mhurhangee/ep-ind-claims huggingface dataset:
A method conducted in a fluid jet apparatus control system for automatically determining and generating motion instructions to control a fluid jet cutting head to cut a three dimensional target part within one or more designated tolerances using a fluid jet, comprising: receiving an indication of a geometry of the three dimensional target part, the geometry indicative of a jet entrance contour and a jet exit contour, the jet entrance contour being not the same as a jet exit contour, such that the fluid jet, when cutting, cuts the jet entrance contour and the jet exit contour from a workpiece at different speeds and/or in different directions; receiving an indication of a desired surface finish, quality, and/or speed; automatically determining, by examining speed and/or direction changes along the depth of the intended cut of the jet determined from a point on the jet entrance contour to a point on the jet exit contour, whether the intended cut has three dimensional curvature characteristics that are outside the designated tolerances when the target part is cut at speeds corresponding to the indicated desired surface finish, quality, and/or speed; when it is determined that the intended cut has three dimensional cut curvature characteristics outside the designated tolerances, automatically determining deviation correction angles to adjust orientation of the jet to produce a cut having three dimensional curvature characteristics that are within the designated tolerances; and automatically generating and storing one or more motion instructions and/or data that indicate desired movement of the cutting head taking into account the determined deviation correction angles to adjust orientation of the jet. receiving an indication of a geometry of the three dimensional target part, the geometry indicative of a jet entrance contour and a jet exit contour, the jet entrance contour being not the same as a jet exit contour, such that the fluid jet, when cutting, cuts the jet entrance contour and the jet exit contour from a workpiece at different speeds and/or in different directions; receiving an indication of a desired surface finish, quality, and/or speed; automatically determining, by examining speed and/or direction changes along the depth of the intended cut of the jet determined from a point on the jet entrance contour to a point on the jet exit contour, whether the intended cut has three dimensional curvature characteristics that are outside the designated tolerances when the target part is cut at speeds corresponding to the indicated desired surface finish, quality, and/or speed; when it is determined that the intended cut has three dimensional cut curvature characteristics outside the designated tolerances, automatically determining deviation correction angles to adjust orientation of the jet to produce a cut having three dimensional curvature characteristics that are within the designated tolerances; and automatically generating and storing one or more motion instructions and/or data that indicate desired movement of the cutting head taking into account the determined deviation correction angles to adjust orientation of the jet.
A driving circuit comprising a voltage dividing module, a comparing module and a switching module, wherein a first terminal of the voltage dividing module is connected to a voltage output terminal to receive an output voltage (Vo), the voltage dividing module is configured to divide the output voltage (Vo) to generate a divided voltage from the output voltage (Vo) as a feedback voltage (Vf), a second terminal of the voltage dividing module is connected to a first terminal of the comparing module to output the feedback voltage (Vf) to the comparing module, and a third terminal of the voltage dividing module serves as a grounding terminal; a second terminal of the comparing module is connected to a first voltage input terminal to receive a first voltage (Vi); third, fourth and fifth terminals (123, 124, 125) of the comparing module are connected to and configured for outputting control signals to three control terminals of the switching module respectively; the comparing module is configured to generate the control signals according to a comparison of the feedback voltage (Vf) and the first voltage (Vi) input from the first voltage input terminal, wherein the switching module is configured to output a voltage which is equal to the first voltage (Vi) in response to a first one of the three control terminals becoming active when the feedback voltage (Vf) is equal to the first voltage (Vi), which is equal to a second voltage (Vgh) greater than the first voltage (Vi) in response to a second one of the three control terminals becoming active when the feedback voltage (Vf) is less than the first voltage (Vi), and which is equal to a third voltage (Vgl) less than the first voltage (Vi) in response to a third one of the three control terminals becoming active when the feedback voltage (Vf) is greater than the first voltage (Vi), wherein the first voltage (Vi) is a target driving voltage; the switching module is configured to output the voltage at the first terminal of the switching module, wherein the voltage is connected as the output voltage (Vo) to the voltage output terminal, or the voltage is stabilized and the stabilized voltage is output as the output voltage (Vo) to the voltage output terminal, a second terminal of the switching module is connected to the first voltage input terminal to receive the first voltage (Vi), a third terminal of the switching module is connected to a second voltage input terminal to receive the second voltage (Vgh), and a fourth terminal of the switching module is connected to a third voltage input terminal to receive the third voltage (Vgl).
