mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising: a user interface module implemented in at least one of a memory or a processing device , the user interface module configured to send a signal to display an interface of a self-service application executed by the processing device to communicate with a host device via a network; and a bandwidth analysis module operatively coupled to the user interface module , the bandwidth analysis module configured to: calculate a bandwidth associated with communication with the host device via the network; transmit a request for a bandwidth criterion to the host device , wherein the bandwidth criterion comprises at least one of a bandwidth, a bandwidth score, or a bandwidth threshold; and receive, from the host device , the bandwidth criterion, the bandwidth criterion associated with at least one network communication mode used for communication with the host device , the user interface module configured to modify a user experience comprising being configured to reduce or eliminate an availability of the at least one network communication mode to the self-service application when the bandwidth fails to meet the bandwidth criterion, and configured to transmit, in response to the modifying, an indication associated with the modified user experience to the host device . a user interface module implemented in at least one of a memory or a processing device , the user interface module configured to send a signal to display an interface of a self-service application executed by the processing device to communicate with a host device via a network; and a bandwidth analysis module operatively coupled to the user interface module , the bandwidth analysis module configured to: calculate a bandwidth associated with communication with the host device via the network; transmit a request for a bandwidth criterion to the host device , wherein the bandwidth criterion comprises at least one of a bandwidth, a bandwidth score, or a bandwidth threshold; and receive, from the host device , the bandwidth criterion, the bandwidth criterion associated with at least one network communication mode used for communication with the host device , calculate a bandwidth associated with communication with the host device via the network; transmit a request for a bandwidth criterion to the host device , wherein the bandwidth criterion comprises at least one of a bandwidth, a bandwidth score, or a bandwidth threshold; and receive, from the host device , the bandwidth criterion, the bandwidth criterion associated with at least one network communication mode used for communication with the host device , the user interface module configured to modify a user experience comprising being configured to reduce or eliminate an availability of the at least one network communication mode to the self-service application when the bandwidth fails to meet the bandwidth criterion, and configured to transmit, in response to the modifying, an indication associated with the modified user experience to the host device .
A computer-implemented method for performing multi-carrier phase-based ranging between two radios comprising: - calculating squared channel responses based on channel measurements between the two radios for a plurality of available carriers (121-125) within a measurement band for the phase-based ranging; and wherein the measurement band has at least one band gap (131-136) each with one or more unusable carriers for calculating squared channel responses; - estimating , by means of a trained neural network , squared channel responses for the unusable carriers in a respective band gap from squared channel responses of carriers adjacent to the respective band gap; - estimating a distance between the two radios based on both the calculated and estimated squared channel responses. - calculating squared channel responses based on channel measurements between the two radios for a plurality of available carriers (121-125) within a measurement band for the phase-based ranging; and wherein the measurement band has at least one band gap (131-136) each with one or more unusable carriers for calculating squared channel responses; - estimating , by means of a trained neural network , squared channel responses for the unusable carriers in a respective band gap from squared channel responses of carriers adjacent to the respective band gap; - estimating a distance between the two radios based on both the calculated and estimated squared channel responses.
