mhurhangee/patent-ind-claim-en huggingface dataset:
A receiver circuit for receiving an incoming bit stream obtained from an electronic communication bus-system and for processing said incoming bit stream, the receiver circuit comprising: - a bit stream processing unit for bit stream synchronization and bit sampling of said incoming bit stream to provide a sampled output signal , - a frame decoding unit for decoding a data frame encoded in said sampled output signal , - a clock signal generator for generating a first clock signal and for supplying said first clock signal to said bit stream processing unit such that said bit stream processing unit operates at the frequency of the first clock signal , wherein said bit stream processing unit is adapted for synchronizing the first clock signal to an external protocol timing of said incoming bit stream, characterized in that said receiver circuit further comprises: - a clock signal downsampler for generating a second clock signal having a lower frequency than the first clock signal, said second clock signal being generated based on a co-occurrence of a clock pulse in the first clock signal and the emission of a bit in the sampled output signal provided by the bit stream processing unit , and for providing said second clock signal to said frame decoding unit , such that said frame decoding unit operates at the frequency of said second clock signal . - a bit stream processing unit for bit stream synchronization and bit sampling of said incoming bit stream to provide a sampled output signal , - a frame decoding unit for decoding a data frame encoded in said sampled output signal , - a clock signal generator for generating a first clock signal and for supplying said first clock signal to said bit stream processing unit such that said bit stream processing unit operates at the frequency of the first clock signal , - a clock signal downsampler for generating a second clock signal having a lower frequency than the first clock signal, said second clock signal being generated based on a co-occurrence of a clock pulse in the first clock signal and the emission of a bit in the sampled output signal provided by the bit stream processing unit , and for providing said second clock signal to said frame decoding unit , such that said frame decoding unit operates at the frequency of said second clock signal .
A method of controlling congestion in a split radio access architecture comprising a packet processing node operatively connected to one or more baseband processing nodes , the method implemented in the packet processing node and comprising: receiving, from a baseband processing node , first feedback corresponding to air interface congestion between the baseband processing node and a wireless device receiving packets from the baseband processing node ; receiving, from the baseband processing node , second feedback corresponding to transport network congestion of a transport interface between the packet processing node and the baseband processing node ; determining a data rate for providing user data to the baseband processing node responsive to the first feedback; determining a transmission window size for providing the user data to the baseband processing node responsive to the second feedback; and transmitting the user data to the baseband processing node according to both, the determined data rate and the determined transmission window size. receiving, from a baseband processing node , first feedback corresponding to air interface congestion between the baseband processing node and a wireless device receiving packets from the baseband processing node ; receiving, from the baseband processing node , second feedback corresponding to transport network congestion of a transport interface between the packet processing node and the baseband processing node ; determining a data rate for providing user data to the baseband processing node responsive to the first feedback; determining a transmission window size for providing the user data to the baseband processing node responsive to the second feedback; and transmitting the user data to the baseband processing node according to both, the determined data rate and the determined transmission window size.
A method for decoding an audio signal in an audio processing system, the method comprising: receiving (D02) a first waveform-coded signal having a spectral content up to a first cross-over frequency (f c ), receiving (D04) a second waveform-coded signal having a spectral content corresponding to a subset of the frequency range above the first cross-over frequency (f c ), wherein the subset of the frequency range above the first cross-over frequency (f c ) includes an isolated frequency interval (202a; 202b) not contiguous with the spectral content of the first waveform-coded signal , receiving a control signal comprising data relating to one or more time ranges and one or more frequency ranges above the first cross-over frequency for which the second waveform-coded signal is available, receiving (D06) high frequency reconstruction parameters, performing (D08) high frequency reconstruction using at least a portion of the first waveform-coded signal and the high frequency reconstruction parameters so as to generate a frequency extended signal (203; 803) having a spectral content above the first cross-over frequency (f c ), and interleaving (D11) the frequency extended signal (203; 803) with the second waveform-coded signal based on the control signal , wherein the audio processing system is implemented at least in part with hardware. receiving (D02) a first waveform-coded signal having a spectral content up to a first cross-over frequency (f c ), receiving (D04) a second waveform-coded signal having a spectral content corresponding to a subset of the frequency range above the first cross-over frequency (f c ), wherein the subset of the frequency range above the first cross-over frequency (f c ) includes an isolated frequency interval (202a; 202b) not contiguous with the spectral content of the first waveform-coded signal , receiving a control signal comprising data relating to one or more time ranges and one or more frequency ranges above the first cross-over frequency for which the second waveform-coded signal is available, receiving (D06) high frequency reconstruction parameters, performing (D08) high frequency reconstruction using at least a portion of the first waveform-coded signal and the high frequency reconstruction parameters so as to generate a frequency extended signal (203; 803) having a spectral content above the first cross-over frequency (f c ), and interleaving (D11) the frequency extended signal (203; 803) with the second waveform-coded signal based on the control signal , wherein the audio processing system is implemented at least in part with hardware.
