mhurhangee/ep-ind-claims huggingface dataset:
An apparatus including an optical system for generating images, comprising: a mechanical infrared light filter movable between a first position and a second position, the mechanical infrared light filter configured to allow infrared light to pass through the optical system while in the first position, and the mechanical infrared light filter configured to filter out infrared light from the optical system while in the second position; an imaging sensor including a set of imaging pixels and a set of infrared pixels, the imaging sensor configured to receive light from the optical system; and a processor coupled to the imaging sensor and configured to: receive visible light data corresponding to the set of imaging pixels from the imaging sensor after causing the mechanical infrared light filter to be in the second position; and receiving infrared light data corresponding to the set of infrared pixels from the imaging sensor after causing the mechanical infrared light filter to be in the first position; and generate a combined image based on the visible light data and the infrared light data. a mechanical infrared light filter movable between a first position and a second position, the mechanical infrared light filter configured to allow infrared light to pass through the optical system while in the first position, and the mechanical infrared light filter configured to filter out infrared light from the optical system while in the second position; an imaging sensor including a set of imaging pixels and a set of infrared pixels, the imaging sensor configured to receive light from the optical system; and a processor coupled to the imaging sensor and configured to: receive visible light data corresponding to the set of imaging pixels from the imaging sensor after causing the mechanical infrared light filter to be in the second position; and receiving infrared light data corresponding to the set of infrared pixels from the imaging sensor after causing the mechanical infrared light filter to be in the first position; and generate a combined image based on the visible light data and the infrared light data. receive visible light data corresponding to the set of imaging pixels from the imaging sensor after causing the mechanical infrared light filter to be in the second position; and receiving infrared light data corresponding to the set of infrared pixels from the imaging sensor after causing the mechanical infrared light filter to be in the first position; and generate a combined image based on the visible light data and the infrared light data.
Drug delivery device with a container defining a cavity for a drug and a stopper for proximally delimiting the cavity and displacing the drug from the cavity, the drug delivery device further comprising an arrangement for determining a position (x) of the stopper relative to the container, the arrangement comprising an acoustic source configured to emit an acoustic signal and an acoustic sensor configured to detect an acoustic signal, a processing unit for controlling the acoustic source and processing the detected acoustic signal for determining characteristics of the acoustic signal correlated with the position (x) of the stopper, characterized in that the acoustic source is aligned to emit the acoustic signal into a resonance volume, which is defined in one spatial dimension by the position of the stopper, wherein the processing unit is configured to vary the frequency (f) of the emitted acoustic signal within a pre-determined frequency range, wherein the processing unit is configured to detect a harmonic (f 1 (x), f 2 (x), f 3 (x), f 4 (x)) of a resonance frequency f k characteristic for the resonance volume related to the position (x), wherein the resonance volume is at least partially defined within a proximal end of the container and/or wherein a tube section with essentially the same internal diameter as the container is arranged proximally adjacent the container for at least partially defining the resonance volume.
A liquid composition, comprising: from 10 weight % to 55 weight % of ethoxylated amine of a fatty acid comprising, either 2,2'-(octadecylimino)bisethanol (PEG-2-Stearamine) or N,N,N'-tris (2-hydroxyethyl)-N'-alkyl/alkenyl(C14-C18)-1,3- diaminopropane (PEG-3 Tallow Aminopropylamine), based on a total weight of the liquid composition; from 35 weight % to 75 weight % of organic solvent, based on the total weight of the liquid composition; and from 0.20 weight % to 25 weight % of acid, based on the total weight of the liquid composition; wherein the organic solvent comprises propylene glycol; wherein the acid is one or more acids selected from the group consisting of malic acid, benzoic acid, mandelic acid, lactic acid, acetic acid, succinic acid, tartaric acid, and citric acid. from 10 weight % to 55 weight % of ethoxylated amine of a fatty acid comprising, either 2,2'-(octadecylimino)bisethanol (PEG-2-Stearamine) or N,N,N'-tris (2-hydroxyethyl)-N'-alkyl/alkenyl(C14-C18)-1,3- diaminopropane (PEG-3 Tallow Aminopropylamine), based on a total weight of the liquid composition; from 35 weight % to 75 weight % of organic solvent, based on the total weight of the liquid composition; and from 0.20 weight % to 25 weight % of acid, based on the total weight of the liquid composition; wherein the organic solvent comprises propylene glycol;
A trolley, comprising a body, at least one door, and a locking device for retaining the door in a closed position of the door and a retaining position of the locking device, characterised in that the trolley comprises a locking control device, which has a locking position, in which the locking control device cooperates with the locking device such that the locking device is locked in its retaining position, and a safety position, in which the locking control device cooperates with the locking device such that the locking device is movable from its retaining position into a release position and the door can be opened out from an interior of the body.