A computer-implemented medical method of planning a position of a tracking reference device for referencing a position in a medical environment, the method comprising the following steps: a) planning image data is acquired (S1) which describes a three-dimensional medical image of an anatomical body part of a patient; b) instrument position data is acquired (S2) based on the planning image data, wherein the instrument position data describes a planned position of a medical instrument for using the medical instrument on the anatomical body part; c) instrument shape data is acquired (S3) which describes a three-dimensional shape of the medical instrument ; d) instrument envelope data is acquired (S4) based on the instrument shape data and the instrument position data, wherein the instrument envelope data describes a position and a shape of a three-dimensional envelope around the shape of the instrument; e) tracking device data is acquired which describes a position and a field of view of a tracking device usable for tracking the tracking reference device; and f) avoidance region data is determined (S5) based on the instrument envelope data, wherein the avoidance region data describes the position of an avoidance region in which the tracking reference device shall not be positioned and wherein the avoidance region is determined based on the tracking device data and by determining, outgoing from the position of the tracking device , a tangential surface on the envelope . a) planning image data is acquired (S1) which describes a three-dimensional medical image of an anatomical body part of a patient; b) instrument position data is acquired (S2) based on the planning image data, wherein the instrument position data describes a planned position of a medical instrument for using the medical instrument on the anatomical body part; c) instrument shape data is acquired (S3) which describes a three-dimensional shape of the medical instrument ; d) instrument envelope data is acquired (S4) based on the instrument shape data and the instrument position data, wherein the instrument envelope data describes a position and a shape of a three-dimensional envelope around the shape of the instrument; e) tracking device data is acquired which describes a position and a field of view of a tracking device usable for tracking the tracking reference device; and f) avoidance region data is determined (S5) based on the instrument envelope data, wherein the avoidance region data describes the position of an avoidance region in which the tracking reference device shall not be positioned and wherein the avoidance region is determined based on the tracking device data and by determining, outgoing from the position of the tracking device , a tangential surface on the envelope .
Ultrasonic flowmeter with an emitter for generating a variable excitation signal, said emitter having a first and a second ultrasonic transducer , wherein the emitter also comprises a generator designed to generate the variable excitation signal and a transmission stage , wherein the generator is connected at least to the first ultrasonic transducer via the transmission stage , wherein an output of the transmission stage is connected to the first ultrasonic transducer via a first signal path, wherein the first signal path has a first resistor element , wherein a second signal path branches off from the first signal path, where said second signal path has a second resistor element one side of which is connected to ground, said element being designed to reduce impedance-induced fluctuations in the excitation signal, wherein the second signal path branches off from the first signal path between the output of the transmission stage and the first resistor element , characterized in that the resistance value of the second resistor element is less than the resistance value of the first resistor element , such that during transmission, a first current I 16 circulating through the first resistor element is less than a second current I 18 circulating through the second resistor element .
Master of a bus system for process control with a slave and a bus , - having a transceiver circuit for transmitting transmit data (TD) and for receiving receive data (RD) for the process control by means of data packets (P, P'), - having a channel which has a receive storage area , - in which the transceiver circuit is configured to write the receive data (RD) from a data packet (P') received via the bus to the receive storage area , - in which the channel has at least one selection circuit , wherein an output of the selection circuit is connected to the transceiver circuit , - in which the selection circuit has a first input for selecting first data (D1), - in which the selection circuit has a second input , wherein the second input is connected to the receive storage area , and - in which the selection circuit is configured to select the transmit data (TD) from the receive data (RD) written to the receive storage area and to output the transmit data (TD) to the transceiver circuit for a data packet (P) to be transmitted via the bus . - having a transceiver circuit for transmitting transmit data (TD) and for receiving receive data (RD) for the process control by means of data packets (P, P'), - having a channel which has a receive storage area , - in which the transceiver circuit is configured to write the receive data (RD) from a data packet (P') received via the bus to the receive storage area , - in which the channel has at least one selection circuit , wherein an output of the selection circuit is connected to the transceiver circuit , - in which the selection circuit has a first input for selecting first data (D1), - in which the selection circuit has a second input , wherein the second input is connected to the receive storage area , and - in which the selection circuit is configured to select the transmit data (TD) from the receive data (RD) written to the receive storage area and to output the transmit data (TD) to the transceiver circuit for a data packet (P) to be transmitted via the bus .
A method for a sector training operation by an access point, AP, the method comprising: transmitting a beacon frame including restricted access window, RAW assignment information, wherein the RAW assignment information includes assignment information for a sector sounding RAW and a sector reporting RAW; transmitting at least one No Data Protocol, NDP type frame for sector training in the sector sounding RAW; and receiving at least one feedback frame each including a selected sector identification, ID from a station, STA in a sector reporting RAW wherein when multiple STAs transmit the feedback frames including respective sector IDs, the feedback frames are protected by the sector reporting RAW indicated in the beacon frame wherein an NDP type frame includes Short Training Field, STF field, a Long Training Field, LTF field, and a Signal, SIG field without a Data field. transmitting a beacon frame including restricted access window, RAW assignment information, wherein the RAW assignment information includes assignment information for a sector sounding RAW and a sector reporting RAW; transmitting at least one No Data Protocol, NDP type frame for sector training in the sector sounding RAW; and receiving at least one feedback frame each including a selected sector identification, ID from a station, STA in a sector reporting RAW wherein when multiple STAs transmit the feedback frames including respective sector IDs, the feedback frames are protected by the sector reporting RAW indicated in the beacon frame wherein an NDP type frame includes Short Training Field, STF field, a Long Training Field, LTF field, and a Signal, SIG field without a Data field.