A carryable cooking apparatus comprising: a first housing (100; 1010) provided with an inverter (120; 1020) for induction heating; a second housing (200; 1120) for supporting a container (10; 1140) for receiving cooking food, and a working coil (210; 1030) to which a current supplied from the inverter (120; 1020) is transferred, heated as the container (10; 1140) for receiving cooking food is arranged thereon, wherein the first housing (100; 1010) and the second housing (200; 1120) constitute spaces detached from each other, wherein the working coil is arranged in the second housing , characterised in that , the first housing includes a motor for providing a rotational force and a transfer member for transferring the rotational force of the motor , and cooking food inside the container is stirred by the rotational force transferred by the transfer member . a first housing (100; 1010) provided with an inverter (120; 1020) for induction heating; a second housing (200; 1120) for supporting a container (10; 1140) for receiving cooking food, and a working coil (210; 1030) to which a current supplied from the inverter (120; 1020) is transferred, heated as the container (10; 1140) for receiving cooking food is arranged thereon, wherein the first housing (100; 1010) and the second housing (200; 1120) constitute spaces detached from each other, wherein the working coil is arranged in the second housing , characterised in that , the first housing includes a motor for providing a rotational force and a transfer member for transferring the rotational force of the motor , and cooking food inside the container is stirred by the rotational force transferred by the transfer member .
A bone model for trialing a medical implant mountable on a natural bone to repair a natural articulating surface, the bone model comprising: a bone component shaped and sized to approximate the natural bone, the bone component comprising a main body defining a generally planar mounting surface and a positioning feature ; and an implant component defining an artificial articulating surface and being sized and shaped such that the artificial articulating surface approximates the natural articulating surface; characterized in that the implant component is releasably positionable on the bone component by the implant component releasably engaging the positioning feature on the bone component to approximate mounting of the medical implant onto the natural bone. a bone component shaped and sized to approximate the natural bone, the bone component comprising a main body defining a generally planar mounting surface and a positioning feature ; and an implant component defining an artificial articulating surface and being sized and shaped such that the artificial articulating surface approximates the natural articulating surface; characterized in that the implant component is releasably positionable on the bone component by the implant component releasably engaging the positioning feature on the bone component to approximate mounting of the medical implant onto the natural bone.
A single stage flapper type servovalve (2; 102) comprising: a valve housing comprising a bore (8; 108); a pair of opposed nozzles arranged in the bore (8; 108); a flapper element arranged between the pair of nozzles ; a torque motor mounted to the valve housing and a connecting tube arranged between the valve housing and the torque motor , the flapper element extending through the connecting tube ; the valve housing further comprising a plurality of fluid ports for communicating a working fluid to and from the nozzles and in fluid communication with the housing bore (8; 108); the single stage flapper servovalve characterised in that the valve housing and the nozzles are both made from a stainless steel material, and in that the connecting tube is brazed or welded to the valve housing and to the torque motor , the connecting tube being made from a stainless steel material. a valve housing comprising a bore (8; 108); a pair of opposed nozzles arranged in the bore (8; 108); a flapper element arranged between the pair of nozzles ; a torque motor mounted to the valve housing and a connecting tube arranged between the valve housing and the torque motor , the flapper element extending through the connecting tube ; the valve housing further comprising a plurality of fluid ports for communicating a working fluid to and from the nozzles and in fluid communication with the housing bore (8; 108); the single stage flapper servovalve characterised in that the valve housing and the nozzles are both made from a stainless steel material, and in that the connecting tube is brazed or welded to the valve housing and to the torque motor , the connecting tube being made from a stainless steel material.
