mhurhangee/patent-ind-claim-en huggingface dataset:
A cylindrical alkaline secondary battery comprising: a bottomed cylindrical outer can comprising a negative electrode terminal; a sealing body comprising a positive electrode terminal , the sealing body sealing an upper end opening of the outer can ; a columnar electrode group formed by placing a positive electrode and a negative electrode on top of each other with a separator therebetween and spirally winding the positive electrode and the negative electrode , the electrode group housed in the outer can along with an alkaline electrolyte; a current collector connected to an end edge portion of the positive electrode protruding from one end surface of the electrode group ; and a current collecting lead connecting the current collector and the sealing body , wherein the current collecting lead comprises a material a with a deformation resistance A and the current collector comprises a material b with a deformation resistance B such that the deformation resistance A and the deformation resistance B satisfies a relationship of A<B, wherein the current collecting lead comprises: a rectangular top wall portion connected to the sealing body ; a side wall portion extending from a predetermined side edge of the top wall portion toward the current collector ; and a leg portion provided on an end edge of the side wall portion and connected to the current collector and positioned to face the top wall portion , and a length of the side wall portion in a direction from the top wall portion toward the leg portion is equivalent to a length between the sealing body and the current collector . a bottomed cylindrical outer can comprising a negative electrode terminal; a sealing body comprising a positive electrode terminal , the sealing body sealing an upper end opening of the outer can ; a columnar electrode group formed by placing a positive electrode and a negative electrode on top of each other with a separator therebetween and spirally winding the positive electrode and the negative electrode , the electrode group housed in the outer can along with an alkaline electrolyte; a current collector connected to an end edge portion of the positive electrode protruding from one end surface of the electrode group ; and a current collecting lead connecting the current collector and the sealing body , wherein the current collecting lead comprises a material a with a deformation resistance A and the current collector comprises a material b with a deformation resistance B such that the deformation resistance A and the deformation resistance B satisfies a relationship of A<B, wherein the current collecting lead comprises: a rectangular top wall portion connected to the sealing body ; a side wall portion extending from a predetermined side edge of the top wall portion toward the current collector ; and a leg portion provided on an end edge of the side wall portion and connected to the current collector and positioned to face the top wall portion , and a length of the side wall portion in a direction from the top wall portion toward the leg portion is equivalent to a length between the sealing body and the current collector .
A fitting, in particular a door or window fitting, having a drive , via which various states of a bolt actuation device can be set, and a visual display device , which indicates the switching state of the bolt actuation device , wherein the visual display device is coupled to the bolt actuation device with an actuation shaft , characterized in that the actuation shaft is drivingly connected with a manually actuatable driving device coupled to the bolt actuation device , wherein the drive is a motorized power drive and the manually actuatable driving device is a drive-rod drive , which is passively actuated by the motorized drive .
A novel lightweight rocker arm frame, comprising: two sidewalls , and two bottom plates , wherein the two sidewalls are connected through the two bottom plates respectively located at two ends; a ball socket protruded upwards is arranged at a bottom plate at one end; a pin shaft hole is formed in the middle of each sidewall without the bottom plates ; extruded sidewalls are formed on two sides of a bottom of the bottom plate at the other end; and characterized in that an oil hole is arranged at a bottom plate at one end, and a bottom surface of a bottom plate at the other end is a bearing surface ; an outer side of each sidewall where the bearing surface is located is provided with a groove formed through extrusion. two sidewalls , and two bottom plates , wherein the two sidewalls are connected through the two bottom plates respectively located at two ends; a ball socket protruded upwards is arranged at a bottom plate at one end; a pin shaft hole is formed in the middle of each sidewall without the bottom plates ; extruded sidewalls are formed on two sides of a bottom of the bottom plate at the other end; and characterized in that an oil hole is arranged at a bottom plate at one end, and a bottom surface of a bottom plate at the other end is a bearing surface ; an outer side of each sidewall where the bearing surface is located is provided with a groove formed through extrusion.
