mhurhangee/ep-ind-claims huggingface dataset:
A bucket for a construction vehicle intended to load, move, transport, tip and spread a bulk material, the bucket includes two lateral panels extending on each side of a loading panel, said loading panel includes a loading edge and an unloading edge, the bucket also includes: - a support panel of an adjustment system adapted to adjust the thickness of the layer of the bulk material to be spread on a ground, said support panel being located on the other side of the bucket relative to the loading panel, - an opening panel including a hatch including an opening edge, when the hatch is in the closed position, the opening edge is adjacent to the unloading edge of the loading panel, said closed position is intended to retain the bulk material, when the hatch is in the open position, the opening edge is moved away from the unloading edge of the loading panel and an opening is created, said opening is intended to let the bulk material pour out, characterised in that the bucket includes: - the adjustment system includes a rotationally movable roller located at the rear and under the bucket, adapted to rotate in the direction of rotation of the wheels of the vehicle and to rest on the ground during the spreading operation, - a fastening attachment intended to be fastened to the vehicle, said attachment being housed within a space movable in vertical translation configured to leave a vertical translation clearance and said fastening attachment is rotationally movable about an axis of rotation perpendicular to the support panel so as to rotate the bucket relative to the ground. - a support panel of an adjustment system adapted to adjust the thickness of the layer of the bulk material to be spread on a ground, said support panel being located on the other side of the bucket relative to the loading panel, - an opening panel including a hatch including an opening edge, when the hatch is in the closed position, the opening edge is adjacent to the unloading edge of the loading panel, said closed position is intended to retain the bulk material, when the hatch is in the open position, the opening edge is moved away from the unloading edge of the loading panel and an opening is created, said opening is intended to let the bulk material pour out, - the adjustment system includes a rotationally movable roller located at the rear and under the bucket, adapted to rotate in the direction of rotation of the wheels of the vehicle and to rest on the ground during the spreading operation, - a fastening attachment intended to be fastened to the vehicle, said attachment being housed within a space movable in vertical translation configured to leave a vertical translation clearance and said fastening attachment is rotationally movable about an axis of rotation perpendicular to the support panel so as to rotate the bucket relative to the ground.
An electric power generator for marine vessels, comprising: - a containment enclosure; - an internal combustion engine housed in the containment enclosure and including a drive shaft, rotating at a variable rotation speed, the internal combustion engine including a first cooling circuit containing a cooling liquid and at least one pipe in which the cooling fluid circulates; - an alternator housed in the containment enclosure and configured to receive mechanical power from the internal combustion engine and to convert it into electric power, the alternator including: - a stator; - a driven shaft, connected to the drive shaft to receive mechanical power; - a rotor, keyed to the driven shaft and including permanent magnets; - a second cooling circuit, including a pump and configured to circulate sea water from an inlet section to an outlet section, both formed in the containment enclosure, the second cooling circuit constituting a distinct cooling circuit with respect to the first cooling circuit; - an electrical power converter connected to the alternator to receive an input current, having an input frequency, and to convert it into an output current, having an output frequency, so that the electrical power converter acts as a frequency variator, wherein the second cooling circuit comprises a first heat exchanger configured to allow heat exchange between the sea water and the electrical power converter. - a containment enclosure; - an internal combustion engine housed in the containment enclosure and including a drive shaft, rotating at a variable rotation speed, the internal combustion engine including a first cooling circuit containing a cooling liquid and at least one pipe in which the cooling fluid circulates; - an alternator housed in the containment enclosure and configured to receive mechanical power from the internal combustion engine and to convert it into electric power, the alternator including: - a stator; - a driven shaft, connected to the drive shaft to receive mechanical power; - a rotor, keyed to the driven shaft and including permanent magnets; - a stator; - a driven shaft, connected to the drive shaft to receive mechanical power; - a rotor, keyed to the driven shaft and including permanent magnets; - a second cooling circuit, including a pump and configured to circulate sea water from an inlet section to an outlet section, both formed in the containment enclosure, the second cooling circuit constituting a distinct cooling circuit with respect to the first cooling circuit; - an electrical power converter connected to the alternator to receive an input current, having an input frequency, and to convert it into an output current, having an output frequency, so that the electrical power converter acts as a frequency variator,
A method for assisting the control of a forest work machine, to which forest work machine a light source is adapted, whereby the light source is adapted to produce at least one specifically defined specified-form light pattern, which information content is produced in a control unit of the forest work machine and is projected to one or more different parts of the surroundings around the forest work machine, these surroundings forming a working area, and the information content is based on predefined, planned measures controlled by the control unit to be performed on each working area, or restrictions of measures to be performed, characterized by projecting, on a tree trunk chosen from the working area to be processed by the forest work machine, bucking information produced by the control unit in the forest work machine. the light source is adapted to produce at least one specifically defined specified-form light pattern, which information content is produced in a control unit of the forest work machine and is projected to one or more different parts of the surroundings around the forest work machine, these surroundings forming a working area, and the information content is based on predefined, planned measures controlled by the control unit to be performed on each working area, or restrictions of measures to be performed, characterized by projecting, on a tree trunk chosen from the working area to be processed by the forest work machine, bucking information produced by the control unit in the forest work machine.
