mhurhangee/patent-ind-claim-en huggingface dataset:
An IC tag label comprising: an IC chip ; a communication antenna element having a first end and a second end, the first end being electrically connected to the IC chip , the communication antenna element including a planar coil extending on a first surface ; and a bridge wiring including a wiring element which is located in an opposed region on a second surface which is opposed to the first surface, the bridge wiring electrically connecting the second end to the IC chip, wherein the communication antenna element has an air core section which includes a center of the planar coil, and characterized in that the communication antenna element has a shape suitable for positioning on a bottle mouth, and A) the wiring element is a single wire including a plurality of bent sections (141c1) and having a folded line shape which traverses the air core section a plurality of times in plan view perpendicular to the first surface, or B) the wiring element is a single wire having a spiral shape overlapped with the air core section in plan view perpendicular to the first surface. an IC chip ; a communication antenna element having a first end and a second end, the first end being electrically connected to the IC chip , the communication antenna element including a planar coil extending on a first surface ; and a bridge wiring including a wiring element which is located in an opposed region on a second surface which is opposed to the first surface, the bridge wiring electrically connecting the second end to the IC chip, wherein the communication antenna element has an air core section which includes a center of the planar coil, and characterized in that the communication antenna element has a shape suitable for positioning on a bottle mouth, and A) the wiring element is a single wire including a plurality of bent sections (141c1) and having a folded line shape which traverses the air core section a plurality of times in plan view perpendicular to the first surface, or B) the wiring element is a single wire having a spiral shape overlapped with the air core section in plan view perpendicular to the first surface. A) the wiring element is a single wire including a plurality of bent sections (141c1) and having a folded line shape which traverses the air core section a plurality of times in plan view perpendicular to the first surface, or B) the wiring element is a single wire having a spiral shape overlapped with the air core section in plan view perpendicular to the first surface.
Compact power unit, at least consisting of - at least one electric motor received in housing parts of a power unit housing , said motor driving at least one hydraulic pump and giving off heat in the process; - an air-heat exchanger apparatus ; and - a fan , which can be driven to generate an air flow , a flow guide apparatus being provided in the power unit housing , characterised in that the flow guide apparatus subdivides at least one first partial flow flowing around the electric motor and a second partial flow flowing to the heat exchanger apparatus ; and in that the electric motor drives a first hydraulic pump and a second hydraulic pump , which are connected via their suction side to a tank storing hydraulic fluid, the first hydraulic pump of said pumps generating a fluid flow through the heat exchanger apparatus to the tank and the second hydraulic pump serving to supply pressure to at least one operating hydraulic system. - at least one electric motor received in housing parts of a power unit housing , said motor driving at least one hydraulic pump and giving off heat in the process; - an air-heat exchanger apparatus ; and - a fan , which can be driven to generate an air flow ,
Crankshaft for an internal combustion engine of a motor vehicle, mounted so as to be able to move in rotation, comprising at least one journal and at least one crankpin separated by a crank arm , said crank arm comprising at one end a counterweight whose volume can be submerged in an oil bath, characterized in that a part of the counterweight comprises a protective layer for reducing friction in the oil bath and shear of said oil bath as the counterweight passes through said bath.
An anti-191P4D12 antibody or antigen binding fragment thereof comprising a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region comprises a CDRH1 consisting of the amino acid sequence ranging from 45 to 52 of SEQ ID NO:7, a CDRH2 consisting of the amino acid sequence ranging from 70 to 77 of SEQ ID NO:7, and a CDRH3 consisting of the amino acid sequence ranging from 116 to 125 of SEQ ID NO:7, and wherein the light chain variable region comprises a CDRL1 consisting of the amino acid sequence ranging from 49 to 54 of SEQ ID NO:8, a CDRL2 consisting of the amino acid sequence ranging from 72 to 74 of SEQ ID NO:8, and a CDRL3 consisting of the amino acid sequence ranging from 111 to 119 of SEQ ID NO:8.
An engineered cell comprising a chimeric antigen receptor (CAR) and a membrane-bound fusion protein comprising IL-15 and IL-15Rα.
