover one of the first and second line sensors of the detector in a state of being apart from the detector . a first line sensor including pixels having a first pixel width, the pixels being one-dimensionally arranged; and a second line sensor including pixels having a second pixel width, the pixels being one-dimensionally arranged, the second line sensor being disposed in parallel and adjacent to the first line sensor with an interval between said first and second line sensors narrower than the first and second pixel widths; and
Method for controlling injection processes in liquid fuel-operated setting tools , which comprise a fuel tank from which fuel is supplied to a combustion chamber by means of a time-controlled metering device , characterized in that a metering time of the time-controlled metering device is adapted to the age of the fuel tank .
A method of preparing an electrochemically active cathode material, comprising: (i) reacting an alkali metal-containing layered nickel oxide having a formula A 1-a Ni 1+a O 2 , wherein A comprises an alkali metal and 0 < a ≤ 0.2 and a chemical oxidant comprising a peroxydisulfate salt, a monopersulfate salt, or a combination thereof, in a fluid composition at an elevated temperature for at least a period of time sufficient to form a Ni(IV)-containing mixture, the Ni(IV)-containing mixture comprising a Ni(IV)-containing alkali metal-deficient layered nickel oxide electrochemically active cathode material, the Ni(IV) containing mixture having a total nickel (Ni) content; and (ii) reacting the Ni(IV)-containing mixture of step (i) with a mineral acid, wherein the mineral acid is added in an amount of 0.60 moles or less per mole of total nickel, at an elevated temperature for at least a period of time sufficient to form an additional amount of the Ni(IV)-containing alkali metal-deficient layered nickel oxide electrochemically active cathode material; the Ni(IV)-containing alkali metal-deficient layered nickel oxide electrochemically active cathode material formed during steps (i) and (ii) having the general formula A x H y Ni 1+a O 2 : wherein A comprises an alkali metal; 0 .08 ≤ x < 0 .2; 0 ≤ y < 0 .3; and 0 .02 < a ≤ 0 .2 . (i) reacting an alkali metal-containing layered nickel oxide having a formula A 1-a Ni 1+a O 2 , wherein A comprises an alkali metal and 0 < a ≤ 0.2 and a chemical oxidant comprising a peroxydisulfate salt, a monopersulfate salt, or a combination thereof, in a fluid composition at an elevated temperature for at least a period of time sufficient to form a Ni(IV)-containing mixture, the Ni(IV)-containing mixture comprising a Ni(IV)-containing alkali metal-deficient layered nickel oxide electrochemically active cathode material, the Ni(IV) containing mixture having a total nickel (Ni) content; and (ii) reacting the Ni(IV)-containing mixture of step (i) with a mineral acid, wherein the mineral acid is added in an amount of 0.60 moles or less per mole of total nickel, at an elevated temperature for at least a period of time sufficient to form an additional amount of the Ni(IV)-containing alkali metal-deficient layered nickel oxide electrochemically active cathode material; the Ni(IV)-containing alkali metal-deficient layered nickel oxide electrochemically active cathode material formed during steps (i) and (ii) having the general formula A x H y Ni 1+a O 2 : wherein A comprises an alkali metal; 0 .08 ≤ x < 0 .2; 0 ≤ y < 0 .3; and 0 .02 < a ≤ 0 .2 .
A lateral insulated gate bipolar transistor, comprising: a substrate ; an anode terminal located on the substrate , comprising: an N-type buffer region located on the substrate ; a P well located in the N-type buffer region ; and an N-region located in the P well ; a cathode terminal located on the substrate ; a drift region between the anode terminal and cathode terminal; and a gate between the anode terminal and cathode terminal, characterized in that the anode terminal further comprises: two P+ shallow junctions located on a surface of the P well ; and an N+ shallow junction located between the two P+ shallow junctions , wherein the N-region is located between the N-type buffer region and the N+ shallow junction for forming a path for quickly extracting minority carriers, wherein one of the two P+ shallow junctions that is positioned closer to the cathode terminal and the N+ shallow junction are disposed at a surface of the N-region , and the N-region is not disposed between the N-type buffer region and the other of the two P+ shallow junctions . a substrate ; an anode terminal located on the substrate , comprising: an N-type buffer region located on the substrate ; a P well located in the N-type buffer region ; and an N-region located in the P well ; an N-type buffer region located on the substrate ; a P well located in the N-type buffer region ; and an N-region located in the P well ; a cathode terminal located on the substrate ; a drift region between the anode terminal and cathode terminal; and a gate between the anode terminal and cathode terminal, characterized in that the anode terminal further comprises: two P+ shallow junctions located on a surface of the P well ; and an N+ shallow junction located between the two P+ shallow junctions , two P+ shallow junctions located on a surface of the P well ; and an N+ shallow junction located between the two P+ shallow junctions , wherein the N-region is located between the N-type buffer region and the N+ shallow junction for forming a path for quickly extracting minority carriers, wherein one of the two P+ shallow junctions that is positioned closer to the cathode terminal and the N+ shallow junction are disposed at a surface of the N-region , and the N-region is not disposed between the N-type buffer region and the other of the two P+ shallow junctions .