Container for fermentation and/or storage of alcoholic beverages, in which a substantial portion of the walls of said container is made of ceramic material with controlled porosity, comprising a container body in the shape of a truncated pyramid, in which each of the faces of the side wall comprises a slab in ceramic material with controlled porosity, a support structure in cementitious material being formed along the external edges of said side wall and in correspondence with the bases of said truncated pyramid, and suitable axial openings formed in said bases, suitable for cooperating with suitable closing means, and in which said support structure in cementitious material overlaps only partially the external side of said slabs, covering them towards the environment outside the container leaving a greater part of the surface of the side of said slabs facing the outside of the container directly in contact with the external environment or the atmosphere external to the container itself.
An induction heating device comprising: a working coil (WC) comprising an annularly-coiled conductive wire, the working coil (WC) defining an annular coil hole at a central region of the working coil (WC); a ferrite core located vertically below the working coil (WC) and defining a core hole at a central region of the ferrite core corresponding to the annular coil hole; and an indicator board support located vertically below the ferrite core , the indicator board support comprising a hook that extends to the core hole in a vertical direction, characterized in that the hook is configured to be hooked into the core hole . a working coil (WC) comprising an annularly-coiled conductive wire, the working coil (WC) defining an annular coil hole at a central region of the working coil (WC); a ferrite core located vertically below the working coil (WC) and defining a core hole at a central region of the ferrite core corresponding to the annular coil hole; and an indicator board support located vertically below the ferrite core , the indicator board support comprising a hook that extends to the core hole in a vertical direction, characterized in that the hook is configured to be hooked into the core hole .
Use of a matrix comprising a modified agarose wherein at least 11 % of the primary hydroxyl groups are oxidized to a carboxylic acid group, as a component of cosmetic compositions.
User equipment communicating with a base station of a wireless communication system including the base station and the user equipment, the user equipment comprising: a selection unit configured to select a random access signal group from a plurality of random access signal groups by comparing a size of a Common Control Channel Service Data Unit, CCCH SDU, added with MAC header, the CCCH SDU being one of an RRCConnectionRequest message, and an RRC connection resume message, transmitted through a common control channel with a predetermined threshold value and select a random access signal from the random access signal group; and a transmission unit configured to transmit the random access signal selected by the selection unit to the base station, wherein the transmission unit transmits the CCCH SDU through the common control channel using a resource allocated by a response from the base station with respect to the random access signal. a selection unit configured to select a random access signal group from a plurality of random access signal groups by comparing a size of a Common Control Channel Service Data Unit, CCCH SDU, added with MAC header, the CCCH SDU being one of an RRCConnectionRequest message, and an RRC connection resume message, transmitted through a common control channel with a predetermined threshold value and select a random access signal from the random access signal group; and a transmission unit configured to transmit the random access signal selected by the selection unit to the base station, wherein the transmission unit transmits the CCCH SDU through the common control channel using a resource allocated by a response from the base station with respect to the random access signal.
