mhurhangee/patent-ind-claim-en huggingface dataset:
A method for receiving a physical downlink shared channel by a terminal in a wireless communication system, the method comprising: receiving a physical downlink control channel, PDCCH, including first resource information for reception of a physical downlink shared channel, PDSCH, wherein the first resource information comprises information related to a symbol length and a relative start symbol index in a time domain resource for reception of the PDSCH; and receiving the PDSCH on the time domain resource determined based on the first resource information, wherein the PDSCH and the PDCCH belong to different cells, wherein a start symbol index of the time domain resource is determined based on a sum of the relative start symbol index and a reference symbol index, when a condition is satisfied, the reference symbol index is an index of an earliest symbol among symbols for monitoring the PDCCH, and when the condition is not satisfied, the reference symbol index is an index of an earliest symbol of a slot in which the PDSCH is received, and wherein the condition includes a case that the first subcarrier spacing, SCS, for the PDCCH and a second SCS for the PDSCH are the same. receiving a physical downlink control channel, PDCCH, including first resource information for reception of a physical downlink shared channel, PDSCH, wherein the first resource information comprises information related to a symbol length and a relative start symbol index in a time domain resource for reception of the PDSCH; and receiving the PDSCH on the time domain resource determined based on the first resource information, wherein the PDSCH and the PDCCH belong to different cells, wherein a start symbol index of the time domain resource is determined based on a sum of the relative start symbol index and a reference symbol index, when a condition is satisfied, the reference symbol index is an index of an earliest symbol among symbols for monitoring the PDCCH, and when the condition is not satisfied, the reference symbol index is an index of an earliest symbol of a slot in which the PDSCH is received, and wherein the condition includes a case that the first subcarrier spacing, SCS, for the PDCCH and a second SCS for the PDSCH are the same.
A self-supporting spatial structure, particularly for furniture construction, comprising connectors and walls characterised in that the structure is created by folding a cut-out sheet along the incisions of the sheet, the incisions creating at least two parallel rows of rectangles or squares , separated by symmetrical placed triangles , whose apexes coincide with the line of incision of the first row, and the angle between them is the condition for the angle between the blocks after folding by complementing the angle to obtain 180° and the parallel rows of rectangles are joined by trapeziums , which are equipped at their outer edges with foldable triangular, trapezoidal or rectangular overlaps wherein in the second row of the rectangles or squares the rectangles or squares are separated by symmetrical trapeziums touching each other along shorter bases, wherein the bases are located in the line of incisions of the first row of the rectangles or squares , and a rhombic pass-through cut-out is created between the symmetrical placed triangles and the symmetrical trapeziums .
A cargo container assembly adapted to be delivered in an aircraft for transporting a temperature sensitive cargo supported by a pallet, said assembly comprising a box-like outer shell including side , top and bottom walls and having a front opening and a movable door assembly for closing said front opening, a box-like inner shell within said outer shell and including side , top and bottom walls spaced inwardly from the corresponding said walls of said outer shell and defining a cargo receiving chamber , thermal insulation material (145-148) confined between the corresponding said side, top and bottom walls of said inner and outer shells, a refrigeration system carried by said shells and connected to cool said chamber and including a compressor and at least one exhaust fan , characterized in that a smoke detection system is connected to control said exhaust fan, and said smoke detection system includes at least one smoke detector connected to de-energize said exhaust fan in response to the detection of smoke in the ambient air outside of said cargo container assembly.
A mower blade for a lawn maintenance device, including a blade which is elongate and has opposed end edges and opposed side edges, wherein the blade defines a blade major axis and a center axis , extended transverse to the blade and separating the blade into opposed elongate end portions extended from the center axis , wherein the mower blade is adapted for mounting onto a rotary mower for rotation about the center axis , wherein the blade further defines a retaining plate aperture that is centrally located and is asymmetric about the center axis , wherein the retaining plate aperture comprises a first portion and a second portion , partially intersecting the first portion , wherein the first portion has a long dimension , a short dimension , and a first centerline along its long dimension , the second portion has a long dimension , a short dimension , and a second centerline along its long dimension , characterized in that the first centerline and the second centerline are offset from one another along a direction substantially perpendicular to the first centerline and the second centerline .