A refrigerator comprising: an inner casing having a storage chamber defined therein, characterized by further comprising: a middle plate to surround an outer surface of the inner casing; a thermal-insulating material disposed between the inner casing and the middle plate; a module mounting casing fixed to the middle plate and having a top opening and an inserting opening; a cabinet cover to cover the top opening and to define a top appearance of the refrigerator; and a wireless charging module mounted on the module mounting casing through the inserting opening, wherein the wireless charging module includes a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover. a middle plate to surround an outer surface of the inner casing; a thermal-insulating material disposed between the inner casing and the middle plate; a module mounting casing fixed to the middle plate and having a top opening and an inserting opening; a cabinet cover to cover the top opening and to define a top appearance of the refrigerator; and a wireless charging module mounted on the module mounting casing through the inserting opening, wherein the wireless charging module includes a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover.
A display device, comprising: a display panel configured to display images; a plurality of sound generating actuators (200, 200') in a plurality of sound output areas, the sound generating actuators (200, 200') being in contact with the display panel and configured to vibrate the display panel to generate sound; a partition arranged between each of the plurality of sound output areas and surrounding at least one of the plurality of sound output areas; and a back support portion configured to support the display panel, wherein the partition is in contact with the display panel and the back support portion to define a space in each of the sound output areas. a display panel configured to display images; a plurality of sound generating actuators (200, 200') in a plurality of sound output areas, the sound generating actuators (200, 200') being in contact with the display panel and configured to vibrate the display panel to generate sound; a partition arranged between each of the plurality of sound output areas and surrounding at least one of the plurality of sound output areas; and a back support portion configured to support the display panel, wherein the partition is in contact with the display panel and the back support portion to define a space in each of the sound output areas.
An assistance data processing and relaying module (10, 1318) for a relaying position determining unit wherein the assistance data processing and relaying module (10, 1318) is operable to obtain localised assistance data from an assisting peer position determining unit and is further operable to relay the localised assistance data to an assisted peer position determining unit, characterised in that the localised assistance data comprises non-GNSS (Global Navigation Satellite System) assistance data, in that the non-GNSS assistance data comprises Wireless Positioning System assistance data, and in that the localised assistance data comprises GNSS assistance data.
A touch window (10; 20) comprising: a substrate comprising an active region and an unactive region; a sensing electrode on the active region; a wire electrode connected with one end of the sensing electrode; a test connector connected with an opposite end of the sensing electrode; and wherein the test connector is used for measuring electrical characteristics of the sensing electrode, and wherein the touch window (10; 20) further comprises a first reinforcement electrode connected between the sensing electrode and the test connector, wherein the sensing electrode and the first reinforcement electrode are formed in a mesh shape, and the touch window being further characterised by: wherein the sensing electrode has a first mesh line, the first reinforcement electrode has a second mesh line, and the thickness of the second mesh line is thicker than a thickness of the first mesh line. a substrate comprising an active region and an unactive region; a sensing electrode on the active region; a wire electrode connected with one end of the sensing electrode; a test connector connected with an opposite end of the sensing electrode; and wherein the test connector is used for measuring electrical characteristics of the sensing electrode, and wherein the touch window (10; 20) further comprises a first reinforcement electrode connected between the sensing electrode and the test connector, wherein the sensing electrode and the first reinforcement electrode are formed in a mesh shape, and the touch window being further characterised by: wherein the sensing electrode has a first mesh line, the first reinforcement electrode has a second mesh line, and the thickness of the second mesh line is thicker than a thickness of the first mesh line.
