mhurhangee/patent-ind-claim-en huggingface dataset:
A proximity sensor for detecting the proximity of an object, the sensor comprising a sensing element , a detection circuitry provided on a circuit board , and a housing with a rear portion adjoining a rear end of the housing and a front portion adjoining a front end of the housing , the sensing element being arranged inside the front portion of the housing such that it is adapted to interact with the object through the front portion , the detection circuitry being interconnected with the sensing element in order to receive a detection signal from the sensing element , the housing comprising side walls extending in a longitudinal direction from the rear end to the front end of the housing , the side walls surrounding the circuit board , wherein the circuit board comprises at least one bendable section extending in a transverse direction with respect to said longitudinal direction and the side walls consist of at least one flexible material in a region surrounding said bendable section of the circuit board such that the sensor is bendable through said transverse direction, wherein the sensor further comprises a transmission cable , the transmission cable being connected to said detection circuitry inside the housing and passing through the rear portion of the housing toward the exterior of the housing such that a measuring signal generated by the detection circuitry can be transmitted by the transmission cable .
A readout circuit for an image sensor having a pixel array, the pixel array comprising at least one pixel group, in particular pixel column, with a plurality of pixels (PXL1, PXL2, ..., PXLN) connected to a group bus (CB1), the readout circuit comprising - a group input (CI1) for connecting to the group bus (CB1); - a signal output (ADCOUT1) for connecting to an input of an analog-to-digital converter, ADC, (CADC1); - a first reference terminal (VTREF1) for receiving a first reference voltage (VREF1); - a second reference terminal (VTREFO) for receiving a second reference voltage (VREFO); - a sampling bank (BSH1) comprising a first sample-and-hold element (SH0) and an at least second sample-and-hold element (SH1, SH2, SH3) coupled between the group input (CI1) and an output of the sampling bank (BSH1) and further comprising a bypass switch (BS) connected between the group input (CI1) and the output of the sampling bank (BSH1); - a charge store (C0) connecting the output of the sampling bank (BSH1) and the signal output (ADCOUT1); - a first charge switch (SPC1) connected between the first reference terminal (VTREF1) and the signal output (ADCOUT1); and - a second charge switch (SPCO) connected between the second reference terminal (VTREFO) and the output of the sampling bank (BSH). - a group input (CI1) for connecting to the group bus (CB1); - a signal output (ADCOUT1) for connecting to an input of an analog-to-digital converter, ADC, (CADC1); - a first reference terminal (VTREF1) for receiving a first reference voltage (VREF1); - a second reference terminal (VTREFO) for receiving a second reference voltage (VREFO); - a sampling bank (BSH1) comprising a first sample-and-hold element (SH0) and an at least second sample-and-hold element (SH1, SH2, SH3) coupled between the group input (CI1) and an output of the sampling bank (BSH1) and further comprising a bypass switch (BS) connected between the group input (CI1) and the output of the sampling bank (BSH1); - a charge store (C0) connecting the output of the sampling bank (BSH1) and the signal output (ADCOUT1); - a first charge switch (SPC1) connected between the first reference terminal (VTREF1) and the signal output (ADCOUT1); and - a second charge switch (SPCO) connected between the second reference terminal (VTREFO) and the output of the sampling bank (BSH).
An apparatus for monitoring positions on an external object having at least one beacon (1(i), i = 1, 2, ..., I; 130; 430) attached to it, the apparatus comprising: At least one image sensor (120; 321, 322; 420; 520); At least one non-refractive optical element arranged as objective for projecting light on said image sensor ; A processing unit ; Said processing unit being arranged such as to allow communication with a memory storing a computer program comprising instructions and data, which computer program can be run by the processing unit ; Said at least one non-refractive optical element being configured to receive at least one light beam (5(i); 131) transmitted from said at least one beacon (1(i); 130; 430) and transfer said at least one light beam (5(i); 131) to said image sensor (120; 321, 322; 420; 520); Said image sensor (120; 321, 322; 420; 520) being arranged to form image data based on said received at least one light beam (5(i); 131) and background light; and Said processing unit being arranged to process said image data such that it filters image data components relating to said background light and renders image data components relating to said at least one light beam. At least one image sensor (120; 321, 322; 420; 520); At least one non-refractive optical element arranged as objective for projecting light on said image sensor ; A processing unit ; Said processing unit being arranged such as to allow communication with a memory storing a computer program comprising instructions and data, which computer program can be run by the processing unit ; Said at least one non-refractive optical element being configured to receive at least one light beam (5(i); 131) transmitted from said at least one beacon (1(i); 130; 430) and transfer said at least one light beam (5(i); 131) to said image sensor (120; 321, 322; 420; 520); Said image sensor (120; 321, 322; 420; 520) being arranged to form image data based on said received at least one light beam (5(i); 131) and background light; and Said processing unit being arranged to process said image data such that it filters image data components relating to said background light and renders image data components relating to said at least one light beam.