Large-diameter pipe arrangement for a pipeline, comprising: a first pipe section with a first external diameter and a first wall thickness and a second pipe section with a second external diameter and a second wall thickness, wherein the first external diameter and the first wall thickness are each larger than the second external diameter and the second wall thickness, the first pipe section is connected with, namely welded to, the second pipe section in a transition region , and the first and second pipe sections and the transition region are provided with a continuous and homogeneous multi-layered outer coating which comprises a continuous, homogeneous fusion bonded epoxy (FBE) inner layer and a continuous, homogeneous polyolefin outer layer . a first pipe section with a first external diameter and a first wall thickness and a second pipe section with a second external diameter and a second wall thickness, wherein the first external diameter and the first wall thickness are each larger than the second external diameter and the second wall thickness, the first pipe section is connected with, namely welded to, the second pipe section in a transition region , and the first and second pipe sections and the transition region are provided with a continuous and homogeneous multi-layered outer coating which comprises a continuous, homogeneous fusion bonded epoxy (FBE) inner layer and a continuous, homogeneous polyolefin outer layer .
A photonic integrated circuit package, comprising: a photonic integrated circuit chip , comprising: a traveling wave active optical element ; multiple electrodes (406a-406c) configured to receive an electrical signal, wherein at least one characteristics of a segment of the traveling wave active optical element is changed based on the electrical signal received by a corresponding electrode of the multiple electrodes; a ground electrode ; and multiple bond contacts (409a-409c); and an interposer having a first surface bonded to at least a portion of the photonic integrated circuit chip , the interposer comprising: a conductive trace formed on the first surface of the interposer, the conductive trace electrically coupled to a source of the electrical signal; a ground trace ; and multiple conductive vias (454a-454b, ) electrically coupled to the conductive trace , wherein each conductive via of the multiple conductive vias is bonded with a respective bond contact of the multiple bond contacts (409a-409c) of the photonic integrated circuit chip ; a bridge chip bonded to a second surface of the interposer opposite the first surface, the bridge chip having first conductive pond pads connected to the multiple conductive vias (454a-454b, ) of the interposer and second conductive pond pads ; and an ASIC chip having a ground contact and a bond contact connected to the second conductive pond pads of the bridge chip. a traveling wave active optical element ; multiple electrodes (406a-406c) configured to receive an electrical signal, wherein at least one characteristics of a segment of the traveling wave active optical element is changed based on the electrical signal received by a corresponding electrode of the multiple electrodes; a ground electrode ; and multiple bond contacts (409a-409c); and an interposer having a first surface bonded to at least a portion of the photonic integrated circuit chip , the interposer comprising: a conductive trace formed on the first surface of the interposer, the conductive trace electrically coupled to a source of the electrical signal; a ground trace ; and multiple conductive vias (454a-454b, ) electrically coupled to the conductive trace , wherein each conductive via of the multiple conductive vias is bonded with a respective bond contact of the multiple bond contacts (409a-409c) of the photonic integrated circuit chip ; a bridge chip bonded to a second surface of the interposer opposite the first surface, the bridge chip having first conductive pond pads connected to the multiple conductive vias (454a-454b, ) of the interposer and second conductive pond pads ; and an ASIC chip having a ground contact and a bond contact connected to the second conductive pond pads of the bridge chip.
A method performed by a wireless transmit receive unit, WTRU, the method comprising: receiving configuration information including information regarding a change in an identity of a serving cell, one or more conditions for the change in the identity of the serving cell, and associated WTRU behavior; monitoring the one or more conditions for the change in the identity of the serving cell; on a condition that the one or more conditions for the change in the identity of the serving cell are fulfilled, changing the identity of the serving cell to a new cell identity; deriving one or more new security keys based on the new cell identity; anc using the one or more new security keys according to a configured security key handling behavior for communication with the serving cell. receiving configuration information including information regarding a change in an identity of a serving cell, one or more conditions for the change in the identity of the serving cell, and associated WTRU behavior; monitoring the one or more conditions for the change in the identity of the serving cell; on a condition that the one or more conditions for the change in the identity of the serving cell are fulfilled, changing the identity of the serving cell to a new cell identity; deriving one or more new security keys based on the new cell identity; anc using the one or more new security keys according to a configured security key handling behavior for communication with the serving cell.