Lighting device comprising: - a circuit support comprising a plurality of solid-state light sources , a plurality of positioning housings and a lateral surface ; - an optics support comprising a plurality of optical elements , each optical element being arranged in front of one of the solid-state light sources , the optics support further comprising positioning protrusions configured to fit the positioning housings of the circuit support ; - a holder support comprising a plurality of opaque walls , a first coupler and a second coupler , the holder support being arranged so that each opaque wall is located between two optical elements and the holder support being arranged so that at least a portion of the optics support is located between the holder support and the circuit support ; and - a microlenses support , comprising a plurality of groups of microlenses , each group of microlenses comprising a plurality of microlenses arranged to receive the light projected by one optical element ; wherein the first coupler is configured to couple the holder support to the circuit support; and wherein the second coupler is intended to retain the microlenses support . - a circuit support comprising a plurality of solid-state light sources , a plurality of positioning housings and a lateral surface ; - an optics support comprising a plurality of optical elements , each optical element being arranged in front of one of the solid-state light sources , the optics support further comprising positioning protrusions configured to fit the positioning housings of the circuit support ; - a holder support comprising a plurality of opaque walls , a first coupler and a second coupler , the holder support being arranged so that each opaque wall is located between two optical elements and the holder support being arranged so that at least a portion of the optics support is located between the holder support and the circuit support ; and - a microlenses support , comprising a plurality of groups of microlenses , each group of microlenses comprising a plurality of microlenses arranged to receive the light projected by one optical element ; wherein the first coupler is configured to couple the holder support to the circuit support; and wherein the second coupler is intended to retain the microlenses support . wherein the first coupler is configured to couple the holder support to the circuit support; and wherein the second coupler is intended to retain the microlenses support .
A method of transmitting uplink control information by a user equipment, UE, supporting a plurality of transmission time intervals, TTIs, a plurality of subcarrier spacings, or a plurality of processing times in a wireless communication system, the method comprising: receiving a configuration of repeated transmission of acknowledgement/nonacknowledgement, HARQ-ACK, information for a downlink transport block, wherein the configuration of repeated transmission includes a number of repeated transmission of HARQ-ACK information; receiving information including a number of TTIs to perform repeated transmission using a same short Physical Uplink Control Channel, sPUCCH, resource among TTIs for the repeated transmission; triggering the repeated transmission based on a predetermined condition being satisfied; obtaining a frequency hopping pattern based on the number of repeated transmission of HARQ-ACK information; and transmitting the HARQ-ACK information repeatedly based on the frequency hopping pattern and the number of TTIs to perform repeated transmission. receiving a configuration of repeated transmission of acknowledgement/nonacknowledgement, HARQ-ACK, information for a downlink transport block, wherein the configuration of repeated transmission includes a number of repeated transmission of HARQ-ACK information; receiving information including a number of TTIs to perform repeated transmission using a same short Physical Uplink Control Channel, sPUCCH, resource among TTIs for the repeated transmission; triggering the repeated transmission based on a predetermined condition being satisfied; obtaining a frequency hopping pattern based on the number of repeated transmission of HARQ-ACK information; and transmitting the HARQ-ACK information repeatedly based on the frequency hopping pattern and the number of TTIs to perform repeated transmission.
A rethermalizing station for rethermalizing or warming food items, the rethermalizing station comprising: a well defined by an exterior wall; a food pan configured to be inserted into the well and to hold a food item; a first induction coil surrounding the exterior wall of the well, the first induction coil configured to warm the food item via inductive heating of the food pan; a first temperature sensor configured to detect a temperature of the food pan; and a control unit coupled to the first induction coil and the first temperature sensor, the control unit configured to control the first induction coil in response to the temperature of the food pan detected by the first temperature sensor such that temperature of the food pan is maintained at a targeted temperature; characterized in that the control unit is configured to control the induction coil by varying a power output of the induction coil without using an on/off duty cycle. a well defined by an exterior wall; a food pan configured to be inserted into the well and to hold a food item; a first induction coil surrounding the exterior wall of the well, the first induction coil configured to warm the food item via inductive heating of the food pan; a first temperature sensor configured to detect a temperature of the food pan; and a control unit coupled to the first induction coil and the first temperature sensor, the control unit configured to control the first induction coil in response to the temperature of the food pan detected by the first temperature sensor such that temperature of the food pan is maintained at a targeted temperature; characterized in that the control unit is configured to control the induction coil by varying a power output of the induction coil without using an on/off duty cycle.
A knitted heat resistant sleeve for covering rollers in glass processing; characterized in that the knitted sleeve comprises knitted stitches; wherein the knitted stitches are plated stitches; wherein the plated stitches comprise at least two first yarns and at least one second yarn ; wherein the outer surface of the sleeve is at least predominantly provided or is provided by the at least two first yarns ; and wherein the inner surface of the sleeve is predominantly provided or is provided by the at least one second yarn (37, 47.
