mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a fingerprint sensor having one or more sensing electrodes; and a controller configured to switch the fingerprint sensor between a capacitive sensing mode and an ultrasonic sensing mode and to: provide one or more first drive signals to the one or more sensing electrodes when the fingerprint sensor is in the capacitive sensing mode, and provide one or more second drive signals to the one or more sensing electrodes when the fingerprint sensor is in the ultrasonic sensing mode, the one or more second drive signals different from the one or more first drive signals; wherein the same one or more sensing electrodes are used in both the capacitive sensing mode and the ultrasonic sensing mode. a fingerprint sensor having one or more sensing electrodes; and a controller configured to switch the fingerprint sensor between a capacitive sensing mode and an ultrasonic sensing mode and to: provide one or more first drive signals to the one or more sensing electrodes when the fingerprint sensor is in the capacitive sensing mode, and provide one or more second drive signals to the one or more sensing electrodes when the fingerprint sensor is in the ultrasonic sensing mode, the one or more second drive signals different from the one or more first drive signals; wherein the same one or more sensing electrodes are used in both the capacitive sensing mode and the ultrasonic sensing mode. provide one or more first drive signals to the one or more sensing electrodes when the fingerprint sensor is in the capacitive sensing mode, and provide one or more second drive signals to the one or more sensing electrodes when the fingerprint sensor is in the ultrasonic sensing mode, the one or more second drive signals different from the one or more first drive signals; wherein the same one or more sensing electrodes are used in both the capacitive sensing mode and the ultrasonic sensing mode.
A bolt connection connecting two flanges, comprising a threaded bar extending through a hole of a first flange and a hole of a second flange, the first flange abutting the second flange; an anti-fatigue sleeve; and a nut; wherein the anti-fatigue sleeve is disposed on the threaded bar on the side of the first flange between the nut and the first flange, the nut is configured to be screwed onto the threaded bar and is configured to press the anti-fatigue sleeve against the first flange to fasten the first flange and the second flange together, wherein a washer is disposed between the anti-fatigue sleeve and the first flange, wherein a length of the anti-fatigue sleeve is at least twice a thickness of the first flange and the second flange. a threaded bar extending through a hole of a first flange and a hole of a second flange, the first flange abutting the second flange; an anti-fatigue sleeve; and a nut; wherein the anti-fatigue sleeve is disposed on the threaded bar on the side of the first flange between the nut and the first flange, the nut is configured to be screwed onto the threaded bar and is configured to press the anti-fatigue sleeve against the first flange to fasten the first flange and the second flange together, wherein a washer is disposed between the anti-fatigue sleeve and the first flange, wherein a length of the anti-fatigue sleeve is at least twice a thickness of the first flange and the second flange.
A method for detecting an analyte in a sample of a bodily fluid comprising the steps of: - circulating said sample through a test chamber, said test chamber including an acoustic sensor configured to detect a photoacoustic signal after a thermoelastic expansion occurs in said test chamber; - exposing the bodily fluid sample to electromagnetic energy comprising a pulsed laser beam to cause a thermoelastic expansion in the analyte, comprising directing a beam of said electromagnetic energy into said test chamber and comprising capturing the entire flow of said bodily fluid sample with said beam; - detecting a photoacoustic signal in the sample that results from said thermoelastic expansion. - circulating said sample through a test chamber, said test chamber including an acoustic sensor configured to detect a photoacoustic signal after a thermoelastic expansion occurs in said test chamber; - exposing the bodily fluid sample to electromagnetic energy comprising a pulsed laser beam to cause a thermoelastic expansion in the analyte, comprising directing a beam of said electromagnetic energy into said test chamber and comprising capturing the entire flow of said bodily fluid sample with said beam; - detecting a photoacoustic signal in the sample that results from said thermoelastic expansion.