A sensor device (100, 600, 800, 900, 1210, 1300) comprising: a first temperature sensor configured to measure a first voltage when the sensor device (100, 600, 800, 900, 1210, 1300) is in contact with a user; a second temperature sensor disposed apart from the first temperature sensor in a thickness direction of the sensor device, and configured to measure a second voltage when the sensor device is in contact with the user; characterized by: an amplifier configured to amplify a voltage difference (ΔV) between the first voltage and the second voltage, and output the amplified voltage difference (AxΔV) as a value that represents a body temperature (T core) of the user. a first temperature sensor configured to measure a first voltage when the sensor device (100, 600, 800, 900, 1210, 1300) is in contact with a user; a second temperature sensor disposed apart from the first temperature sensor in a thickness direction of the sensor device, and configured to measure a second voltage when the sensor device is in contact with the user; characterized by: an amplifier configured to amplify a voltage difference (ΔV) between the first voltage and the second voltage, and output the amplified voltage difference (AxΔV) as a value that represents a body temperature (T core) of the user. an amplifier configured to amplify a voltage difference (ΔV) between the first voltage and the second voltage, and output the amplified voltage difference (AxΔV) as a value that represents a body temperature (T core) of the user.
An in vitro method for promoting cell adhesion to a support, comprising either adding the dispirotripiperazine derivative represented by Formula I below or a salt thereof to a culture medium, or applying the dispirotripiperazine derivative represented by Formula I below or a salt thereof to a support, wherein R 1 and R 2 are the same or different, and each represent hydrogen a heteroaryl group, a heteroaryl-substituted alkyl group (excluding the case where both R 1 and R 2 are hydrogen; R 1 and R 2 each being optionally derivatized with dansylhydrazine or bonded with a Arg-Gly-Asp sequence; each alkyl moiety is optionally substituted with at least one atom or one group selected from halogen, hydroxyl (the hydroxy being optionally acylated, carbamated or etherified), cyano, nitro, amino, mono- or di-substituted amino, carbamoyl and sulfamoyl; each alkyl moiety is optionally interrupted by -O-, -S-, -SO-, -SO 2 -, -OSO 2 -, -NH-, -CO-, -CH=CH-, -C≡C-, -CONH-, -NHCO-, -NHCOO-, -OCH 2 CONH-, or -OCH 2 CO-; and the heteroaryl group, and each heteroaryl moiety are optionally substituted with at least one atom or one group selected from halogen, hydroxyl, formyl, alkyl, hydroxyalkyl, alkoxy, alkylthio, cyano, nitro, amino, mono- or di-substituted amino, carbamoyl, sulfamoyl, alkyl sulfonyl, alkyl sulfonylamino, alkyl carbonylamino, methylenedioxy, and aryl) or wherein R 1 and R 2 each represent a group of the formula wherein R represents a moiety of the formula (h) or a group represented by Formula II below (excluding the case where both of R 1 and R 2 are a group represented by Formula II), wherein R 1a represents a heteroarylene group (the heteroarylene group is optionally substituted with at least one atom or one group selected from halogen, hydroxyl, formyl, alkyl, hydroxyalkyl, alkoxy, alkylthio, cyano, nitro, amino, mono- or di-substituted amino, carbamoyl, sulfamoyl, alkyl sulfonyl, alkyl sulfonylamino, alkyl carbonylamino, methylenedioxy, and acryl); and R 2a has the same definition as those of R 1 and R 2.
