mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reporting channel quality information by a user equipment, UE, the method comprising: receiving, from a base station, a configuration message including: information for indicating feedback channel resources; and information for indicating a number of a plurality of beams to be reported, receiving, from a base station, reference signals, RSs, transmitted by using a plurality of beams of the base station; transmitting , based on the configuration message, a plurality of indices for the plurality of beams to the base station; and transmitting , based on the configuration message, the channel quality indicators, CQIs, for the plurality of beams starting with the CQI associated with the first beam reported and a differential value with respect to the largest CQI for every successive beam reported until the CQIs for the plurality of beams have been reported. receiving, from a base station, a configuration message including: information for indicating feedback channel resources; and information for indicating a number of a plurality of beams to be reported, information for indicating feedback channel resources; and information for indicating a number of a plurality of beams to be reported, receiving, from a base station, reference signals, RSs, transmitted by using a plurality of beams of the base station; transmitting , based on the configuration message, a plurality of indices for the plurality of beams to the base station; and transmitting , based on the configuration message, the channel quality indicators, CQIs, for the plurality of beams starting with the CQI associated with the first beam reported and a differential value with respect to the largest CQI for every successive beam reported until the CQIs for the plurality of beams have been reported.
Embedded optical ring communication network suitable to enable a transmission of data between equipment (12a-12h), comprising: - an assembly of distribution boxes (14a-14h) each connected, on the one hand, directly to two other distribution boxes (14a-14h) by multimode and bidirectional optical fibers (16a-16h) so as to form a ring, and suitable for being connected, on the other hand, to at least one multiplexer/demultiplexer by multimode and bidirectional optical fibers, - each optical fiber (16a-16h) is suitable to enable the transport of optical signals of at least three different modes , - each multiplexer/demultiplexer comprises a plurality of passive optical elements and enables to transmit at least three equipment signals coming from the equipment (12a-12h) via a modal multiplexing in an optical fiber or to separate the modes of an optical signal coming from the optical fibers towards at least three equipment signals, characterised in that : - the distribution boxes (14a-14h) each comprise three separators , to which are connected the optical fibers and each directed towards at least a prism , said separators and said prism being configured to direct an optical signal coming from an optical fiber and entering into a separator towards the two other separators and so that each separator receives the optical signals coming from the two other separators and sends these signals to the optical fiber to which it is connected. - an assembly of distribution boxes (14a-14h) each connected, on the one hand, directly to two other distribution boxes (14a-14h) by multimode and bidirectional optical fibers (16a-16h) so as to form a ring, and suitable for being connected, on the other hand, to at least one multiplexer/demultiplexer by multimode and bidirectional optical fibers, - each optical fiber (16a-16h) is suitable to enable the transport of optical signals of at least three different modes , - each multiplexer/demultiplexer comprises a plurality of passive optical elements and enables to transmit at least three equipment signals coming from the equipment (12a-12h) via a modal multiplexing in an optical fiber or to separate the modes of an optical signal coming from the optical fibers towards at least three equipment signals, - the distribution boxes (14a-14h) each comprise three separators , to which are connected the optical fibers and each directed towards at least a prism , said separators and said prism being configured to direct an optical signal coming from an optical fiber and entering into a separator towards the two other separators and so that each separator receives the optical signals coming from the two other separators and sends these signals to the optical fiber to which it is connected.
A fuel cell comprising: - an anode; - a cathode; - a non-precious metal catalyst in contact with the cathode, wherein the non-precious metal catalyst is a Fe-N/C catalyst; and - an electrolyte comprising a protic ionic liquid in contact with the non-precious metal catalyst. - an anode; - a cathode; - a non-precious metal catalyst in contact with the cathode, wherein the non-precious metal catalyst is a Fe-N/C catalyst; and - an electrolyte comprising a protic ionic liquid in contact with the non-precious metal catalyst. - an electrolyte comprising a protic ionic liquid in contact with the non-precious metal catalyst.
An air conditioning system for a vehicle having at least one compartment and configured to regulate a temperature of air in said compartment , the system comprising a housing and a set of regulating devices , each regulating device being configured to modify a parameter of an air flow and being housed in the housing , the set of regulating devices comprising a plurality of sub-assemblies , each sub-assembly comprising at least one regulating device , the conditioning system comprising, for each sub-assembly , an electrical circuit for supplying the sub-assembly considered, the electrical circuits being insulated from one another, each circuit being configured to be supplied electrically with an electrical current generated by an electrical supply source external to the housing .