An elliptically polarizing plate comprising a linear polarizer , a first retardation film , a second retardation film , a third retardation film and a fourth retardation film sequentially, wherein the first retardation film is a -B plate having an Nz value of more than 1 in the following Equation 1, the second retardation film is a +B plate having an Nz value of less than 0 in the following Equation 1, or a +C plate satisfying the following Expression 1, the third retardation film has an Nz value of 0.8 to 1.2 in the following Equation 1, where its in-plane slow axis forms 43 degrees to 47 degrees with the absorption axis of the linear polarizer , and the fourth retardation film is a +B plate having a Nz value of -4.0 or less in the following Equation 1, or a +C plate satisfying the following Expression 1, and wherein the sum of the thickness direction retardation value of the first retardation film and the thickness direction retardation value of the second retardation film is in a range of -100 nm to 130 nm and the thickness direction retardation value (Rth) is defined by the following Equation 2: Nz = nx − nz / nx − ny Rth = nz − ny × d nx = ny < nz wherein, nx, ny and nz are refractive indexes of a retardation film in x-axis, y-axis and z-axis directions, respectively, the x-axis is the direction parallel to the in-plane slow axis of a retardation film, the y-axis is the direction parallel to the in-plane fast axis of a retardation film, the z-axis is the thickness direction of a retardation film, and d is the thickness of a retardation film. wherein the first retardation film is a -B plate having an Nz value of more than 1 in the following Equation 1, the second retardation film is a +B plate having an Nz value of less than 0 in the following Equation 1, or a +C plate satisfying the following Expression 1, the third retardation film has an Nz value of 0.8 to 1.2 in the following Equation 1, where its in-plane slow axis forms 43 degrees to 47 degrees with the absorption axis of the linear polarizer , and the fourth retardation film is a +B plate having a Nz value of -4.0 or less in the following Equation 1, or a +C plate satisfying the following Expression 1, and wherein the sum of the thickness direction retardation value of the first retardation film and the thickness direction retardation value of the second retardation film is in a range of -100 nm to 130 nm and the thickness direction retardation value (Rth) is defined by the following Equation 2: Nz = nx − nz / nx − ny Rth = nz − ny × d nx = ny < nz wherein, nx, ny and nz are refractive indexes of a retardation film in x-axis, y-axis and z-axis directions, respectively, the x-axis is the direction parallel to the in-plane slow axis of a retardation film, the y-axis is the direction parallel to the in-plane fast axis of a retardation film, the z-axis is the thickness direction of a retardation film, and d is the thickness of a retardation film.
An assembly 1 comprising a cooking pot 2 and a corresponding pot lid 3, for closing off the cooking pot 2, in which the assembly 1 is provided with a vapour passage 14 for removing vapour 13 from the assembly 1 , in which the vapour passage 14 extends in the direction of the cooking pot 2, and in which the vapour passage 14 is formed by one or more vapour passage channels 19, characterized in that cooking pot 2 comprises a niche 22, in which the vapour passage channels 19 extend into said niche 22.
Joint housing for a track rod, having a shaft housing for connection to an axial pin and a ball housing for receiving a ball joint, the shaft housing having an axial bore with an internal thread for receiving the axial pin, characterized in that the shaft housing and the ball housing are connected to one another by a transition region that is tapered over the entire cross-section with respect to the shaft housing , the transition region being curved with respect to its longitudinal axis .
Rubber composition based at least on natural rubber, on a copolymer of ethylene and of a 1,3-diene, on a carbon black and on a crosslinking system, the natural rubber content in the rubber composition being greater than 50 phr, the ethylene units in the copolymer representing more than 50 mol% of the monomer units of the copolymer.