An apparatus for wireless communication, comprising: means adapted for determining a total bandwidth for a transmission of a message, the total bandwidth comprising a plurality of tones with data and pilot tones; means adapted for dividing the plurality of tones in the total bandwidth into one or more 26-, 52-, 106-, 242-, or 996-tone blocks for the data and pilot tones, wherein a 20 MHz bandwidth is divided into one 242-tone block or into more 26-, 52- or 106-tone blocks, a 40 MHz bandwidth is divided into more 26-, 52-, 106- or 242-tone blocks, a 80 MHz bandwidth is divided into one 996-tone block or into more 26-, 52-, 106- or 242-tone blocks and a 160 MHz bandwidth is divided into more 26-, 52-, 106-, 242-, or 996-tone blocks; and means adapted for determining an indication, the indication assigning one or more of the one or more tone blocks to a first wireless communication device; and means adapted for transmitting the indication to at least the first wireless communication device or a second device. means adapted for determining a total bandwidth for a transmission of a message, the total bandwidth comprising a plurality of tones with data and pilot tones; means adapted for dividing the plurality of tones in the total bandwidth into one or more 26-, 52-, 106-, 242-, or 996-tone blocks for the data and pilot tones, wherein a 20 MHz bandwidth is divided into one 242-tone block or into more 26-, 52- or 106-tone blocks, a 40 MHz bandwidth is divided into more 26-, 52-, 106- or 242-tone blocks, a 80 MHz bandwidth is divided into one 996-tone block or into more 26-, 52-, 106- or 242-tone blocks and a 160 MHz bandwidth is divided into more 26-, 52-, 106-, 242-, or 996-tone blocks; and means adapted for determining an indication, the indication assigning one or more of the one or more tone blocks to a first wireless communication device; and means adapted for transmitting the indication to at least the first wireless communication device or a second device.
A computing device implemented method of virtually identifying force placed on a tooth, comprising: receiving initial orthodontic data including teeth data; creating a virtual set of teeth from the IOD; identifying a virtual target model of the teeth based on the IOD representing a treatment plan; receiving dental appliance information including at least one of dental appliance material properties and characteristics; virtually placing a dental appliance, formed from the dental appliance information, onto the virtual set of teeth; computing one or more desired force parameters of a dental appliance based on information from the IOD and dental appliance information to move towards a final position of a particular segment of a treatment plan; and estimating one or more actual forces generated by the virtually placed dental appliance as applied to one or more teeth based on information from the IOD and dental appliance information and verifying that the virtually placed dental appliance is applying a desired force parameter to the one or more teeth based on a comparison of the one or more desired force and the estimated one or more actual force. receiving initial orthodontic data including teeth data; creating a virtual set of teeth from the IOD; identifying a virtual target model of the teeth based on the IOD representing a treatment plan; receiving dental appliance information including at least one of dental appliance material properties and characteristics; virtually placing a dental appliance, formed from the dental appliance information, onto the virtual set of teeth; computing one or more desired force parameters of a dental appliance based on information from the IOD and dental appliance information to move towards a final position of a particular segment of a treatment plan; and estimating one or more actual forces generated by the virtually placed dental appliance as applied to one or more teeth based on information from the IOD and dental appliance information and verifying that the virtually placed dental appliance is applying a desired force parameter to the one or more teeth based on a comparison of the one or more desired force and the estimated one or more actual force.
A method of wireless communication, comprising: identifying, by a user equipment, UE, a wakeup signal resource (WS1-WS3) associated with the UE based at least in part on a control channel search space resource associated with the UE, wherein the wakeup signal resource maps to the control channel search space resource and precedes the control channel search space resource; monitoring, by the UE, the wakeup signal resource for an indication of whether to monitor the control channel search space resource; and selectively monitoring, by the UE, the control channel search space resource based at least in part on the indication of whether to monitor the control channel search space resource. identifying, by a user equipment, UE, a wakeup signal resource (WS1-WS3) associated with the UE based at least in part on a control channel search space resource associated with the UE, wherein the wakeup signal resource maps to the control channel search space resource and precedes the control channel search space resource; monitoring, by the UE, the wakeup signal resource for an indication of whether to monitor the control channel search space resource; and selectively monitoring, by the UE, the control channel search space resource based at least in part on the indication of whether to monitor the control channel search space resource.