Use of a receiving device which comprises a hub body mounted for rotation about a rotational axis (X), as well as a disc element which extends in a plane running perpendicular to the rotational axis (X), wherein the hub body has at least two structured support jaws (6a-6c) wherein the receiving device further comprises a locking mechanism which has an actuating element which is rotatable in restricted manner about the rotational axis (X) relative to the hub body , characterised in that the locking mechanism has at least one arm (13a-13c) coupling the actuating element to one of the support jaws (6a-6c) in such a way that the rotational mobility of the actuating element can be transferred into a linear displacement, occurring radially in relation to the rotational axis (X), of the support jaw (6a-6c) which is coupled to the arm (13a-13c), for the at least indirect internal clamping of an edgeband reel positioned at least in part on the hub body of the receiving device .
A method for representing an object in a traffic environment using vehicle sensor data, characterized in that the method comprises, for each cycle in a plurality of cycles; obtaining (S1) detections related to the object , the detections comprising detection coordinates, the object being associated with a heading (Vg1, Vg2) indicating a direction of motion of the object , transforming (S2) the detections from a sensor coordinate system to a representation coordinate system, the representation coordinate system having an orientation defined based on the heading (Vg1, Vg2), wherein the transforming comprises a coordinate rotation (S21) determined based on the heading (Vg1, Vg2) and a coordinate translation (S22) determined based on an object location in the sensor coordinate system, aggregating (S4) transformed detections with transformed detections from other cycles, and representing (S5) the object by the aggregated detections.
A mobile terminal, wherein the mobile terminal comprises a first display module , a second display module , and a foldable support frame , wherein the support frame comprises: a first support frame , a second support frame , and a bending structure , wherein the first support frame and the second support frame are separately connected to the bending structure and are separately arranged on two sides of the bending structure ; and the support frame further comprises a side frame , wherein the side frame is fixedly connected to the first support frame or the second support frame , and when the first support frame and the second support frame are folded by using the bending structure , the side frame is exposed outside an overlapping area of the first support frame and the second support frame ; the first display module is disposed on one side of the first support frame and the second support frame ; the second display module is disposed on another side of the first support frame or the second support frame , away from the first display module ; and the first display module is a foldable flexible display module; and the mobile terminal further comprises a sensor component disposed on the side frame . a first support frame , a second support frame , and a bending structure , wherein the first support frame and the second support frame are separately connected to the bending structure and are separately arranged on two sides of the bending structure ; and the support frame further comprises a side frame , wherein the side frame is fixedly connected to the first support frame or the second support frame , and when the first support frame and the second support frame are folded by using the bending structure , the side frame is exposed outside an overlapping area of the first support frame and the second support frame ; the first display module is disposed on one side of the first support frame and the second support frame ; the second display module is disposed on another side of the first support frame or the second support frame , away from the first display module ; and the first display module is a foldable flexible display module; and the mobile terminal further comprises a sensor component disposed on the side frame .
Item of footwear comprising: - a first envelope extending length-wise from a rear end to a front end , width-wise between a lateral edge and a medial edge , and height-wise from a bottom to an upper end , the first envelope comprising mechanically interconnected threads , - a second envelope extending length-wise from a rear end to a front end , width-wise between a lateral edge and a medial edge , and height-wise from a bottom to an upper end , the second envelope comprising mechanically interconnected threads, the second envelope being disposed on the outside of the first envelope , - a reinforcement situated between the first envelope and the second envelope , at least some of the threads of the first envelope and of the second envelope comprising at least one hot-melt filament, the threads that comprise at least one hot-melt filament being distributed throughout the first envelope and the second envelope and the shape of the first envelope and the shape of the second envelope being fixed by melting of the threads that comprise at least one hot-melt filament. - a first envelope extending length-wise from a rear end to a front end , width-wise between a lateral edge and a medial edge , and height-wise from a bottom to an upper end , the first envelope comprising mechanically interconnected threads , - a second envelope extending length-wise from a rear end to a front end , width-wise between a lateral edge and a medial edge , and height-wise from a bottom to an upper end , the second envelope comprising mechanically interconnected threads, the second envelope being disposed on the outside of the first envelope , - a reinforcement situated between the first envelope and the second envelope , at least some of the threads of the first envelope and of the second envelope comprising at least one hot-melt filament, the threads that comprise at least one hot-melt filament being distributed throughout the first envelope and the second envelope and the shape of the first envelope and the shape of the second envelope being fixed by melting of the threads that comprise at least one hot-melt filament.