A refrigerator, comprising: a main body having left and right vertical side walls, an upper wall horizontally connecting the two side walls, and a lower wall horizontally connecting the two side walls, an insulation partition wall horizontally disposed between the upper and lower walls and extending between the two side walls, an upper cooling compartment defined by the upper wall, the insulation partition wall and upper portions of the two side walls, and a lower freezing compartment defined by the lower wall, the insulation partition wall and lower portions of the two side walls; a sliding freezer door slidably opening and closing the freezing compartment ; a movable horizontally-extending freezer door handle disposed at an upper portion of the sliding freezer door to be vertically rotatable said refrigerator being characterized by first and second push members disposed between the handle and the insulation partition wall at an upper boundary of the sliding freezer door and being adapted to move to advanced positions in connection with a vertical rotation of the handle and to press against the insulation partition wall to separate the sliding freezer door from the main body ; wherein the push members are positioned to press against different regions of a front surface of the insulation partition wall , and wherein the position of the push members corresponds to opposite ends of the handle . a main body having left and right vertical side walls, an upper wall horizontally connecting the two side walls, and a lower wall horizontally connecting the two side walls, an insulation partition wall horizontally disposed between the upper and lower walls and extending between the two side walls, an upper cooling compartment defined by the upper wall, the insulation partition wall and upper portions of the two side walls, and a lower freezing compartment defined by the lower wall, the insulation partition wall and lower portions of the two side walls; a sliding freezer door slidably opening and closing the freezing compartment ; a movable horizontally-extending freezer door handle disposed at an upper portion of the sliding freezer door to be vertically rotatable said refrigerator being characterized by first and second push members disposed between the handle and the insulation partition wall at an upper boundary of the sliding freezer door and being adapted to move to advanced positions in connection with a vertical rotation of the handle and to press against the insulation partition wall to separate the sliding freezer door from the main body ; wherein the push members are positioned to press against different regions of a front surface of the insulation partition wall , and wherein the position of the push members corresponds to opposite ends of the handle .
A child safety seat comprising: a seat shell having two sidewalls respectively provided at a left and a right side of the seat shell for restricting sideways movement of a child sitting on the seat shell , the two sidewalls including a first and a second sidewall , the first sidewall of the seat shell being fixedly connected with a mount base having a pivot support portion , the mount base including one or more flange for facilitating an attachment of the mount base to the seat shell ; a buffering part pivotally connected with the pivot support portion , the buffering part being movable between a stowed position where the buffering part is retracted toward the first sidewall , and a deployed position where the buffering part protrudes sideways from the first sidewall ; and a latching mechanism including a latch carried with the buffering part , the latch being movable between a locking state for locking the buffering part in the deployed position and an unlocking state for unlocking the buffering part so that the buffering part is rotatable relative to the seat shell , the latch being engaged with a locking slot provided on the pivot support portion for locking the buffering part in the deployed position. a seat shell having two sidewalls respectively provided at a left and a right side of the seat shell for restricting sideways movement of a child sitting on the seat shell , the two sidewalls including a first and a second sidewall , the first sidewall of the seat shell being fixedly connected with a mount base having a pivot support portion , the mount base including one or more flange for facilitating an attachment of the mount base to the seat shell ; a buffering part pivotally connected with the pivot support portion , the buffering part being movable between a stowed position where the buffering part is retracted toward the first sidewall , and a deployed position where the buffering part protrudes sideways from the first sidewall ; and a latching mechanism including a latch carried with the buffering part , the latch being movable between a locking state for locking the buffering part in the deployed position and an unlocking state for unlocking the buffering part so that the buffering part is rotatable relative to the seat shell , the latch being engaged with a locking slot provided on the pivot support portion for locking the buffering part in the deployed position.
A method for wireless communication performed by a base station ,BS, comprising: determining , for each rank, one or more precoders available to a user equipment ,UE, for reporting non-precoding matrix indicator ,PMI, based channel state information ,CSI, feedback to the BS; generating a precoder configuration having a differential structure, wherein the differential structure of the precoder configuration implicitly indicates, from a plurality of ports, one or more ports associated with one of the precoders for each rank; and signaling the precoder configuration to the UE. determining , for each rank, one or more precoders available to a user equipment ,UE, for reporting non-precoding matrix indicator ,PMI, based channel state information ,CSI, feedback to the BS; generating a precoder configuration having a differential structure, wherein the differential structure of the precoder configuration implicitly indicates, from a plurality of ports, one or more ports associated with one of the precoders for each rank; and signaling the precoder configuration to the UE.