A method for application-based classification, comprising: receiving, by a server from a plurality of devices, a plurality of application signatures, each application signature identifying an application and an associated destination address of communications associated with the application, each device associated with a network identifier identifying a network environment of each device; the method being characterized in that it further comprises incrementing a value associated with a first application signature received from a first device associated with a first network identifier and stored in a signature candidate database, responsive to receipt of the first application signature from a second device associated with a different, second network identifier; determining, by the server, that an application signature is valid based on a value associated with the application signature in the signature candidate database exceeding a threshold; and providing, by the server to the plurality of devices responsive to the determination, the valid application signature, the plurality of devices routing network traffic using the valid application signature. receiving, by a server from a plurality of devices, a plurality of application signatures, each application signature identifying an application and an associated destination address of communications associated with the application, each device associated with a network identifier identifying a network environment of each device; the method being characterized in that it further comprises incrementing a value associated with a first application signature received from a first device associated with a first network identifier and stored in a signature candidate database, responsive to receipt of the first application signature from a second device associated with a different, second network identifier; determining, by the server, that an application signature is valid based on a value associated with the application signature in the signature candidate database exceeding a threshold; and providing, by the server to the plurality of devices responsive to the determination, the valid application signature, the plurality of devices routing network traffic using the valid application signature.
An electronic cigarette comprising a suction part, an atomizer structure body, a liquid storing part, a main body including a switch, and a battery, wherein the atomizer structure body comprises a flexible nonflammable metal net, and the flexible nonflammable metal net is rolled up in a scroll shape and disposed so that a part of the rolled flexible nonflammable metal net is inserted into the liquid storing part in an axial direction parallel with a lengthwise direction of the scroll shape, and the flexible nonflammable metal net holds a liquid of the liquid storing part through the net and supplies the liquid continuously, and a power supplying line configured to supply power is connected to an opposite side of an inserted portion of the flexible nonflammable metal net so that the flexible nonflammable metal net generates heat and atomizes the liquid.
A storage device including, in a box (2, 3A) having an open front, a rotation mechanism section that rotatably holds a storage body that stores an object, the storage body being rotatable about a shaft extending along an up-down direction, wherein the rotation mechanism section includes a stationary rail (21, 31, 32) affixed to a top surface (10, 3A) of the box (2, 3A) and a movable rail (23, 40, 41) coupled to the storage body via the shaft, the stationary rail (21, 31, 32) including: a guide groove (32, 33) open downward and forward and extending in a front-back direction; and a guide body on a holding section (34A, 34) protruding downward from a groove bottom surface (3A, 4A) of the guide groove (32, 33), the movable rail (23, 40, 41) being movable in the front-back direction along the guide groove (32, 33) in the stationary rail (21, 31, 32), and the movable rail (23, 40, 41) includes left and right sidewalls (37, 46, 47), a bottom wall (43, 44), a front end wall (45, 46), and a top wall (33, 34, 48), the left and right sidewalls (37, 46, 47), the bottom wall (43, 44), and the front end wall (45, 46) defining a receiving groove (41, 42) for receiving the guide body, the top wall (33, 34, 48) forming a slit opening (42, 43) for receiving the holding section (34A, 34).
A safety device for a pre-filled syringe, comprising - a hollow support body (1.2) - a release collar (1.4) non-rotatably arranged within and movable relative to the support body (1.2), wherein - a guide track (1.2.4) is formed into at least one substantially planar side wall (1.2.1) of the support body (1.2), - the release collar (1.4) comprises at least one flexible arm (1.4.5) with a guide pin (1.4.6) extending from the flexible arm (1.4.5) and protruding through the guide track (1.2.4), - the guide pin (1.4.6) is movable within and along the guide track (1.2.4) in a plane defined by the substantially planar side wall (1.2.1), characterized in that the hollow support body (1.2) has a resilient mounting means (1.2.6) at the proximal end of the support body (1.2) that clamp to a barrel collar (2.2.2) of a pre-filled syringe for releasably retaining the pre-filled syringe within the support body (1.2), wherein the safety device further comprises: - a hollow outer body (1.3) slidably arranged with respect to the support body (1.2) and adapted to receive the support body (1.2), wherein the release collar (1.4)is adapted to release the mounting means (1.2.6), - a guide rail (1.3.5) formed into at least one substantially planar inner surface of the outer body (1.3), wherein - the guide rail (1.3.5) is adapted to abut against the guide pin (1.4.6) to guide the movement of the guide pin (1.4.6) along the guide track (1.2.4) when the outer body (1.3) is slid relative to the support body (1.2). - a hollow support body (1.2) - a release collar (1.4) non-rotatably arranged within and movable relative to the support body (1.2), wherein - a guide track (1.2.4) is formed into at least one substantially planar side wall (1.2.1) of the support body (1.2), - the release collar (1.4) comprises at least one flexible arm (1.4.5) with a guide pin (1.4.6) extending from the flexible arm (1.4.5) and protruding through the guide track (1.2.4), - the guide pin (1.4.6) is movable within and along the guide track (1.2.4) in a plane defined by the substantially planar side wall (1.2.1), - a hollow outer body (1.3) slidably arranged with respect to the support body (1.2) and adapted to receive the support body (1.2), wherein the release collar (1.4)is adapted to release the mounting means (1.2.6), - a guide rail (1.3.5) formed into at least one substantially planar inner surface of the outer body (1.3), wherein - the guide rail (1.3.5) is adapted to abut against the guide pin (1.4.6) to guide the movement of the guide pin (1.4.6) along the guide track (1.2.4) when the outer body (1.3) is slid relative to the support body (1.2).