A process for manufacturing a bent glazing comprising a glass sheet comprising a peripheral compression belt comprising the preparation of the glass sheet by a process for manufacturing a bent individual glass sheet comprising a peripheral compression belt, comprising the heating thereof to its bending temperature in a furnace , the individual bending thereof, and the general cooling thereof, characterized in that one zone of the sheet at least partially inside said peripheral compression belt, referred to as locally cooled zone, undergoes, after the heating of the sheet, a local cooling faster than the general cooling, when the sheet is at a temperature of at least 530°C, followed by cutting in the locally cooled zone.
A wireless power transmitter comprising: a Near-Field Communication, NFC, antenna for NFC; a power supply ; a NFC module ; a resonator configured to wirelessly transmit power to a wireless power receiver ; and a controller configured to: control the power supply to apply a beacon power for detecting an impedance change that is caused by placement of the wireless power receiver on the wireless power transmitter , to the resonator during a first time period, and control the NFC module to apply NFC tag detection power to the NFC antenna during a second time period, characterized in that the controller is further configured to: if an external NFC tag is detected during the second time period, control the power supply to stop the applying of the beacon power, and if the external NFC tag is not detected during the second time period, identify whether the impedance change is detected. a Near-Field Communication, NFC, antenna for NFC; a power supply ; a NFC module ; a resonator configured to wirelessly transmit power to a wireless power receiver ; and a controller configured to: control the power supply to apply a beacon power for detecting an impedance change that is caused by placement of the wireless power receiver on the wireless power transmitter , to the resonator during a first time period, and control the NFC module to apply NFC tag detection power to the NFC antenna during a second time period, characterized in that the controller is further configured to: if an external NFC tag is detected during the second time period, control the power supply to stop the applying of the beacon power, and if the external NFC tag is not detected during the second time period, identify whether the impedance change is detected. control the power supply to apply a beacon power for detecting an impedance change that is caused by placement of the wireless power receiver on the wireless power transmitter , to the resonator during a first time period, and control the NFC module to apply NFC tag detection power to the NFC antenna during a second time period, characterized in that the controller is further configured to: if an external NFC tag is detected during the second time period, control the power supply to stop the applying of the beacon power, and if the external NFC tag is not detected during the second time period, identify whether the impedance change is detected. if an external NFC tag is detected during the second time period, control the power supply to stop the applying of the beacon power, and if the external NFC tag is not detected during the second time period, identify whether the impedance change is detected.
A method of preparing an endothelial corneal graft using laser radiation , the method comprising: - providing a donor cornea isolated from a dead body; - irradiating the donor cornea from the endothelial side thereof with laser radiation to cause a photodisruption in tissue of the donor cornea at a focal point of the radiation ; and - moving the focal point of the radiation to form an endothelial graft in the donor cornea , - wherein providing the donor cornea includes placing an endothelium of the donor cornea in contact with a reference contact surface of a laser apparatus generating the laser radiation . - providing a donor cornea isolated from a dead body; - irradiating the donor cornea from the endothelial side thereof with laser radiation to cause a photodisruption in tissue of the donor cornea at a focal point of the radiation ; and - moving the focal point of the radiation to form an endothelial graft in the donor cornea , - wherein providing the donor cornea includes placing an endothelium of the donor cornea in contact with a reference contact surface of a laser apparatus generating the laser radiation .
Apparatus for the further processing of at least one board-like workpiece which is provided with an edge strip on at least one narrow side , wherein the apparatus is able to be arranged in a machine , which processes the workpiece during the passage of the latter, and, as viewed in the direction of passage , after a cutting tool of the machine , which removes an overhang of the edge strip , said overhang being present in the transverse direction with respect to the longitudinal extent of the edge strip , characterized in that the apparatus comprises at least one brush unit , having at least one brush tool , and at least one fluid application device , wherein the brush tool has at least one brush belt , wherein the brush belt has a straight contact region and at least one curvature region , and wherein the fluid application device has at least one nozzle which is provided and set up for applying a treatment fluid .