A printed circuit board comprising: a core layer of a conductive metal having a thickness between 30 micrometer and 120 micrometer, an upper dielectric layer and a lower dielectric layer sandwiching the core layer, an upper conductive layer arranged above the upper dielectric layer and a lower conductive layer arranged below the lower dielectric layer ; at least one through via passing from the upper conductive layer to the lower conductive layer and filled at least partially with the dielectric material of the upper and/or lower dielectric layer; and at least one blind via , connecting the upper conductive layer with the core layer , wherein the at least one blind via has a diameter in the range of 10 micrometer to 150 micrometer, wherein the at least one blind via is filled with a thermally conductive material, in particular copper, and wherein the at least one through via comprises a conductive path through the core layer which is electrically isolated from the core layer by the dielectric material partially filling the through hole , and wherein the upper conductive layer is connected to the at least one through via and to the at least one blind via . a core layer of a conductive metal having a thickness between 30 micrometer and 120 micrometer, an upper dielectric layer and a lower dielectric layer sandwiching the core layer, an upper conductive layer arranged above the upper dielectric layer and a lower conductive layer arranged below the lower dielectric layer ; at least one through via passing from the upper conductive layer to the lower conductive layer and filled at least partially with the dielectric material of the upper and/or lower dielectric layer; and at least one blind via , connecting the upper conductive layer with the core layer ,
A delaminatable container comprising an outer shell and an inner bag , the inner bag to be shrunk with a decrease in contents, wherein the outer shell includes a fresh air inlet communicating an external space (S) with an intermediate space between the outer shell and the inner bag , the fresh air inlet has a valve member mounted thereto to regulate air communication between the intermediate space and the external space (S), the valve member includes a tube having a cavity provided to communicate the external space (S) with the intermediate space and a mobile part movably stored in the cavity , the tube has a stopper to stop the mobile part in movement of the mobile part from a side of the intermediate space towards a side of the external space (S) and to block air communication through the cavity , characterized in that the tube has an outer surface on the external space side provided with an adjacent region formed adjacent to an opening on the external space side of the cavity and a protruding region protruding from the adjacent region , and the valve member is configured, with the mobile part stopped by the stopper , to locate a height position, in a direction vertical to the fresh air inlet , of an end on the external space side of the mobile part higher than a height of the adjacent region . the outer shell includes a fresh air inlet communicating an external space (S) with an intermediate space between the outer shell and the inner bag , the fresh air inlet has a valve member mounted thereto to regulate air communication between the intermediate space and the external space (S), the valve member includes a tube having a cavity provided to communicate the external space (S) with the intermediate space and a mobile part movably stored in the cavity , the tube has a stopper to stop the mobile part in movement of the mobile part from a side of the intermediate space towards a side of the external space (S) and to block air communication through the cavity , characterized in that the tube has an outer surface on the external space side provided with an adjacent region formed adjacent to an opening on the external space side of the cavity and a protruding region protruding from the adjacent region , and the valve member is configured, with the mobile part stopped by the stopper , to locate a height position, in a direction vertical to the fresh air inlet , of an end on the external space side of the mobile part higher than a height of the adjacent region .
A connector having a front end and a rear end and configured to mate with a mating connector, said connector comprising: a housing having one or more cavities defined therein; a front wall having one or more orifices defined therein, wherein each of said orifices corresponds to one of said cavities and has an inner first diameter; and an optical contact at least partially disposed in one of said cavities , and comprising at least a ferrule extending from said cavity , said ferrule extending through the orifice corresponding to said cavity , said ferrule having a second diameter less than said first diameter such that a gap is defined between said ferrule and said front wall at said orifice ; characterized by a compliant member disposed at least partially in said gap and configured to suppress vibration between said housing and said optical contact . a housing having one or more cavities defined therein; a front wall having one or more orifices defined therein, wherein each of said orifices corresponds to one of said cavities and has an inner first diameter; and an optical contact at least partially disposed in one of said cavities , and comprising at least a ferrule extending from said cavity , said ferrule extending through the orifice corresponding to said cavity , said ferrule having a second diameter less than said first diameter such that a gap is defined between said ferrule and said front wall at said orifice ;
A collaborative robot joint with continuously variable transmission, comprising: • a carrying structure , • spheres (1 , 2 are caged in housings of the carrying structure • a compression spring which are mounted at the rear portion of bearings that push the spheres towards conical variators , the bearings used at the joining point of the spheres and a carrying structure , wherein the collaborative robot joint is configured to: • imposing pressure onto two conical variators from the lower and the upper points by means of the spheres in order to transmit rotational movement between the conical variators on which friction surface is covered in order to form friction surface thereof, • changing the frictional force between the spheres and the friction surface of the conical variators by changing the pretension of compression spring , which are pushing the spheres onto the conical variators , providing a transmission ratio change by means of the contact between bearings and the spheres ; • enabling linear movement opportunity to the sphere . • a carrying structure , • spheres (1 , 2 are caged in housings of the carrying structure • a compression spring which are mounted at the rear portion of bearings that push the spheres towards conical variators , the bearings used at the joining point of the spheres and a carrying structure , • imposing pressure onto two conical variators from the lower and the upper points by means of the spheres in order to transmit rotational movement between the conical variators on which friction surface is covered in order to form friction surface thereof, • changing the frictional force between the spheres and the friction surface of the conical variators by changing the pretension of compression spring , which are pushing the spheres onto the conical variators , • enabling linear movement opportunity to the sphere .