A method for sending information, comprising: acquiring (101; 301; 401), by a base station of a current cell, antenna configuration information of a neighboring cell, characterized in that the method comprises: sending (102; 302; 403), by the base station, a message carrying the antenna configuration information of the neighboring cell to a user equipment, UE, of the current cell, wherein the antenna configuration information of the neighboring cell is one comprehensive antenna configuration information representing a smallest value of antenna configurations of all neighboring cells; and wherein, the comprehensive antenna configuration information of all neighboring cells is encoded into 1 bit or 2 bits when the antenna configuration information of all neighboring cells is 1, 2 or 4; or the comprehensive antenna configuration information of all neighboring cells is encoded into 1 bit. sending (102; 302; 403), by the base station, a message carrying the antenna configuration information of the neighboring cell to a user equipment, UE, of the current cell, wherein the antenna configuration information of the neighboring cell is one comprehensive antenna configuration information representing a smallest value of antenna configurations of all neighboring cells; and wherein, the comprehensive antenna configuration information of all neighboring cells is encoded into 1 bit or 2 bits when the antenna configuration information of all neighboring cells is 1, 2 or 4; or the comprehensive antenna configuration information of all neighboring cells is encoded into 1 bit.
A vehicle cyber-attack detection system comprising: at least one first tier security module being couplable to at least one onboard system of a respective vehicle and being configured so as to receive system log data generated by the at least one onboard system of the respective vehicle, the at least one first tier security module being configured to extract features from the system log data with natural language processing and including a first cyber-attack anomaly detection module configured to identify a first cyber-attack based on system entropy measurements determined by the first cyber-attack anomaly detection module from the extracted features, and a second cyber-attack anomaly detection module that includes a deep learning component trained to identify a second cyber-attack based on classification of the extracted features, where the natural language processing is performed on the system log data based on behavioral keywords to train the deep learning component; and a cyber-attack alert module being coupled to the at least one first tier security module and including a user interface, the cyber-attack alert module being configured to generate a notification of one or more of the first cyber-attack and the second cyber-attack on the user interface to effect cyber-attack diagnostics and remediation by vehicle personnel. at least one first tier security module being couplable to at least one onboard system of a respective vehicle and being configured so as to receive system log data generated by the at least one onboard system of the respective vehicle, the at least one first tier security module being configured to extract features from the system log data with natural language processing and including a first cyber-attack anomaly detection module configured to identify a first cyber-attack based on system entropy measurements determined by the first cyber-attack anomaly detection module from the extracted features, and a second cyber-attack anomaly detection module that includes a deep learning component trained to identify a second cyber-attack based on classification of the extracted features, where the natural language processing is performed on the system log data based on behavioral keywords to train the deep learning component; and a first cyber-attack anomaly detection module configured to identify a first cyber-attack based on system entropy measurements determined by the first cyber-attack anomaly detection module from the extracted features, and a second cyber-attack anomaly detection module that includes a deep learning component trained to identify a second cyber-attack based on classification of the extracted features, where the natural language processing is performed on the system log data based on behavioral keywords to train the deep learning component; and a cyber-attack alert module being coupled to the at least one first tier security module and including a user interface, the cyber-attack alert module being configured to generate a notification of one or more of the first cyber-attack and the second cyber-attack on the user interface to effect cyber-attack diagnostics and remediation by vehicle personnel.