Method for measuring the mass distribution along the width of a strip, in particular a dough strip, moved along its longitudinal direction with predetermined target width, wherein by means of at least two weighing cells , which are arranged at a distance to one another with respect to the width of the strip, the weight of at least one dough strand or dough piece having a width defined by the distances of the weighing cells is detected, - wherein the mass of the partial pieces of the strip is determined taking into account the distance of the weighing cells to one another, the position of the weighing cells along the width of the strip, the strip speed and the measured values of the weight of the partial pieces detected by the weighing cells , in particular, over a defined time period, characterised in that the weighing cells and/or transport rollers or sliding supports connected to the weighing cells extend beyond the transport plane of the strip, in particular the dough strip, wherein the strip, in particular, the dough strip, is guided in a predetermined area over the weighing cells and/or transport rollers and/or sliding supports in such a manner that the strip, in particular, the dough strip at least partially wraps around the weighing cells and/or transport rollers and/or sliding supports and wherein the tension within the strip, in particular, the dough strip is determined on the basis of the change of the measured values measured of the weighing cells . - wherein the mass of the partial pieces of the strip is determined taking into account the distance of the weighing cells to one another, the position of the weighing cells along the width of the strip, the strip speed and the measured values of the weight of the partial pieces detected by the weighing cells , in particular, over a defined time period, characterised in that the weighing cells and/or transport rollers or sliding supports connected to the weighing cells extend beyond the transport plane of the strip, in particular the dough strip, wherein the strip, in particular, the dough strip, is guided in a predetermined area over the weighing cells and/or transport rollers and/or sliding supports in such a manner that the strip, in particular, the dough strip at least partially wraps around the weighing cells and/or transport rollers and/or sliding supports and wherein the tension within the strip, in particular, the dough strip is determined on the basis of the change of the measured values measured of the weighing cells .
A method for tracking movement of a head-worn display in relation to a platform , comprising: transmitting polarized electromagnetic radiation from a plurality of emitters, the emitters affixed to one of the head-worn display and the platform, the head-worn display configured to be pointed in at least one of a plurality of directions relative to the platform with six degrees of freedom ; receiving the polarized electromagnetic radiation by a plurality of polarized detectors affixed to the other of the head-worn display and the platform , the plurality of polarized detectors matching the plurality of emitters resulting in matched emitter-detector pairings, wherein each detector of the plurality of polarized detectors has a different orientation of polarizer associated therewith; measuring polarized electromagnetic radiation levels of the polarized electromagnetic radiation received by the plurality of polarized detectors; analyzing the received polarized electromagnetic radiation levels to convert the received polarized electromagnetic radiation levels into at least six degrees of freedom including at least three angular and three linear and determine a set of angles and spatial coordinates of the head-worn display relative to the platform ; determining information to be displayed using the spatial coordinates; and displaying the information on the head-worn display. transmitting polarized electromagnetic radiation from a plurality of emitters, the emitters affixed to one of the head-worn display and the platform, the head-worn display configured to be pointed in at least one of a plurality of directions relative to the platform with six degrees of freedom ; receiving the polarized electromagnetic radiation by a plurality of polarized detectors affixed to the other of the head-worn display and the platform , the plurality of polarized detectors matching the plurality of emitters resulting in matched emitter-detector pairings, wherein each detector of the plurality of polarized detectors has a different orientation of polarizer associated therewith; measuring polarized electromagnetic radiation levels of the polarized electromagnetic radiation received by the plurality of polarized detectors; analyzing the received polarized electromagnetic radiation levels to convert the received polarized electromagnetic radiation levels into at least six degrees of freedom including at least three angular and three linear and determine a set of angles and spatial coordinates of the head-worn display relative to the platform ; determining information to be displayed using the spatial coordinates; and displaying the information on the head-worn display.
A crystalline solid having an empirical formula of M 2 A 2 X, wherein M is Cr, Hf, Sc, Ti, Mo, Nb, Ta, V, Zr, or a combination thereof; wherein A is Al, Ga, Ge, In, Pb, or Sn, or a combination thereof; and each X is C x N y , where x + y = 1.
A multilayer humidifier wick , including at least a top layer , a bottom layer , and a heating element operatively increasing the temperature of water in the wick intermediate the top and bottom layer , characterised in that the top and bottom layer being hydrophilic and in communication so that water passes through the bottom layer , through the heating element , to the top layer by a wicking action, and in that the wick further includes a transport component extending down from the bottom layer , so that the transport component is operatively adapted to project into a reservoir of water and transport water from the reservoir to the bottom layer by a wicking action.
A control method for an internal combustion engine as a driving source of a vehicle, comprising: starting the internal combustion engine by restarting fuel supply to the internal combustion engine which has been automatically stopped during running of the vehicle, wherein, when a rotation speed of the internal combustion engine is higher than or equal to a predetermined first rotation speed, the starting of the internal combustion engine is effected by restarting the fuel supply to the internal combustion engine , wherein, when the rotation speed of the internal combustion engine is lower than the predetermined first rotation speed, the starting of the internal combustion engine is effected by restarting the fuel supply to the internal combustion engine and performing cranking of the internal combustion engine by a motor , and characterized in that the first rotation speed is set lower in a state where a lock-up clutch of a torque converter arranged between the internal combustion engine and a transmission is engaged than in a state where the lock-up clutch of the torque converter is released.