A cargo door for an aircraft, comprising: a plurality of locking devices , spaced horizontally in proximity to a lower horizontal edge of the cargo door; at least one vent panel arranged in the cargo door ; a manually operated control handle arranged on the cargo door ; a torsion shaft extending near said edge ; a plurality of actuation pins supported and rotationally driven by the torsion shaft to lock and unlock the locking devices ; a first drive which connects the control handle to the torsion shaft to rotate the torsion shaft following a locking or unlocking command given to the control handle ; a second drive which connects the torsion shaft to the vent panel to open or close the vent panel following a rotation of the torsion shaft ; wherein the torsion shaft is a double shaft comprising two coaxial and rotationally integral shafts, with an inner shaft and an outer tubular shaft , and wherein the inner shaft has a smaller outer diameter than the inner diameter of the outer shaft , whereby there is a predetermined transverse gap between an outer surface of a main part of the inner shaft and a part of the inner cavity of the outer shaft ; characterized in that at the opposite ends of the inner shaft two respective centering bushings are mounted, each interposed between the inner cavity of the outer shaft and an end of the inner shaft or of a segment that composes the inner shaft. a plurality of locking devices , spaced horizontally in proximity to a lower horizontal edge of the cargo door; at least one vent panel arranged in the cargo door ; a manually operated control handle arranged on the cargo door ; a torsion shaft extending near said edge ; a plurality of actuation pins supported and rotationally driven by the torsion shaft to lock and unlock the locking devices ; a first drive which connects the control handle to the torsion shaft to rotate the torsion shaft following a locking or unlocking command given to the control handle ; a second drive which connects the torsion shaft to the vent panel to open or close the vent panel following a rotation of the torsion shaft ; wherein the torsion shaft is a double shaft comprising two coaxial and rotationally integral shafts, with an inner shaft and an outer tubular shaft , and wherein the inner shaft has a smaller outer diameter than the inner diameter of the outer shaft , whereby there is a predetermined transverse gap between an outer surface of a main part of the inner shaft and a part of the inner cavity of the outer shaft ; characterized in that at the opposite ends of the inner shaft two respective centering bushings are mounted, each interposed between the inner cavity of the outer shaft and an end of the inner shaft or of a segment that composes the inner shaft.
Use, for the oxygen enrichment of a flow of fuel in the form of solid particles carried by a carrier gas, of a lance having: • an outer tube extending along a longitudinal axis over a length L between an upstream end and a downstream end , and • a second tube also extending along this longitudinal axis, the outer tube having a first lateral wall that is gastight except for one or more longitudinal sections that are gas-permeable, known as permeable sections , the second tube having a second lateral wall that is gastight except for one or more longitudinal sections, known as perforated sections , that have perforations distributed over the circumference of the second tube , the second tube being mounted so as to slide inside the outer tube through the upstream end of the outer tube so as to make it possible to create, at variable positions along the length L, one or more overlap sections in which there is an overlap between a perforated section of the second tube and a permeable section of the outer tube . • an outer tube extending along a longitudinal axis over a length L between an upstream end and a downstream end , and • a second tube also extending along this longitudinal axis, the outer tube having a first lateral wall that is gastight except for one or more longitudinal sections that are gas-permeable, known as permeable sections , the second tube having a second lateral wall that is gastight except for one or more longitudinal sections, known as perforated sections , that have perforations distributed over the circumference of the second tube , the second tube being mounted so as to slide inside the outer tube through the upstream end of the outer tube so as to make it possible to create, at variable positions along the length L, one or more overlap sections in which there is an overlap between a perforated section of the second tube and a permeable section of the outer tube .
A wind turbine comprising: a rotor for rotating about a horizontal axis of rotation substantially parallel to the direction of the wind, the rotor having a front face facing into the wind and substantially perpendicular to the direction of the wind, and a rear face situated toward a support of the rotor; and at least two distinct families of blades distributed over the rotor , each family of blades comprises at least three blades having a free end and a blade root end connected to said rotor; characterized in that each family of blades comprising a catching blade guiding the wind toward a guide blade which guides the wind toward a force blade having a surface arranged substantially perpendicular to the direction of the wind, the blade root ends of the blades of each family of blades being successively offset on an exterior surface of the rotor along its axis of rotation and the catching blade has a length that is reduced in comparison with the guide blade which itself has a length that is reduced in comparison with the force blade and each blade root end is arranged on the surface of the rotor at a predetermined angle (α) formed between the axis of rotation of the rotor and the direction of the blade root end, and the blades stand out from the rotor in a longitudinal direction that forms a predetermined angle (β) with the surface of the rotor and the predetermined angle (α, β) is greater than 0 and less than or equal to 90°. a rotor for rotating about a horizontal axis of rotation substantially parallel to the direction of the wind, the rotor having a front face facing into the wind and substantially perpendicular to the direction of the wind, and a rear face situated toward a support of the rotor; and at least two distinct families of blades distributed over the rotor , each family of blades comprises at least three blades having a free end and a blade root end connected to said rotor;
A WIM system for detecting loads of vehicles on a roadway segment during crossing of a wheel of a vehicle over a WIM sensor ; which WIM sensor is arranged in the roadway segment in the road surface flush with the roadway surface ; which WIM sensor is more or less formed as an elongated profile along a longitudinal axis (XX') having at least one space ; in which space is arranged at least one force sensor ; said force sensor generating a force sensor signal ; which force sensor signal corresponds to a dynamic ground reaction force to the crossing wheel ; wherein at least one acceleration sensor detects an acceleration of the road surface of the roadway segment in which the WIM sensor is arranged in at least one spatial direction which it provides as the acceleration sensor signal ; characterized in that said WIM system comprises a microprocessor and at least one non-volatile memory element ; that an algorithm is stored in said non-volatile memory element which can be loaded into the microprocessor ; said algorithm uses a digital acceleration sensor signal from the acceleration sensor and calculates the deflection of the road surface , said deflection being defined by deflection parameters ; and in that the algorithm uses the deflection parameters and a digital force sensor signal from the force sensor and calculates and provides a corrected force sensor signal .