A signal processing apparatus, comprising a signal transmission unit, the signal transmission unit comprising a transmission data generation unit (201; 301, 351; 401; 602, 610, 652, 660; 702, 709, 752, 759; 801, 807, 851, 857) configured to perform classification for a signal (a', b', a", b"; g, f) to be transmitted and received between processing units (200,250; 300, 350;400, 450; 600, 650; 700, 750; 800, 850) that process an obtained signal, perform time division multiplexing for the signal in a group obtained by the classification, and transmit the signal, wherein the classification is performed depending on at least one feature of an update period, an update timing, a tolerable transmission delay of the signal (a', b', a", b"; g, f), and wherein the group obtained by the classification includes a first group (G1) including an enable signal, a second group (G2) to which a signal synchronized with the enable signal belongs, a third group (G3) to which a signal a period of which is changed at an irregular interval belongs, and a fourth group (G4) to which a signal a period of which is not basically changed belongs.
A wireless device , comprising: at least one antenna for performing wireless communications; a radio coupled to the at least one antenna ; and a processor coupled to the radio ; wherein the wireless device is configured to: polar encode first sidelink control information to obtain polar encoded first sidelink control information, wherein the first sidelink control information comprises second stage sidelink control information; perform rate matching on the polar encoded first sidelink control information; scramble the polar encoded first sidelink control information; and transmit the scrambled polar encoded first sidelink information to a remote device on a physical sidelink shared channel, PSSCH, characterized in that the wireless device is further configured to: determine a result of a cyclic redundancy check performed on second sidelink control information received over a physical sidelink control channel, PSCCH; and perform the scrambling of the polar encoded first sidelink control information based at least in part on an initialization value determined based at least in part on the result of the cyclic redundancy check. at least one antenna for performing wireless communications; a radio coupled to the at least one antenna ; and a processor coupled to the radio ; wherein the wireless device is configured to: polar encode first sidelink control information to obtain polar encoded first sidelink control information, wherein the first sidelink control information comprises second stage sidelink control information; perform rate matching on the polar encoded first sidelink control information; scramble the polar encoded first sidelink control information; and transmit the scrambled polar encoded first sidelink information to a remote device on a physical sidelink shared channel, PSSCH, polar encode first sidelink control information to obtain polar encoded first sidelink control information, wherein the first sidelink control information comprises second stage sidelink control information; perform rate matching on the polar encoded first sidelink control information; scramble the polar encoded first sidelink control information; and transmit the scrambled polar encoded first sidelink information to a remote device on a physical sidelink shared channel, PSSCH, characterized in that the wireless device is further configured to: determine a result of a cyclic redundancy check performed on second sidelink control information received over a physical sidelink control channel, PSCCH; and perform the scrambling of the polar encoded first sidelink control information based at least in part on an initialization value determined based at least in part on the result of the cyclic redundancy check. determine a result of a cyclic redundancy check performed on second sidelink control information received over a physical sidelink control channel, PSCCH; and perform the scrambling of the polar encoded first sidelink control information based at least in part on an initialization value determined based at least in part on the result of the cyclic redundancy check.
