mhurhangee/patent-ind-claim-en huggingface dataset:
A device to support a cooking container for a smart under range, comprising: a body pad on the upper surface of a table in which a smart under range induction is installed and having an upper part on which a cooking container heated by means of the smart under range induction is placed; a cooking container supporting part provided on the upper surface of a floor part of the body pad ; a temperature sensing part interposed between the upper surface of the floor part of the body pad and the cooking container supporting part and disposed below the center part of the cooking container supporting part to directly sense the temperature of the cooking container ; a transmitting circuit part provided inside the body pad and connected to the temperature sensing part for transmitting the result sensed by the temperature sensing part to the outside; and a power supply part provided inside the body pad for supplying power to the transmitting circuit part , characterised in that , the body pad is formed by insulating material, the cooking container supporting part is formed by glass-ceramic, and the transmitting circuit part includes a microcomputer configured inside in the form of a PCB circuit and receiving and sending out the temperature sensed at a certain time interval by the temperature sensing part from the time when the temperature sensed by the temperature sensing part reaches an operating setting temperature, the transmitting circuit part being protected inside the body pad by a magnetic field shielding means . a body pad on the upper surface of a table in which a smart under range induction is installed and having an upper part on which a cooking container heated by means of the smart under range induction is placed; a cooking container supporting part provided on the upper surface of a floor part of the body pad ; a temperature sensing part interposed between the upper surface of the floor part of the body pad and the cooking container supporting part and disposed below the center part of the cooking container supporting part to directly sense the temperature of the cooking container ; a transmitting circuit part provided inside the body pad and connected to the temperature sensing part for transmitting the result sensed by the temperature sensing part to the outside; and a power supply part provided inside the body pad for supplying power to the transmitting circuit part , characterised in that , the body pad is formed by insulating material, the cooking container supporting part is formed by glass-ceramic, and the transmitting circuit part includes a microcomputer configured inside in the form of a PCB circuit and receiving and sending out the temperature sensed at a certain time interval by the temperature sensing part from the time when the temperature sensed by the temperature sensing part reaches an operating setting temperature, the transmitting circuit part being protected inside the body pad by a magnetic field shielding means .
Bike sensor device having a sensor housing and a sensor cable connected thereto, a sensor mount to fix the sensor housing on or in the bike frame , wherein the sensor mount is adapted to a receptacle or opening on/in the bike frame , and wherein the sensor mount , together with the sensor housing , is received in a form- and/or force-locking manner on/in the bike frame , characterized in that the sensor mount can be inserted at the head side into the receptacle or opening of the bike frame and, directed towards the interior of the bike frame , has at least one or several retaining webs for fixing regions of the sensor housing . a sensor housing and a sensor cable connected thereto, a sensor mount to fix the sensor housing on or in the bike frame , wherein the sensor mount is adapted to a receptacle or opening on/in the bike frame , and wherein the sensor mount , together with the sensor housing , is received in a form- and/or force-locking manner on/in the bike frame , characterized in that the sensor mount can be inserted at the head side into the receptacle or opening of the bike frame and, directed towards the interior of the bike frame , has at least one or several retaining webs for fixing regions of the sensor housing .
A furniture fitment for moveably mounting a furniture part , preferably a furniture flap, relative to a furniture carcass , including a first fitment part for fixing to the furniture carcass and a second fitment part for fixing to the moveably mounted furniture part , wherein the two fitment parts are or can be pivotably connected together and at least one of the two fitment parts , preferably the first fitment part , is adapted to be arranged completely in a recess in the furniture carcass or in the moveably mounted furniture part , characterised in that the furniture fitment includes at least one fixing device for fixing the at least one fitment part in the recess , wherein the at least one fixing device includes at least one rotatably mounted actuating element and at least two fixing elements which can be at least region-wise sunk in a wall of the recess and/or can be pressed against the wall , wherein there is provided a coupling device with which a rotary movement of the at least one actuating element can be converted into a sinking movement and/or a pressing movement of the at least two fixing elements , wherein the at least one actuating element and the at least two fixing elements are arranged at a same side of the at least one fitment part and spaced from each other in a longitudinal direction of the at least one fitment part , wherein the side is a longitudinal side.