An apparatus for reprogramming an integrated circuit device, the apparatus comprising: a semiconductor fuse array, disposed on a die, into which is programmed configuration data, said semiconductor fuse array characterized by: a first plurality of semiconductor fuses, configured to store said configuration data in an encoded and compressed format, wherein the configuration data comprises one or more compressed data fields for each of a plurality of configuration data types which are demarcated by end-of-type fields; and a second plurality of semiconductor fuses, configured to store first fuse correction data that indicates locations and values corresponding to a first one or more fuses within said first plurality of fuses whose states are to be changed from that which was previously stored; and a plurality of cores, disposed on said die, wherein each of said plurality of cores is coupled to said semiconductor fuse array and is configured to access all of said configuration data and said first fuse correction data during power-up/reset, wherein each of said plurality of cores is configured to decompress said first fuse correction data to render data that indicates said locations and values corresponding to said first one or more fuses within said first plurality of fuses for changing the states of said configuration data corresponding to said first one or more fuses so that the states of said first one or more fuses are changed prior to decompression of their corresponding compressed data. a first plurality of semiconductor fuses, configured to store said configuration data in an encoded and compressed format, wherein the configuration data comprises one or more compressed data fields for each of a plurality of configuration data types which are demarcated by end-of-type fields; and a second plurality of semiconductor fuses, configured to store first fuse correction data that indicates locations and values corresponding to a first one or more fuses within said first plurality of fuses whose states are to be changed from that which was previously stored; and a plurality of cores, disposed on said die, wherein each of said plurality of cores is coupled to said semiconductor fuse array and is configured to access all of said configuration data and said first fuse correction data during power-up/reset, wherein each of said plurality of cores is configured to decompress said first fuse correction data to render data that indicates said locations and values corresponding to said first one or more fuses within said first plurality of fuses for changing the states of said configuration data corresponding to said first one or more fuses so that the states of said first one or more fuses are changed prior to decompression of their corresponding compressed data.
Electrically conducting paper structure, specifically a heating element, with cellulose-containing fibre materials and electrically conductive fibres, characterized in that a plurality of continuous, electrically conductive filaments are embedded in the electrically conducting paper structure for contacting the electrically conducting paper structure from one end to the opposite end of the paper structure.
Method for improving the energy resolution of a gamma radiation detector comprising a monolithic scintillator and a segmented photodetector, during a scintillation event, characterised by the following steps: - detecting the arrival time of the first photons on each segment of said photodetector; - counting, during a period T i called the "integration time" of between 2 and 6 times a transfer time (Tc), the number of the first undiffused photons detected, and determining their location; - determining the diameter and position of a disc inside which are disposed first undiffused photons; - determining the position (X, Y) of a scintillation event on the basis of the location of said first undiffused photons detected; - counting the number of first undiffused photons disposed in the interior of said disc during a period T d called the "counting time" which is greater than a decay time (τ) of the scintillator; - defining the energy of a gamma photon, said energy being proportional to the number of undiffused photons counted in the interior of the disc. - detecting the arrival time of the first photons on each segment of said photodetector; - counting, during a period T i called the "integration time" of between 2 and 6 times a transfer time (Tc), the number of the first undiffused photons detected, and determining their location; - determining the diameter and position of a disc inside which are disposed first undiffused photons; - determining the position (X, Y) of a scintillation event on the basis of the location of said first undiffused photons detected; - counting the number of first undiffused photons disposed in the interior of said disc during a period T d called the "counting time" which is greater than a decay time (τ) of the scintillator; - defining the energy of a gamma photon, said energy being proportional to the number of undiffused photons counted in the interior of the disc.
A memory device comprising: an array of memory bit cells organized in a two-dimensional fashion, the array of memory bit cells being divided into banks; a pattern register; and a controller for the memory device (200; 934) that includes logic (210; 622-2), at least a portion of which comprises hardware, the logic (210; 622-2) configured to: generate a command responsive to a write request to the memory device (200; 934) that includes at least one content pattern matching a content pattern stored in the pattern register at the memory device (200; 934), wherein the command comprises a write pattern activate, WPACT, command and the matching content pattern includes large numbers of consecutively repeating bit values of 1 or 0; and forward the WPACT command to the memory device (200; 934) to cause the matching content pattern to be pulled from the pattern register and stored to at least a portion of the memory bit cells of the memory device (200; 934). an array of memory bit cells organized in a two-dimensional fashion, the array of memory bit cells being divided into banks; a pattern register; and a controller for the memory device (200; 934) that includes logic (210; 622-2), at least a portion of which comprises hardware, the logic (210; 622-2) configured to: generate a command responsive to a write request to the memory device (200; 934) that includes at least one content pattern matching a content pattern stored in the pattern register at the memory device (200; 934), wherein the command comprises a write pattern activate, WPACT, command and the matching content pattern includes large numbers of consecutively repeating bit values of 1 or 0; and forward the WPACT command to the memory device (200; 934) to cause the matching content pattern to be pulled from the pattern register and stored to at least a portion of the memory bit cells of the memory device (200; 934). generate a command responsive to a write request to the memory device (200; 934) that includes at least one content pattern matching a content pattern stored in the pattern register at the memory device (200; 934), wherein the command comprises a write pattern activate, WPACT, command and the matching content pattern includes large numbers of consecutively repeating bit values of 1 or 0; and forward the WPACT command to the memory device (200; 934) to cause the matching content pattern to be pulled from the pattern register and stored to at least a portion of the memory bit cells of the memory device (200; 934).