An apparatus comprising: a convolutional encoder for coding an input ( l ) to produce three output streams of coded bits (P 1 , P 2 , P 3 ), wherein said encoder implements a rate 1/3 tail-biting convolutional code with a constraint length k=7 and a generator polynomial o ; an interleaver for interleaving coded bits within each stream of coded bits, wherein the interleaver is configured to order coded bits such that odd-indexed coded bits precede even-indexed coded bits within each stream of coded bits; and a rate-matching means for outputting (C) said interleaved coded bits ( P 1 ', P 2 ', P 3 ') ordered by stream. a convolutional encoder for coding an input ( l ) to produce three output streams of coded bits (P 1 , P 2 , P 3 ), wherein said encoder implements a rate 1/3 tail-biting convolutional code with a constraint length k=7 and a generator polynomial o ; an interleaver for interleaving coded bits within each stream of coded bits, wherein the interleaver is configured to order coded bits such that odd-indexed coded bits precede even-indexed coded bits within each stream of coded bits; and a rate-matching means for outputting (C) said interleaved coded bits ( P 1 ', P 2 ', P 3 ') ordered by stream.
A DC interrupting device comprising: a (k-1)th current path (10(k-1)) including a (k-1)th current-limiting fuse (H k-1 ), where k is an integer of not less than two and not more than N, and N is an integer of not less than two; and a kth current path connected in parallel to the (k-1)th current path (10(k-1)) and including a kth current-limiting fuse (H k ), wherein an inductance value of an inductance component of the kth current path is higher than an inductance value of an inductance component of the (k-1)th current path (10(k-1)); wherein the first to Nth current paths (10-10N) have resistance components equal in resistance value. a (k-1)th current path (10(k-1)) including a (k-1)th current-limiting fuse (H k-1 ), where k is an integer of not less than two and not more than N, and N is an integer of not less than two; and a kth current path connected in parallel to the (k-1)th current path (10(k-1)) and including a kth current-limiting fuse (H k ), wherein an inductance value of an inductance component of the kth current path is higher than an inductance value of an inductance component of the (k-1)th current path (10(k-1)); wherein the first to Nth current paths (10-10N) have resistance components equal in resistance value.
Protective cap for a gas container , comprising: - a cap body , - a first pair of support uprights that are secured to the cap body and bear a first carry handle , and - a second pair of support uprights that are secured to the cap body and bear a second carry handle , the first and second carry handles surmounting the cap body , and the support uprights of the first pair of support uprights and the support uprights of the second pair of support uprights being fixed with respect to one another and fixed with respect to the cap body , characterized in that : - the support uprights of the first pair of support uprights and the support uprights of the second pair of support uprights comprise a common base fixed to the cap body , said support uprights of the first and second pairs of support uprights (3, 4; 6, 7) and the common bases of said support uprights (3, 4; 6, 7) forming Y- or V-shaped structures, - the support uprights of the first pair of support uprights form, with the support uprights of the second pair of support uprights , an angle (a) of between 20° and 80°, and - the first and second carry handles are spaced apart from one another by a spacing (E) of between 4 cm and 15 cm. - a cap body , - a first pair of support uprights that are secured to the cap body and bear a first carry handle , and - a second pair of support uprights that are secured to the cap body and bear a second carry handle , the first and second carry handles surmounting the cap body , and the support uprights of the first pair of support uprights and the support uprights of the second pair of support uprights being fixed with respect to one another and fixed with respect to the cap body , - the support uprights of the first pair of support uprights and the support uprights of the second pair of support uprights comprise a common base fixed to the cap body , said support uprights of the first and second pairs of support uprights (3, 4; 6, 7) and the common bases of said support uprights (3, 4; 6, 7) forming Y- or V-shaped structures, - the support uprights of the first pair of support uprights form, with the support uprights of the second pair of support uprights , an angle (a) of between 20° and 80°, and - the first and second carry handles are spaced apart from one another by a spacing (E) of between 4 cm and 15 cm.