A method implemented using one or more processors, comprising: executing an automated assistant in an inactive listening state at least in part on a computing device operated by a user; while in the inactive listening state, detecting an event that triggers transition of the automated assistant from the inactive listening state into an active listening state, wherein first data indicative of sound captured by one or more microphones prior to the event is temporarily stored , as a pre-event input stream, in a memory buffer of the computing device operated by the user; obtaining, as a post-event input stream, second data indicative of sound captured by one or more of the microphones after detecting the event; while in the active listening state, determining respective measures of fitness of the pre-event and post-event input streams for triggering responsive action by the automated assistant; based on the respective measures of fitness, selecting the pre-event input stream or post-event input stream; and causing the automated assistant to perform one or more responsive actions based on the selected input stream. executing an automated assistant in an inactive listening state at least in part on a computing device operated by a user; while in the inactive listening state, detecting an event that triggers transition of the automated assistant from the inactive listening state into an active listening state, wherein first data indicative of sound captured by one or more microphones prior to the event is temporarily stored , as a pre-event input stream, in a memory buffer of the computing device operated by the user; obtaining, as a post-event input stream, second data indicative of sound captured by one or more of the microphones after detecting the event; while in the active listening state, determining respective measures of fitness of the pre-event and post-event input streams for triggering responsive action by the automated assistant; based on the respective measures of fitness, selecting the pre-event input stream or post-event input stream; and causing the automated assistant to perform one or more responsive actions based on the selected input stream.
A mixed-flow turbine wheel , comprising: a hub fixed to a rotational shaft ; a plurality of rotor blades disposed on a circumferential surface of the hub at intervals in a circumferential direction and configured such that each of the plurality of rotor blades has a leading edge which includes, in a meridional view, an oblique edge portion where a distance between the leading edge and an axis of the rotational shaft decreases from a tip side toward a hub side; and a sensor detection surface (S) having a flat shape and being applied with a marking which is detectable by an optical sensor device , wherein the sensor detection surface (S) is formed on at least one of the circumferential surface of the hub or an edge portion of a reference rotor blade being one of the plurality of rotor blades , such that, in the meridional view, a trailing-edge side angle of two angles formed between the axis of the rotational shaft and a normal of the sensor detection surface (S) is smaller than a trailing-edge side angle of two angles formed between the axis of the rotational shaft and a normal of the oblique edge portion , wherein the leading edge of the reference rotor blade includes, in the meridional view, a first parallel edge portion connecting to the oblique edge portion and extending in a direction parallel to the axis of the rotational shaft , and wherein the sensor detection surface (S) is formed on the first parallel edge portion . a hub fixed to a rotational shaft ; a plurality of rotor blades disposed on a circumferential surface of the hub at intervals in a circumferential direction and configured such that each of the plurality of rotor blades has a leading edge which includes, in a meridional view, an oblique edge portion where a distance between the leading edge and an axis of the rotational shaft decreases from a tip side toward a hub side; and a sensor detection surface (S) having a flat shape and being applied with a marking which is detectable by an optical sensor device , wherein the sensor detection surface (S) is formed on at least one of the circumferential surface of the hub or an edge portion of a reference rotor blade being one of the plurality of rotor blades , such that, in the meridional view, a trailing-edge side angle of two angles formed between the axis of the rotational shaft and a normal of the sensor detection surface (S) is smaller than a trailing-edge side angle of two angles formed between the axis of the rotational shaft and a normal of the oblique edge portion , wherein the leading edge of the reference rotor blade includes, in the meridional view, a first parallel edge portion connecting to the oblique edge portion and extending in a direction parallel to the axis of the rotational shaft , and wherein the sensor detection surface (S) is formed on the first parallel edge portion .