In vitro method for therapy control after treatment of HPV16-positive carcinoma comprising the steps of (a) contacting a sample from a patient with an HPV16-positive carcinoma, said patient having been administered an anti-cancer therapy, with a plurality of antigens comprising a conformational epitope of HPV16 L1 capsid or capsomer, wherein said epitope is not present in monomeric and/or denatured HPV16 L1, under conditions at which antibodies present in the sample can bind to the antigens and (b) detecting the binding of antibodies in the sample bound to the antigen, wherein the binding of said antibodies bears a negative correlation with the success of anti-cancer therapy in the patient and wherein the binding of said antibodies is compared with a reference level of binding, preferably wherein the binding of said antibodies is compared with the binding of said antibodies in one or more samples taken from said patient at predetermined time intervals, wherein a decrease in said binding over a predetermined time indicates successful anti-cancer therapy and wherein an increase in said binding over time indicates a recurrence of the HPV16-positive carcinoma in said patient. (a) contacting a sample from a patient with an HPV16-positive carcinoma, said patient having been administered an anti-cancer therapy, with a plurality of antigens comprising a conformational epitope of HPV16 L1 capsid or capsomer, wherein said epitope is not present in monomeric and/or denatured HPV16 L1, under conditions at which antibodies present in the sample can bind to the antigens and (b) detecting the binding of antibodies in the sample bound to the antigen, wherein the binding of said antibodies bears a negative correlation with the success of anti-cancer therapy in the patient and wherein the binding of said antibodies is compared with a reference level of binding, preferably wherein the binding of said antibodies is compared with the binding of said antibodies in one or more samples taken from said patient at predetermined time intervals, wherein a decrease in said binding over a predetermined time indicates successful anti-cancer therapy and wherein an increase in said binding over time indicates a recurrence of the HPV16-positive carcinoma in said patient.
An anomaly detection electronic control unit connected to a network bus in an onboard network system having a plurality of electronic control units for communicating via the network bus, including an electronic control unit that is configured to periodically transmit a first-type message including a predetermined value in an ID field, data to be monitored in a data field, and an electronic control unit that is configured to periodically transmit a second-type message including a value that differs from the predetermined value in an ID field, and data for comparison in a data field, the anomaly detection electronic control unit comprising: a receiver for successively receiving first-type messages and second-type messages from the network bus; a determining unit for determining whether a first-type message received by the receiver is normal or anomalous, characterized in that the determining is based on data to be monitored of the first-type message, data for comparison of a second-type message received last by the receiver at the time of receiving this first-type message, and either one of data to be monitored of a first-type message received by the receiver further in the past than this first-type message, and data for comparison of a second-type message received by the receiver further in the past than the second-type message received last; and a transmitter for transmitting in accordance with results of the determination by the determining unit . a receiver for successively receiving first-type messages and second-type messages from the network bus; a determining unit for determining whether a first-type message received by the receiver is normal or anomalous, characterized in that the determining is based on data to be monitored of the first-type message, data for comparison of a second-type message received last by the receiver at the time of receiving this first-type message, and either one of data to be monitored of a first-type message received by the receiver further in the past than this first-type message, and data for comparison of a second-type message received by the receiver further in the past than the second-type message received last; and a transmitter for transmitting in accordance with results of the determination by the determining unit .
A system comprising: a Mobile Edge Computing, MEC, server implemented at a Radio Access Network, RAN, of a mobile network that includes a base station, the MEC server comprising: a memory; and a controller configured to implement at least one edge application configured to provide MEC services to a mobile device in range of the base station; the controller is configured to implement a policy manager configured to query a core network of the mobile network for a Quality of Service, QoS, policy for the mobile device that indicates a plurality of QoS profile options for the mobile device, to receive the QoS policy from the core network, and to store the QoS policy in the memory; the controller is configured to implement a QoS selector configured to monitor for a triggering event that triggers selection of a QoS profile, to select the QoS profile from the QoS profile options for a user plane connection established for a MEC service between the mobile device and the at least one edge application in response to the triggering event, and to provide a QoS profile identifier for the QoS profile to the base station to enforce the QoS profile on the user plane connection. a memory; and a controller configured to implement at least one edge application configured to provide MEC services to a mobile device in range of the base station; the controller is configured to implement a policy manager configured to query a core network of the mobile network for a Quality of Service, QoS, policy for the mobile device that indicates a plurality of QoS profile options for the mobile device, to receive the QoS policy from the core network, and to store the QoS policy in the memory; the controller is configured to implement a QoS selector configured to monitor for a triggering event that triggers selection of a QoS profile, to select the QoS profile from the QoS profile options for a user plane connection established for a MEC service between the mobile device and the at least one edge application in response to the triggering event, and to provide a QoS profile identifier for the QoS profile to the base station to enforce the QoS profile on the user plane connection.