A drive unit for driving a transport platform of a transport system, wherein the drive unit comprises: • a drive mounting, • a chassis, wherein the chassis can be mounted in the transport platform by means of the drive mounting so as to be steerable, in particular about a steering axis, • at least two driving wheels which are rotatably mounted in the chassis, wherein the at least two driving wheels can be supplied with different drive torques, wherein the drive unit is designed to steer the transport platform when the at least two driving wheels are supplied with different drive torques and/or drive torques that work in opposite directions and/or opposite rotational directions, wherein the at least two driving wheels are each assigned their own dampening and/or spring device (19, 20), characterized in that the driving wheels are designed as hard rollers, wherein the shore A hardness value is more than 85°. • a drive mounting, • a chassis, wherein the chassis can be mounted in the transport platform by means of the drive mounting so as to be steerable, in particular about a steering axis, • at least two driving wheels which are rotatably mounted in the chassis, wherein the at least two driving wheels can be supplied with different drive torques,
A method of manufacturing a measuring device in the form of a strip incorporating sensors (2, 2 1 -2 n) to measure one or more parietal physical quantities, said method comprising a step consisting of using sensors (2, 2 1 -2 n) having an active area (20, 20 1 -20 n) for taking measurements, characterised in that the method comprises steps consisting of: - making, by 3D printing of a thermoplastic material, an elongated support including a longitudinal groove, said groove has a bottom wall, - installing the sensors (2, 2 1 -2 n) in the groove, the installation being carried out so that the active areas (20, 20 1 -20 n) of said sensors are located opposite the bottom wall, - encapsulating the sensors (2, 2 1 -2 n) in the groove, using a thermoplastic material added by 3D printing, - creating openings in the encapsulation at each active area (20, 20 1 -20 n) of the sensors (2, 2 1 -2 n) so as to leave said areas free. - making, by 3D printing of a thermoplastic material, an elongated support including a longitudinal groove, said groove has a bottom wall, - installing the sensors (2, 2 1 -2 n) in the groove, the installation being carried out so that the active areas (20, 20 1 -20 n) of said sensors are located opposite the bottom wall, - encapsulating the sensors (2, 2 1 -2 n) in the groove, using a thermoplastic material added by 3D printing, - creating openings in the encapsulation at each active area (20, 20 1 -20 n) of the sensors (2, 2 1 -2 n) so as to leave said areas free.
A mute operation method for an automatic cleaning device, comprising: receiving (102, 202) a mute instruction; the method being characterized in that it further comprises: planning a mute path according to the mute instruction; switching (106, 204) to a mute mode and performing a cleaning operation according to the mute path. receiving (102, 202) a mute instruction; the method being characterized in that it further comprises: planning a mute path according to the mute instruction; switching (106, 204) to a mute mode and performing a cleaning operation according to the mute path. planning a mute path according to the mute instruction; switching (106, 204) to a mute mode and performing a cleaning operation according to the mute path.
A secondary battery comprising: an electrode assembly having a current collector tab; a case accommodating the electrode assembly; a cap plate coupled to the case; and a lead tab positioned between the electrode assembly and the cap plate, wherein the lead tab comprises a fuse opening, a fixing hole spaced apart from the fuse opening and a protection member surrounding the fuse opening and the fixing hole, wherein the protection member is made of an insulating material and fills interior portions of the fuse opening and the fixing hole, characterized in that, the lead tab is electrically connecting the current collector tab and the cap plate and comprises: a first plate at one side of the lead tab and coupled to the current collector tab; a second plate at the other side of the lead tab, the second plate being higher than the first plate, and coupled to the cap plate; and a connecting part connecting the first plate and the second plate, the connecting part being slanted relative to one of the first plate or the second plate, wherein the protection member extends from one end of the first plate to the connecting part. an electrode assembly having a current collector tab; a case accommodating the electrode assembly; a cap plate coupled to the case; and a lead tab positioned between the electrode assembly and the cap plate, wherein the lead tab comprises a fuse opening, a fixing hole spaced apart from the fuse opening and a protection member surrounding the fuse opening and the fixing hole, wherein the protection member is made of an insulating material and fills interior portions of the fuse opening and the fixing hole, characterized in that, the lead tab is electrically connecting the current collector tab and the cap plate and comprises: a first plate at one side of the lead tab and coupled to the current collector tab; a second plate at the other side of the lead tab, the second plate being higher than the first plate, and coupled to the cap plate; and a connecting part connecting the first plate and the second plate, the connecting part being slanted relative to one of the first plate or the second plate, wherein the protection member extends from one end of the first plate to the connecting part. a first plate at one side of the lead tab and coupled to the current collector tab; a second plate at the other side of the lead tab, the second plate being higher than the first plate, and coupled to the cap plate; and a connecting part connecting the first plate and the second plate, the connecting part being slanted relative to one of the first plate or the second plate, wherein the protection member extends from one end of the first plate to the connecting part.