A data generating apparatus that generates shoe last data for manufacturing a shoe from measured foot shape data, the data generating apparatus comprising: an input unit that receives the foot shape data; a computing unit that computes the shoe last data from the foot shape data received by the input unit ; and an output unit that outputs the shoe last data computed by the computing unit , a storage unit that prestores a plurality of pieces of the shoe last data, wherein the input unit further receives selected additional information prior to the shoe last data being computed, and the computing unit selects one of the plurality of pieces of the shoe last data stored in the storage unit , based on the foot shape data, the shoe last data including first data corresponding to an upper-side region of the shoe and second data corresponding to a sole-side region of the shoe, specifies a portion of the selected piece of the shoe last data to be corrected, corrects a portion of the selected first data that is different from the foot shape data, corrects the second data to match the selected first data, combines corrected first data and corrected second data to generate shoe last data K, specifies a portion of the shoe last data K, corresponding to the corrected first data and corrected second data, to be corrected, based on the additional information, and calculates an amount of correction of the specified portion of the shoe last data K based on the additional information. an input unit that receives the foot shape data; a computing unit that computes the shoe last data from the foot shape data received by the input unit ; and an output unit that outputs the shoe last data computed by the computing unit , a storage unit that prestores a plurality of pieces of the shoe last data, wherein the input unit further receives selected additional information prior to the shoe last data being computed, and the computing unit selects one of the plurality of pieces of the shoe last data stored in the storage unit , based on the foot shape data, the shoe last data including first data corresponding to an upper-side region of the shoe and second data corresponding to a sole-side region of the shoe, specifies a portion of the selected piece of the shoe last data to be corrected, corrects a portion of the selected first data that is different from the foot shape data, corrects the second data to match the selected first data, combines corrected first data and corrected second data to generate shoe last data K, specifies a portion of the shoe last data K, corresponding to the corrected first data and corrected second data, to be corrected, based on the additional information, and calculates an amount of correction of the specified portion of the shoe last data K based on the additional information.
An atomization assembly, comprising an e-liquid tank ( ), a connector , a seal ring , a spring , a first fixed ring having an e-liquid inlet, an atomizer , a silicone seal , a silicone plug , and a base ; wherein the spring is disposed on the seal ring such as to rebound the seal ring to seal the e-liquid inlet when the atomizer is pulled out; the seal ring is disposed around the connector ; the connector , the seal ring , and the spring are disposed in the first fixed ring ; the silicone seal is disposed on the base ; the base is disposed on the e-liquid tank ; two ends of the first fixed ring are connected to the base and the e-liquid tank , respectively; the silicone plug is fixed on the base ; and the atomizer is fixed on the first fixed ring .
A bicycle frame including a seat tube configured to receive a seat post , a front part comprising a top tube connecting the seat tube to a head tube , said seat tube , said top tube and said head tube extending in a plane of symmetry of the bicycle frame , and a rear part comprising two bases and two seat stays arranged symmetrically relative to a plane of symmetry of the bicycle frame , characterized in that each seat stay has a section in perpendicular cross-section of elongated shape in a direction parallel to the plane of symmetry, in that the two seat stays are independent of one another and in that the two seat stays have a preform bowed in at least one arc of circle of a plane passing through the two seat stays, so as to allow the two seat stays to move away from or closer to one another under the action of a vertical force.
A shunt-resistance type current detector , comprising: a flat-plate shaped shunt resistor joined between a flat-plate shaped first bus bar including a first main body and a flat-plate shaped second bus bar including a second main body , wherein each of the bus bars includes a respective detection conductor connected to a current detector , the shunt resistor and each of the bus bars are joined via weld parts , a gap (S1) for mounting the shunt resistor is formed between the first bus bar and the second bus bar , and projected parts are formed each projected toward the gap (S1) from opposing faces opposing to each other in the gap (S1), and the shunt resistor comes in contact with each of the projected parts in a top-and-bottom direction, characterized in that each detection conductor is projected toward the near-direction side from a side face on the near-direction side out of the side face of the respective first and second main body , and the top ends of the detection conductors are formed toward an upper-direction side of the top-and-bottom direction. a flat-plate shaped shunt resistor joined between a flat-plate shaped first bus bar including a first main body and a flat-plate shaped second bus bar including a second main body , wherein each of the bus bars includes a respective detection conductor connected to a current detector , the shunt resistor and each of the bus bars are joined via weld parts , a gap (S1) for mounting the shunt resistor is formed between the first bus bar and the second bus bar , and projected parts are formed each projected toward the gap (S1) from opposing faces opposing to each other in the gap (S1), and the shunt resistor comes in contact with each of the projected parts in a top-and-bottom direction, characterized in that each detection conductor is projected toward the near-direction side from a side face on the near-direction side out of the side face of the respective first and second main body , and the top ends of the detection conductors are formed toward an upper-direction side of the top-and-bottom direction.