A method of transmitting uplink control information in a wireless communication system, the method comprising: receiving, from a base station, information on maximum multi-input multi-output, MIMO, layer, at least one codebook related parameter, and a reference signal, RS, configuration; generating CSI including at least one of a CSI reference signal resource indicator, CRI, or a rank indicator, RI, and at least one of a precoding matrix indicator, PMI, or a channel quality indicator, CQI based on an RS according to the RS configuration; identifying an information sequence including the CSI; encoding the information sequence using a polar code; and transmitting, to the base station, the encoded information sequence, characterized in that the information sequence includes the at least one of the CRI or the RI placed before padding bits, the padding bits, and the at least one of the PMI and the CQI placed after the padding bits. receiving, from a base station, information on maximum multi-input multi-output, MIMO, layer, at least one codebook related parameter, and a reference signal, RS, configuration; generating CSI including at least one of a CSI reference signal resource indicator, CRI, or a rank indicator, RI, and at least one of a precoding matrix indicator, PMI, or a channel quality indicator, CQI based on an RS according to the RS configuration; identifying an information sequence including the CSI; encoding the information sequence using a polar code; and transmitting, to the base station, the encoded information sequence, characterized in that the information sequence includes the at least one of the CRI or the RI placed before padding bits, the padding bits, and the at least one of the PMI and the CQI placed after the padding bits.
A catheter system comprising: a catheter including an elongated flexible body and at least one electroactive polymer actuator disposed along the elongated flexible body, the at least one electroactive polymer actuator adapted to cause a change in configuration of the elongated flexible body; and a controller adapted to transmit a control signal to the at least one electroactive polymer actuator, the controller including: a memory storing a plurality of control signals corresponding to a plurality of predetermined configurations of the catheter; and a user-interface coupled to the memory, the user-interface configured to receive user input selecting an anatomical structure type from a plurality of predetermined anatomical structure types stored in memory, wherein the controller is configured to select at least one configuration from the plurality of predetermined configurations based on the user input selecting the anatomical structure type from the plurality of predetermined anatomical structure types. a catheter including an elongated flexible body and at least one electroactive polymer actuator disposed along the elongated flexible body, the at least one electroactive polymer actuator adapted to cause a change in configuration of the elongated flexible body; and a controller adapted to transmit a control signal to the at least one electroactive polymer actuator, the controller including: a memory storing a plurality of control signals corresponding to a plurality of predetermined configurations of the catheter; and a user-interface coupled to the memory, the user-interface configured to receive user input selecting an anatomical structure type from a plurality of predetermined anatomical structure types stored in memory, wherein the controller is configured to select at least one configuration from the plurality of predetermined configurations based on the user input selecting the anatomical structure type from the plurality of predetermined anatomical structure types. a memory storing a plurality of control signals corresponding to a plurality of predetermined configurations of the catheter; and a user-interface coupled to the memory, the user-interface configured to receive user input selecting an anatomical structure type from a plurality of predetermined anatomical structure types stored in memory, wherein the controller is configured to select at least one configuration from the plurality of predetermined configurations based on the user input selecting the anatomical structure type from the plurality of predetermined anatomical structure types.