A method for determining a user input on an electronic device comprising a fingerprint sensor, the fingerprint sensor comprising an array of sensing elements arranged in relation to a finger touch surface, the method comprises: - acquiring partial fingerprint images of a finger touching the finger touch surface from at least two sub-groups (404a, 404b, 404c, 404d) of sensing elements; - determining a respective force value based on at least one parameter indicating a depth dimension of the fingerprint topography and extracted from the partial fingerprint images acquired from the respective sub-group of sensing elements, and used to estimate compression of a fingerprint topography, the force values are indicative of a force applied on the finger touch surface at each of the sub-groups of sensing elements when the partial fingerprints were acquired; - determining a force value difference between a pair of the determined force values, and - determining the user input based on the determined force value difference, and based on the relative location between the sub-groups of sensing elements in the pair associated with the force value difference, wherein the relative location of the pair of sensing elements provides directionality for the user input, and the amount of force value difference provides a speed indication for the user input. - acquiring partial fingerprint images of a finger touching the finger touch surface from at least two sub-groups (404a, 404b, 404c, 404d) of sensing elements; - determining a respective force value based on at least one parameter indicating a depth dimension of the fingerprint topography and extracted from the partial fingerprint images acquired from the respective sub-group of sensing elements, and used to estimate compression of a fingerprint topography, the force values are indicative of a force applied on the finger touch surface at each of the sub-groups of sensing elements when the partial fingerprints were acquired; - determining a force value difference between a pair of the determined force values, and - determining the user input based on the determined force value difference, and based on the relative location between the sub-groups of sensing elements in the pair associated with the force value difference,
A method for applying reference signal configuration information, characterized by: acquiring (S 101), by a base station, the reference signal configuration information, wherein the reference signal configuration information comprises at least one of: reference signal configuration information of a local cell, reference signal configuration information of a neighboring cell, or reference signal configuration information of a terminal in the neighboring cell; and performing, by the base station a transmission or a measurement according to the acquired reference signal configuration information; wherein the base station receives a measurement result and/or a corresponding measurement resource information reported by the terminal after the terminal performs a measurement based on received reference signal configuration information. acquiring (S 101), by a base station, the reference signal configuration information, wherein the reference signal configuration information comprises at least one of: reference signal configuration information of a local cell, reference signal configuration information of a neighboring cell, or reference signal configuration information of a terminal in the neighboring cell; and performing, by the base station a transmission or a measurement according to the acquired reference signal configuration information; wherein the base station receives a measurement result and/or a corresponding measurement resource information reported by the terminal after the terminal performs a measurement based on received reference signal configuration information.
A vibration-powered device adapted for flotation and propulsion on an upper surface in a liquid, said device comprising: a body having a longitudinal axis, a front end portion and a rear end portion, a top side and a bottom side, said top side adapted to be at least partially disposed above the surface of the liquid, said bottom side adapted to be at least partially submerged below the surface of the liquid; a vibration mechanism connected to the body; a propulsion fin (300; 600), said fin (300; 600) having a proximal end (306; 606) connected to the body, said fin (300; 600) having a free distal end (308; 608) opposite the proximal end (306; 606), said fin (300; 600) having a top side (302; 602) adapted to be disposed at least partially above the surface of the liquid, said fin (300; 600) having a bottom side (304; 604) adapted to be disposed at least partially below the surface of the liquid; wherein said vibration mechanism is adapted to oscillate the free distal end (308; 608) of the propulsion fin (300; 600) upward and downward; characterized by further including a flotation member connected to the body, wherein the flotation member includes a top surface, a bottom surface, and a cavity accessible either from the bottom surface or from the top surface of the flotation member, said cavity adapted to receive the body therein. a body having a longitudinal axis, a front end portion and a rear end portion, a top side and a bottom side, said top side adapted to be at least partially disposed above the surface of the liquid, said bottom side adapted to be at least partially submerged below the surface of the liquid; a vibration mechanism connected to the body; a propulsion fin (300; 600), said fin (300; 600) having a proximal end (306; 606) connected to the body, said fin (300; 600) having a free distal end (308; 608) opposite the proximal end (306; 606), said fin (300; 600) having a top side (302; 602) adapted to be disposed at least partially above the surface of the liquid, said fin (300; 600) having a bottom side (304; 604) adapted to be disposed at least partially below the surface of the liquid; wherein said vibration mechanism is adapted to oscillate the free distal end (308; 608) of the propulsion fin (300; 600) upward and downward; characterized by further including a flotation member connected to the body, wherein the flotation member includes a top surface, a bottom surface, and a cavity accessible either from the bottom surface or from the top surface of the flotation member, said cavity adapted to receive the body therein.