An electronic balance comprising: a weighing pan on which a to-be-weighed object is placed; a windshield surrounding the weighing pan; a door opening and closing mechanism configured to automatically open and close a door of the windshield; a weight sensor to which a load applied to the weighing pan is transmitted; a built-in weight to be loaded on and unloaded from the weight sensor; a weight applying and removing mechanism for the built-in weight; and characterized in that a control unit is configured to measure a standard deviation of the built-in weight and control the door opening and closing mechanism and the weight applying and removing mechanism, wherein the control unit obtains a first standard deviation measured while the door of the windshield is left closed, and a second standard deviation measured accompanied by a series of opening and closing operations consisting of opening the door by the door opening and closing mechanism, loading the built-in weight by the weight applying and removing mechanism, closing the door by the door opening and closing mechanism, acquiring weighing data of the built-in weight, opening the door by the door opening and closing mechanism, unloading the built-in weight by the weight applying and removing mechanism, and closing the door by the opening and closing mechanism. a weighing pan on which a to-be-weighed object is placed; a windshield surrounding the weighing pan; a door opening and closing mechanism configured to automatically open and close a door of the windshield; a weight sensor to which a load applied to the weighing pan is transmitted; a built-in weight to be loaded on and unloaded from the weight sensor; a weight applying and removing mechanism for the built-in weight; and characterized in that a control unit is configured to measure a standard deviation of the built-in weight and control the door opening and closing mechanism and the weight applying and removing mechanism, wherein the control unit obtains a first standard deviation measured while the door of the windshield is left closed, and a second standard deviation measured accompanied by a series of opening and closing operations consisting of opening the door by the door opening and closing mechanism, loading the built-in weight by the weight applying and removing mechanism, closing the door by the door opening and closing mechanism, acquiring weighing data of the built-in weight, opening the door by the door opening and closing mechanism, unloading the built-in weight by the weight applying and removing mechanism, and closing the door by the opening and closing mechanism.
A method of generating a genomically engineered induced pluripotent stem cell (iPSC) capable of differentiating into an iPSC-derived hematopoietic lineage cell, or a cell population thereof, the method comprising: (i) reprogramming a T cell to an induced pluripotent stem cell (iPSC); and (ii) genomically engineering the iPSC to (a) knock out a T cell receptor (TCR) by disrupting a polynucleic acid encoding a constant region of TCR alpha (TRAC) by (b) knocking in a polynucleotide encoding at least one chimeric antigen receptor (CAR) at the polynucleic acid encoding the constant region of the TCR alpha; wherein the polynucleotide encoding the at least one CAR is expressed under control of an endogenous TCR promoter of the TCR alpha constant region, thereby obtaining a genomically engineered iPSC capable of differentiating into an iPSC-derived hematopoietic lineage cell expressing the at least one CAR. (i) reprogramming a T cell to an induced pluripotent stem cell (iPSC); and (ii) genomically engineering the iPSC to (a) knock out a T cell receptor (TCR) by disrupting a polynucleic acid encoding a constant region of TCR alpha (TRAC) by (b) knocking in a polynucleotide encoding at least one chimeric antigen receptor (CAR) at the polynucleic acid encoding the constant region of the TCR alpha; wherein the polynucleotide encoding the at least one CAR is expressed under control of an endogenous TCR promoter of the TCR alpha constant region, thereby obtaining a genomically engineered iPSC capable of differentiating into an iPSC-derived hematopoietic lineage cell expressing the at least one CAR. (a) knock out a T cell receptor (TCR) by disrupting a polynucleic acid encoding a constant region of TCR alpha (TRAC) by (b) knocking in a polynucleotide encoding at least one chimeric antigen receptor (CAR) at the polynucleic acid encoding the constant region of the TCR alpha; wherein the polynucleotide encoding the at least one CAR is expressed under control of an endogenous TCR promoter of the TCR alpha constant region,
A manufacturing method of a metal panel with the steps of: cutting a metal plate to form a cutaway portion at a specified area of a border and; bending the border on opposite sides of the cutaway portion , inserting a bracket into and coupling the bracket to a cutaway groove formed at the border of the bending, characterized in that , the bracket includes a protruding portion corresponding to the cutaway groove and an extending portion extended from the protruding portion , and the bracket is coupled to the cutaway groove by welding the extending portion to a circumferential side of the cutaway groove. cutting a metal plate to form a cutaway portion at a specified area of a border and; bending the border on opposite sides of the cutaway portion , inserting a bracket into and coupling the bracket to a cutaway groove formed at the border of the bending, characterized in that , the bracket includes a protruding portion corresponding to the cutaway groove and an extending portion extended from the protruding portion , and the bracket is coupled to the cutaway groove by welding the extending portion to a circumferential side of the cutaway groove.