An electronic device comprising: a printed circuit board ; an antenna module including: a radio frequency integrated circuit mounted on the printed circuit board , and an array antenna coupled to an upper portion of the radio frequency integrated circuit ; and an electromagnetic wave shielding structure surrounding a side portion of the antenna module , wherein the array antenna comprises: an antenna substrate coupled to an upper portion of the radio frequency integrated circuit ; a plurality of radiators disposed on an upper surface of the antenna substrate ; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; wherein an upper end of the electromagnetic wave shielding structure covers the first ground pattern. a printed circuit board ; an antenna module including: a radio frequency integrated circuit mounted on the printed circuit board , and an array antenna coupled to an upper portion of the radio frequency integrated circuit ; and an electromagnetic wave shielding structure surrounding a side portion of the antenna module , wherein the array antenna comprises: an antenna substrate coupled to an upper portion of the radio frequency integrated circuit ; a plurality of radiators disposed on an upper surface of the antenna substrate ; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; wherein an upper end of the electromagnetic wave shielding structure covers the first ground pattern. a radio frequency integrated circuit mounted on the printed circuit board , and an array antenna coupled to an upper portion of the radio frequency integrated circuit ; and an electromagnetic wave shielding structure surrounding a side portion of the antenna module , wherein the array antenna comprises: an antenna substrate coupled to an upper portion of the radio frequency integrated circuit ; a plurality of radiators disposed on an upper surface of the antenna substrate ; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; an antenna substrate coupled to an upper portion of the radio frequency integrated circuit ; a plurality of radiators disposed on an upper surface of the antenna substrate ; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; wherein an upper end of the electromagnetic wave shielding structure covers the first ground pattern.
A vibrator assembly, comprising: a silo pipe having a longitudinal axis as well as a first end and a second end ; a vibrator unit mechanically coupled to the silo pipe ; a feeder assembly opening into the silo pipe at the first end and configured to receive material and direct it into the silo pipe , and a supply unit configured to feed material into the feeder assembly of the vibrator assembly, wherein the supply unit is arranged at least such at the silo pipe or at the feeder assembly that it may move parallel to the longitudinal axis of the silo pipe ; wherein the supply unit comprises at least one material container (521; 522) configured to receive material and deliver it into the feeder assembly , characterized in that the at least one material container (521; 522) is a hopper (610; 653); and the hopper (610; 653) comprises two material pits (621; 622) area-symmetrical to each other configured such that material being filled in is evenly distributed among the two material pits (621; 622) and the center of gravity of the supply unit even when filled coincides with the longitudinal axis . a silo pipe having a longitudinal axis as well as a first end and a second end ; a vibrator unit mechanically coupled to the silo pipe ; a feeder assembly opening into the silo pipe at the first end and configured to receive material and direct it into the silo pipe , and a supply unit configured to feed material into the feeder assembly of the vibrator assembly, wherein the supply unit is arranged at least such at the silo pipe or at the feeder assembly that it may move parallel to the longitudinal axis of the silo pipe ; wherein the supply unit comprises at least one material container (521; 522) configured to receive material and deliver it into the feeder assembly , characterized in that the at least one material container (521; 522) is a hopper (610; 653); and the hopper (610; 653) comprises two material pits (621; 622) area-symmetrical to each other configured such that material being filled in is evenly distributed among the two material pits (621; 622) and the center of gravity of the supply unit even when filled coincides with the longitudinal axis .