A method for bundling conveying streams at a material handling element and/or node (Ka..Kz, K1..K34) with several incoming conveyor segments , at least one coupling to an outgoing conveyor segment , to which the incoming conveyor segments are merged, and several holding devices for stopping a conveying stream on the incoming conveyor segments , characterized in that - for the conveyed objects , points in time of target arrival (TA1..TA3, TB1, TC1..TC3) are calculated, at which the conveyed objects are scheduled to arrive at a destination (23a..23c), - for a conveyed object waiting at a material handling element/node (Ka..Kz, K1..K34), a target run-through time (t1, t2, t6) is calculated, which the conveyed object needs for transport as scheduled from a current position to the destination (23a..23c), and the conveyed object is released at a point in time of release which corresponds essentially to the point in time of target arrival (TA1..TA3, TB1, TC1..TC3) minus the target run-through time (t1, t2, t6). - for the conveyed objects , points in time of target arrival (TA1..TA3, TB1, TC1..TC3) are calculated, at which the conveyed objects are scheduled to arrive at a destination (23a..23c), - for a conveyed object waiting at a material handling element/node (Ka..Kz, K1..K34), a target run-through time (t1, t2, t6) is calculated, which the conveyed object needs for transport as scheduled from a current position to the destination (23a..23c), and
A portable induction heating tool comprising: a housing including a base having a support surface , said support surface defining a recess facing away from said housing, said recess at least partially defined by a wall projecting from said support surface ; a work coil within said housing and secured to said base in a location aligned with said recess ; electronic circuitry configured to provide oscillating electrical energy to said work coil , thereby generating an oscillating magnetic field projecting away from said base , characterised in that said electronic circuitry is also configured to detect the quantity of energy consumed by said work coil and to limit said quantity of energy to a predetermined quantity, wherein said base has a front end and a rear end, said wall defines a rear limit of said recess , said rear limit of said recess located between said front end and said rear end, said recess being open toward the front end of said base . a housing including a base having a support surface , said support surface defining a recess facing away from said housing, said recess at least partially defined by a wall projecting from said support surface ; a work coil within said housing and secured to said base in a location aligned with said recess ; electronic circuitry configured to provide oscillating electrical energy to said work coil , thereby generating an oscillating magnetic field projecting away from said base , characterised in that said electronic circuitry is also configured to detect the quantity of energy consumed by said work coil and to limit said quantity of energy to a predetermined quantity, wherein said base has a front end and a rear end, said wall defines a rear limit of said recess , said rear limit of said recess located between said front end and said rear end, said recess being open toward the front end of said base .
A method performed by a remote radio unit, RRU, of a distributed base station system of a wireless communication network, the distributed base station system further comprising a base band unit, BBU, connected to the RRU, the RRU being connected to a plurality of antennas through which the RRU transmits user-layer signals to a plurality of UEs , the user-layer signals being transmitted using same time-frequency resource, the method comprising: receiving uplink signals from the plurality of UEs; sending information related to the received uplink signals to the BBU so that the BBU can obtain a first part of precoding coefficients to be used for precoding digital user-layer signals in frequency domain; obtaining a second part of the precoding coefficients; receiving , from the BBU, the digital user-layer signals precoded using the first part of the precoding coefficients, precoding the received digital user-layer signals in frequency domain with the second part of the precoding coefficients, converting the digital user-layer signals precoded with the first and the second part of the precoding coefficients to analog user-layer signals, and transmitting the analog user-layer signals to the plurality of UEs via the plurality of antennas . receiving uplink signals from the plurality of UEs; sending information related to the received uplink signals to the BBU so that the BBU can obtain a first part of precoding coefficients to be used for precoding digital user-layer signals in frequency domain; obtaining a second part of the precoding coefficients; receiving , from the BBU, the digital user-layer signals precoded using the first part of the precoding coefficients, precoding the received digital user-layer signals in frequency domain with the second part of the precoding coefficients, converting the digital user-layer signals precoded with the first and the second part of the precoding coefficients to analog user-layer signals, and transmitting the analog user-layer signals to the plurality of UEs via the plurality of antennas .
An emergency brake control method applied to a vehicle, comprising: in response to receiving a first trigger signal indicating that the vehicle enters a driving accompanying mode used when a driver is learning to drive the vehicle, activating the driving accompanying mode; and in the driving accompanying mode, in response to receiving an emergency brake command, controlling an Electronic Stability Program (ESP) to decelerate the vehicle at a preset deceleration in the driving accompanying mode, and sending a fuel cut-off request signal to an Engine Management System (EMS) to cut off a torque output of an engine. in response to receiving a first trigger signal indicating that the vehicle enters a driving accompanying mode used when a driver is learning to drive the vehicle, activating the driving accompanying mode; and in the driving accompanying mode, in response to receiving an emergency brake command, controlling an Electronic Stability Program (ESP) to decelerate the vehicle at a preset deceleration in the driving accompanying mode, and sending a fuel cut-off request signal to an Engine Management System (EMS) to cut off a torque output of an engine.