A method for wireless communication by a wireless communication device, the method comprising: generating a plurality of data units, each data unit including information bits; performing a prefix encoding operation on the information bits in the plurality of data units that generates one or more output bitstreams including amplitude bits for each of the data units based on the information bits in the data units, the performance of the prefix encoding operation including comparing sequences of consecutive bits of the information bits to one or more patterns of bit values of a set of patterns of bit values, each pattern of bit values of the set of patterns of bit values being associated with a respective sequence of amplitude bits of a set of sequences of amplitude bits, each sequence of amplitude bits being associated with a respective symbol amplitude of a set of symbol amplitudes, a number of patterns of bit values in the set of patterns of bit values being less than a number of sequences of amplitude bits in the set of sequences of amplitude bits; identifying a boundary in the information bits; inserting , into the one or more output bitstreams, based on the identified boundary, a sequence of amplitude bits of the set of sequences of amplitude bits that is not associated with any of the patterns of bit values of the set of patterns of bit values, the inserted sequence of amplitude bits indicating the boundary; and transmitting a wireless packet including a plurality of symbols based on the one or more output bitstreams. generating a plurality of data units, each data unit including information bits; performing a prefix encoding operation on the information bits in the plurality of data units that generates one or more output bitstreams including amplitude bits for each of the data units based on the information bits in the data units, the performance of the prefix encoding operation including comparing sequences of consecutive bits of the information bits to one or more patterns of bit values of a set of patterns of bit values, each pattern of bit values of the set of patterns of bit values being associated with a respective sequence of amplitude bits of a set of sequences of amplitude bits, each sequence of amplitude bits being associated with a respective symbol amplitude of a set of symbol amplitudes, a number of patterns of bit values in the set of patterns of bit values being less than a number of sequences of amplitude bits in the set of sequences of amplitude bits; identifying a boundary in the information bits; inserting , into the one or more output bitstreams, based on the identified boundary, a sequence of amplitude bits of the set of sequences of amplitude bits that is not associated with any of the patterns of bit values of the set of patterns of bit values, the inserted sequence of amplitude bits indicating the boundary; and transmitting a wireless packet including a plurality of symbols based on the one or more output bitstreams.
A polypropylene composition having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 5 to 50 g/10min, the polypropylene composition comprising (a) 55 to 75 wt.-%, based on the total weight of the polypropylene composition, of a crystalline fraction (CF) as determined in the CRYSTEX QC method, the crystalline fraction (CF) having i) a melting temperature (T m ) measured by differential scanning calorimetry (DSC) between 147°C and 162°C, and ii) an ethylene content of ≤ 1 wt.-%, based on the total weight of the crystalline fraction (CF); and (b) 25 to 45 wt.-%, based on the total weight of the polypropylene composition, of a soluble fraction (SF) as determined in the CRYSTEX QC method, the soluble fraction (SF) having i) an intrinsic viscosity (IV) in the range of 1.0 to 2.0 dl/g, and ii) an ethylene content in the range of 18 to 40 wt.-%, based on the total weight of the soluble fraction (SF), wherein said polypropylene composition has a ratio of intrinsic viscosity of the soluble fraction (IV(SF)) to intrinsic viscosity of the crystalline fraction (IV(CF)) [(IV(SF))/ (IV(CF))] in the range from 0.7 to < 1.2. (a) 55 to 75 wt.-%, based on the total weight of the polypropylene composition, of a crystalline fraction (CF) as determined in the CRYSTEX QC method, the crystalline fraction (CF) having i) a melting temperature (T m ) measured by differential scanning calorimetry (DSC) between 147°C and 162°C, and ii) an ethylene content of ≤ 1 wt.-%, based on the total weight of the crystalline fraction (CF); and i) a melting temperature (T m ) measured by differential scanning calorimetry (DSC) between 147°C and 162°C, and ii) an ethylene content of ≤ 1 wt.-%, based on the total weight of the crystalline fraction (CF); and (b) 25 to 45 wt.-%, based on the total weight of the polypropylene composition, of a soluble fraction (SF) as determined in the CRYSTEX QC method, the soluble fraction (SF) having i) an intrinsic viscosity (IV) in the range of 1.0 to 2.0 dl/g, and ii) an ethylene content in the range of 18 to 40 wt.-%, based on the total weight of the soluble fraction (SF), i) an intrinsic viscosity (IV) in the range of 1.0 to 2.0 dl/g, and ii) an ethylene content in the range of 18 to 40 wt.-%, based on the total weight of the soluble fraction (SF),