An elastic barrier coating composition comprising: (a) an aqueous dispersion of core-shell particles, the core-shell particles comprising a polymeric core at least partially encapsulated by a polymeric shell, wherein the polymeric shell comprises: (i) a barrier segment comprising aromatic groups and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment comprising ester linkages, ether linkages, sulfide linkages, natural rubber, synthetic rubber, or combinations thereof and that is different from (i), the barrier segment comprises at least 30 weight % of the polymeric shell based on the total solids weight of the polymeric shell, and wherein the polymeric shell is covalently bonded to at least a portion of the polymeric core; and (b) an elastomeric polymer that is different from (a). (a) an aqueous dispersion of core-shell particles, the core-shell particles comprising a polymeric core at least partially encapsulated by a polymeric shell, wherein the polymeric shell comprises: (i) a barrier segment comprising aromatic groups and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment comprising ester linkages, ether linkages, sulfide linkages, natural rubber, synthetic rubber, or combinations thereof and that is different from (i), the barrier segment comprises at least 30 weight % of the polymeric shell based on the total solids weight of the polymeric shell, and wherein the polymeric shell is covalently bonded to at least a portion of the polymeric core; and wherein the polymeric shell comprises: (i) a barrier segment comprising aromatic groups and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment comprising ester linkages, ether linkages, sulfide linkages, natural rubber, synthetic rubber, or combinations thereof and that is different from (i), the barrier segment comprises at least 30 weight % of the polymeric shell based on the total solids weight of the polymeric shell, and wherein the polymeric shell is covalently bonded to at least a portion of the polymeric core; and (b) an elastomeric polymer that is different from (a).
An electric vehicle drive device comprising: a tube-shaped case (G) including a partition wall (G11) provided to an inside thereof; a first motor including a first rotor core capable of rotating about a rotation axis (R) and a first member to be detected configured to rotate together with the first rotor core ; a first rotation angle detector coupled to the partition wall (G11) and facing the first member to be detected ; a first signal line connected to the first rotation angle detector ; a second motor including a second rotor core capable of rotating about the rotation axis (R) and a second member to be detected configured to rotate together with the second rotor core , the second motor arranged at an opposite side to the first motor with the partition wall (G11) being interposed between the first motor and the second motor ; a second rotation angle detector coupled to the partition wall (G11) and facing the second member to be detected ; a second signal line connected to the second rotation angle detector ; and a transmission mechanism coupled to the first motor and the second motor and capable of switching a deceleration ratio, characterized in that when seen from a direction of the rotation axis (R), a first line (L1) passing a root of the first signal line on a side of the first rotation angle detector and the rotation axis (R) is overlapped with a second line (L2) passing a root of the second signal line on a side of the second rotation angle detector and the rotation axis (R). a tube-shaped case (G) including a partition wall (G11) provided to an inside thereof; a first motor including a first rotor core capable of rotating about a rotation axis (R) and a first member to be detected configured to rotate together with the first rotor core ; a first rotation angle detector coupled to the partition wall (G11) and facing the first member to be detected ; a first signal line connected to the first rotation angle detector ; a second motor including a second rotor core capable of rotating about the rotation axis (R) and a second member to be detected configured to rotate together with the second rotor core , the second motor arranged at an opposite side to the first motor with the partition wall (G11) being interposed between the first motor and the second motor ; a second rotation angle detector coupled to the partition wall (G11) and facing the second member to be detected ; a second signal line connected to the second rotation angle detector ; and a transmission mechanism coupled to the first motor and the second motor and capable of switching a deceleration ratio, characterized in that when seen from a direction of the rotation axis (R), a first line (L1) passing a root of the first signal line on a side of the first rotation angle detector and the rotation axis (R) is overlapped with a second line (L2) passing a root of the second signal line on a side of the second rotation angle detector and the rotation axis (R).