A method for detecting copy-number values from a pool of DNA samples enriched with a target enrichment technology, each enriched DNA sample being associated with a library of pooled fragments from a set of amplicons/regions, each amplicon/region being sequenced with a high-throughput sequencer to generate coverage count for each sample and for each amplicon/region, comprising: - normalizing, with a data processing unit, the coverage count associated with each sample; - selecting, with a data processing unit, for each sample, a set of reference samples as the samples with the closest normalized coverage count to the normalized coverage count of said sample, the number of reference samples in each set of reference samples being a function of the total number of samples and is smaller than the total number of samples; - for each sample, estimating the copy-number values in said sample as a function of at least the coverage counts in said sample and of at least the coverage counts in the selected set of reference samples for said sample. - normalizing, with a data processing unit, the coverage count associated with each sample; - selecting, with a data processing unit, for each sample, a set of reference samples as the samples with the closest normalized coverage count to the normalized coverage count of said sample, the number of reference samples in each set of reference samples being a function of the total number of samples and is smaller than the total number of samples; - for each sample, estimating the copy-number values in said sample as a function of at least the coverage counts in said sample and of at least the coverage counts in the selected set of reference samples for said sample.
A method for producing a powder of a magnetoplumbite-type hexagonal ferrite which is an aggregate of particles of a compound represented by Formula, the method comprising: a step A of adjusting a pH of an aqueous solution containing a Fe salt, an Al salt, and at least one metal element salt selected from the group consisting of a Sr salt, a Ba salt, a Ca salt, and a Pb salt to exceed 8.0, thereby obtaining a reaction product; a step B of drying the reaction product obtained in the step A, thereby obtaining a dried product; and a step C of firing the dried product obtained in Step B, thereby obtaining a fired product, AFe (12-x) Al x O 19 ··· Formula in Formula, A represents at least one metal element selected from the group consisting of Sr, Ba, Ca, and Pb, and x satisfies 1.5 ≤ x ≤ 8.0, characterized in that, in the step A, a liquid temperature of the aqueous solution is 15°C to 40°C. a step A of adjusting a pH of an aqueous solution containing a Fe salt, an Al salt, and at least one metal element salt selected from the group consisting of a Sr salt, a Ba salt, a Ca salt, and a Pb salt to exceed 8.0, thereby obtaining a reaction product; a step B of drying the reaction product obtained in the step A, thereby obtaining a dried product; and a step C of firing the dried product obtained in Step B, thereby obtaining a fired product, AFe (12-x) Al x O 19 ··· Formula in Formula, A represents at least one metal element selected from the group consisting of Sr, Ba, Ca, and Pb, and x satisfies 1.5 ≤ x ≤ 8.0, characterized in that, in the step A, a liquid temperature of the aqueous solution is 15°C to 40°C.
A method of preparing an oil extended styrene/butadiene rubber (SSBR) comprising blending a soybean triglyceride oil with a cement comprising an organic solvent and a styrene/butadiene rubber (SSBR) and recovering a composite from the blended cement comprising the soybean oil and the SSBR, wherein the soybean oil comprises mixed saturated and unsaturated fatty acid esters, and wherein the unsaturated ester portion of the soybean oil comprises at least 65 percent of oleic acid ester.
A method for improving wear protection in an engine lubricated with a lubricating oil by using as the lubricating oil a formulated oil having a HTHS viscosity of less than 2.6 cP at 150°C, said formulated oil having a composition comprising a major amount of a lubricating oil base stock and a minor amount of metal phosphate nanoplatelets; wherein said metal phosphate nanoplatelets are dispersed in said lubricating oil base stock sufficient for the formulated oil to pass wear protection requirements of one or more engine tests selected from TU3M, Sequence IIIG, Sequence IVA and OM646LA and wherein the metal phosphate nanoplatelets comprise alpha zirconium phosphate (ZrP) nanoplatelets having diameters less than 1500 nm, wherein the alpha zirconium phosphate (ZrP) nanoplatelets are grafted with a hydrocarbon polymer to form hydrocarbon polymer nanoplates that are dispersed in said lubricating oil base stock; wherein the hydrocarbon polymer comprises a homopolymer, random copolymer or block copolymer that is amorphous and has a number average molecular weight (M n) below 25,000; and wherein the oil base stock is present in an amount of from 70 weight percent to 95 weight percent, and the metal phosphate nanoplatelets are present in an amount of from 0.1 weight percent to 10 weight percent, based on the total weight of the formulated oil.