A device comprising: an array of contact pads , each contact pad operable in an active state and an idle state; a space for one or more objects that can be inserted into the device to make contact with at least part of the contact pads when inserted; a control element electrically connected to the contact pads ; and a memory connected to the control element ; wherein the contact pads in the active state are reconfigurable by the control element based on the contact made with at least part of the contact pads by one or more objects inserted into the device ; characterised in that the memory is configured to store data including geometrical properties of one or more objects that can be inserted into the device ; the device is configured to determine geometrical properties of one or more objects inserted into the device based on the contact made with at least part of the contact pads by the one or more objects inserted into the device ; the control element is configured to identify a type of the one or more objects inserted into the device based on their geometrical properties; and the contact pads in the active state are reconfigurable by the control element based on the identified type of the one or more objects inserted into the device . an array of contact pads , each contact pad operable in an active state and an idle state; a space for one or more objects that can be inserted into the device to make contact with at least part of the contact pads when inserted; a control element electrically connected to the contact pads ; and a memory connected to the control element ; wherein the contact pads in the active state are reconfigurable by the control element based on the contact made with at least part of the contact pads by one or more objects inserted into the device ; characterised in that the memory is configured to store data including geometrical properties of one or more objects that can be inserted into the device ; the device is configured to determine geometrical properties of one or more objects inserted into the device based on the contact made with at least part of the contact pads by the one or more objects inserted into the device ; the control element is configured to identify a type of the one or more objects inserted into the device based on their geometrical properties; and the contact pads in the active state are reconfigurable by the control element based on the identified type of the one or more objects inserted into the device .
An airfoil body comprising at least one of: (a) a plurality of leading edge tubercles (T1-T13) and (b) a plurality of trailing edge crenulations (C1-C8); wherein the airfoil body has a root chord , a pivot point (P17) inboard of the root chord , a max span point corresponding to a peak of the outermost tubercle (T11), and a maximum span segment (L11) between the pivot point (P17) and the max span point; characterized in that the plurality of leading edge tubercles (T1-T13) have peaks located in Fibonacci proportions with respect to the maximum span segment (L11) of the airfoil body and the plurality of trailing edge crenulations (C1-C8) have peaks located in Fibonacci proportions with respect to the maximum span segment (L11) of the airfoil body. wherein the airfoil body has a root chord , a pivot point (P17) inboard of the root chord , a max span point corresponding to a peak of the outermost tubercle (T11), and a maximum span segment (L11) between the pivot point (P17) and the max span point; characterized in that the plurality of leading edge tubercles (T1-T13) have peaks located in Fibonacci proportions with respect to the maximum span segment (L11) of the airfoil body and the plurality of trailing edge crenulations (C1-C8) have peaks located in Fibonacci proportions with respect to the maximum span segment (L11) of the airfoil body.
A method for using an antenna, the method comprising: receiving position data indicative of an antenna aperture of an antenna comprising an array of antenna elements after the antenna has been placed in a position for maximum solar energy capture based on its orientation towards the sun to increase capture of solar energy by one or more photovoltaic, PV, structures integrated onto an optically transparent substrate of the antenna aperture, wherein the array of antenna elements comprises a tunable slotted array of antenna elements that comprises a plurality of slots, wherein the optically transparent substrate is a patch substrate which further contains the tunable slotted array of antenna elements and a plurality of patches, wherein each of the patches in the plurality of patches is co-located over and separated from a slot in the plurality of slots by a metamaterial element forming a patch/slot pair, wherein the one or more PV structures are located between the antenna elements in the tunable slotted array of antenna elements and are connected together using a patch metal layer on the optically transparent substrate; and in response to the position data, electronically steering the tunable slotted array of antenna elements of the antenna to redirect a beam toward a satellite based on the position of the antenna while maintaining the position of the antenna for increased capture of the solar energy. receiving position data indicative of an antenna aperture of an antenna comprising an array of antenna elements after the antenna has been placed in a position for maximum solar energy capture based on its orientation towards the sun to increase capture of solar energy by one or more photovoltaic, PV, structures integrated onto an optically transparent substrate of the antenna aperture, wherein the array of antenna elements comprises a tunable slotted array of antenna elements that comprises a plurality of slots, wherein the optically transparent substrate is a patch substrate which further contains the tunable slotted array of antenna elements and a plurality of patches, wherein each of the patches in the plurality of patches is co-located over and separated from a slot in the plurality of slots by a metamaterial element forming a patch/slot pair, wherein the one or more PV structures are located between the antenna elements in the tunable slotted array of antenna elements and are connected together using a patch metal layer on the optically transparent substrate; and in response to the position data, electronically steering the tunable slotted array of antenna elements of the antenna to redirect a beam toward a satellite based on the position of the antenna while maintaining the position of the antenna for increased capture of the solar energy.
A nerve regeneration device comprising a matrix contained within a bioresorbable conduit having a longitudinal axis, the matrix comprising elongate pores aligned with said longitudinal axis; the matrix comprising collagen, fibronectin, laminin-1, and laminin-2; wherein the amount, by weight, of laminin-1 or laminin-2 is greater than the amount of fibronectin in the matrix. the matrix comprising collagen, fibronectin, laminin-1, and laminin-2; wherein the amount, by weight, of laminin-1 or laminin-2 is greater than the amount of fibronectin in the matrix.