A method of improving a wireless charging efficiency, the method being applicable to an electronic device supporting wireless charge, and comprising: adjusting a current capacitance value of a resonant capacitor (C7) in a receiver of the electronic device to a target capacitance value, characterized in that : wherein the target capacitance value is determined according to an actual working frequency of a transmitter of a wireless charging device for charging the electronic device and an open circuit inductance value of the receiver; when it is detected that the transmitter is placed on the receiver, controlling a transmitting coil (L11) of the transmitter in an open-circuit state within a specified time period, determining the open circuit inductance value in the receiver, wherein the open circuit inductance value is an inductance value corresponding to a receiving coil (L22) in the receiver when the transmitting coil (L1 1) is in the open-circuit state; when it is detected that the transmitter is placed on the receiver, obtaining the actual working frequency of the transmitter; and determining the target capacitance value of the resonant capacitor (C7) according to the actual working frequency and the open circuit inductance value. adjusting a current capacitance value of a resonant capacitor (C7) in a receiver of the electronic device to a target capacitance value, characterized in that : wherein the target capacitance value is determined according to an actual working frequency of a transmitter of a wireless charging device for charging the electronic device and an open circuit inductance value of the receiver; when it is detected that the transmitter is placed on the receiver, controlling a transmitting coil (L11) of the transmitter in an open-circuit state within a specified time period, determining the open circuit inductance value in the receiver, wherein the open circuit inductance value is an inductance value corresponding to a receiving coil (L22) in the receiver when the transmitting coil (L1 1) is in the open-circuit state; when it is detected that the transmitter is placed on the receiver, obtaining the actual working frequency of the transmitter; and determining the target capacitance value of the resonant capacitor (C7) according to the actual working frequency and the open circuit inductance value.
A puncture support, comprising a support body made of a hard material, characterized in that the outside of the support body is covered with a soft support coating , and that a binding layer is disposed between the support body and the soft support coating . the outside of the support body is covered with a soft support coating , and that a binding layer is disposed between the support body and the soft support coating .
A winch system for coupling to a processor energy source having multiple processor driving rollers and providing energy to the winch system , the winch system comprising: a body having a front face , a back face , lateral sides , a top , a bottom and an imaginary vertical axis; multiple drive rollers that are adapted to be driven by the multiple processor driving rollers , the drive rollers being supported between the top and the bottom of the body so that they are rotatable about axes that are parallel to the vertical axis (A-A) in response to the multiple processor driving rollers ; a winch drum supported by the body ; a drum gear that influences the speed and direction of winch drum rotation; a cable having a proximal end region attached to the winch drum and a distal end region that is detachably attachable to an object to be retrieved by the winch system , the cable extending outwardly from the front face or back face of the body; characterized in that the multiple driven rollers of the winch system comprise four rollers; and that the winch system further comprises: a reverse gear that is mounted so that it rotates with a pair of the drive rollers in a plane that lies perpendicularly to the vertical axis (A-A). a body having a front face , a back face , lateral sides , a top , a bottom and an imaginary vertical axis; multiple drive rollers that are adapted to be driven by the multiple processor driving rollers , the drive rollers being supported between the top and the bottom of the body so that they are rotatable about axes that are parallel to the vertical axis (A-A) in response to the multiple processor driving rollers ; a winch drum supported by the body ; a drum gear that influences the speed and direction of winch drum rotation; a cable having a proximal end region attached to the winch drum and a distal end region that is detachably attachable to an object to be retrieved by the winch system , the cable extending outwardly from the front face or back face of the body; characterized in that the multiple driven rollers of the winch system comprise four rollers; and that the winch system further comprises: a reverse gear that is mounted so that it rotates with a pair of the drive rollers in a plane that lies perpendicularly to the vertical axis (A-A).
A wireless power transmitting device for a wireless power communication system, comprising: a circuit board including an insulating layer and a ground formed on the insulating layer; a core of a magnetic substance disposed on the circuit board to have a concave portion; a coil accommodated in the concave portion to have one end for receiving a power through the circuit board and the other end connected to the ground; and a metal layer disposed between the core and the insulating layer to be connected to the ground; and a magnetic sheet disposed between the core and the metal layer, wherein the metal layer includes a first metal layer attached on the insulating layer of the circuit board and a second metal layer disposed between the core and the first metal layer. a circuit board including an insulating layer and a ground formed on the insulating layer; a core of a magnetic substance disposed on the circuit board to have a concave portion; a coil accommodated in the concave portion to have one end for receiving a power through the circuit board and the other end connected to the ground; and a metal layer disposed between the core and the insulating layer to be connected to the ground; and a magnetic sheet disposed between the core and the metal layer, wherein the metal layer includes a first metal layer attached on the insulating layer of the circuit board and a second metal layer disposed between the core and the first metal layer.
Declutching device for a seed drill distribution element including a locking element and a support element on which the locking element is mounted, the locking element allowing two stable positions relative to the support element and being switchable between these, one of the stable positions being an active position, the locking element being configured, when in its active position, to be able to declutch the distribution element , characterised in that one from the support element and the locking element includes two abutment surfaces substantially opposite each other, and the other from the support element and the locking element includes a pin , one of the abutment surfaces resting against the pin in each respective stable position