A method of determining pixel dropout of a printhead (30, 52a-d) that has a plurality of print elements arrayed along a first axis (X-X), comprising: a) using a mechanical image capture device (38, 60) to capture an image of a printed image on a surface of a retransfer film (32, 56), the printed image is printed on the retransfer film using the printhead; b) inputting the captured image into a processing device and using the processing device to generate a dataset of integrated intensity values, in a printing direction (Y-Y) along the path of relative travel between the printhead and the retransfer film, of the captured image; and characterized in that the method further comprises: c) using the dataset to determine if pixel dropout has occurred, including using the processing device to compare the dataset generated from the captured image to an expected dataset generated from print data used to generate the printed image. a) using a mechanical image capture device (38, 60) to capture an image of a printed image on a surface of a retransfer film (32, 56), the printed image is printed on the retransfer film using the printhead; b) inputting the captured image into a processing device and using the processing device to generate a dataset of integrated intensity values, in a printing direction (Y-Y) along the path of relative travel between the printhead and the retransfer film, of the captured image;
A processor-implemented battery control method, comprising: calculating a boosting ratio for converters (120, 121, 122) connected in series, each converter (120, 121, 122) connected to a corresponding battery (110, 111, 112), comprising: for each battery (110, 11, 112), multiplying one or more state values of the battery (110, 111, 112) including either one or both of a state of charge, SOC, value and a state of health, SOH, value of the battery (110, 111, 112) with a voltage value of the battery (110, 111, 112); adding up the resulting products and dividing a preset voltage value by said sum to determine a common boosting ratio for the converters (120, 121, 122); and calculating a boosting ratio for each converter (120, 121, 122) by multiplying the common boosting ratio by the one or more state values of the corresponding battery (110, 111, 112); and transmitting the calculated boosting ratio to the converters (120, 121, 122), respectively, wherein each converter (120, 121, 122) is configured to boost the output voltage of the corresponding battery (110, 111, 112) based on the calculated boosting ratio, and a sum of the boosted output voltages is equal to the preset voltage value corresponding to an operating voltage of a load. for each battery (110, 11, 112), multiplying one or more state values of the battery (110, 111, 112) including either one or both of a state of charge, SOC, value and a state of health, SOH, value of the battery (110, 111, 112) with a voltage value of the battery (110, 111, 112); adding up the resulting products and dividing a preset voltage value by said sum to determine a common boosting ratio for the converters (120, 121, 122); and calculating a boosting ratio for each converter (120, 121, 122) by multiplying the common boosting ratio by the one or more state values of the corresponding battery (110, 111, 112); and transmitting the calculated boosting ratio to the converters (120, 121, 122), respectively, wherein each converter (120, 121, 122) is configured to boost the output voltage of the corresponding battery (110, 111, 112) based on the calculated boosting ratio, and a sum of the boosted output voltages is equal to the preset voltage value corresponding to an operating voltage of a load.
A dental curing light system comprising: a. a thin-film-based light emitting diode semiconductor printed onto a flexible substrate with power leads, which substrate is in the form of a matrix band, b. a detachable battery power source capable of being connected to the power leads of the thin-film LED semiconductor, and c. an electronic control circuitry. a. a thin-film-based light emitting diode semiconductor printed onto a flexible substrate with power leads, which substrate is in the form of a matrix band, b. a detachable battery power source capable of being connected to the power leads of the thin-film LED semiconductor, and c. an electronic control circuitry.
A C-arm X-ray imaging system, provided to acquire extended three-dimensional images of an object, comprising: - a C-arm structure with an X-ray source and an X-ray detector mounted across from the X-ray source; - a motorized drive for a rotational movement of the C-arm structure; and - a control unit; wherein the C-arm structure is provided to perform a rotational scan around an axis of rotation and around an ISO-centre acquiring a number of X-ray projections in order to generate image data for a reconstructed three-dimensional field of view; wherein the control unit is configured to control the motorized drive; and wherein the control unit is configured to cause the rotational movement of the C-arm structure to perform: - a first rotational X-ray scan around a first ISO-centre with a first axis of rotation for a first field of view; and - at least a second rotational X-ray scan around a second ISO-centre with a second axis of rotation for a second field of view; wherein the first and the second ISO-centre are displaced in relation to each other such that a connection line between the first and the second ISO-centre is arranged transverse to the first and the second axis of rotation; characterised in that the control unit is configured to provide a convex hull as an extended three-dimensional field of view enclosing the first field of view and the second field of view and residual regions, which residual regions are located inside the convex hull, but outside the first and second fields of view, and wherein projection data from the first rotational X-ray scan are used for a reconstruction of the first field of view, projection data from the second rotational X-ray scan for a reconstruction of the second filed of view and projection data from at least one part of the first field of view and projection data from at least one part of the second field of view for a reconstruction of said residual regions. - a C-arm structure with an X-ray source and an X-ray detector mounted across from the X-ray source; - a motorized drive for a rotational movement of the C-arm structure; and - a control unit; - a first rotational X-ray scan around a first ISO-centre with a first axis of rotation for a first field of view; and - at least a second rotational X-ray scan around a second ISO-centre with a second axis of rotation for a second field of view;
A system for determining elevator car locations, the system comprising: a sensor, wherein the sensor is operated by a controller; and wherein the controller is configured to: determine that the elevator car is in motion based at least in part on the sensor; determine a direction of the elevator car while the elevator car is in motion based at least in part on the sensor; collect, from the sensor, sensor data associated with the elevator car while the elevator car is in motion, wherein the sensor data includes a travel time while the elevator car is in motion; access elevator car travel data from a travel time profile associated with the elevator car; compare the travel time to the elevator car travel data to determine a location of the elevator car in a hoistway; characterized in that the sensor is affixed to a moving component of an elevator system; and the controller is further configured to: collect, by the sensor, additional sensor data; and associate the additional sensor data with the location of the elevator car in the hoistway; wherein the additional sensor data includes vibration data for the elevator car. a sensor, wherein the sensor is operated by a controller; and wherein the controller is configured to: determine that the elevator car is in motion based at least in part on the sensor; determine a direction of the elevator car while the elevator car is in motion based at least in part on the sensor; collect, from the sensor, sensor data associated with the elevator car while the elevator car is in motion, wherein the sensor data includes a travel time while the elevator car is in motion; access elevator car travel data from a travel time profile associated with the elevator car; compare the travel time to the elevator car travel data to determine a location of the elevator car in a hoistway; determine that the elevator car is in motion based at least in part on the sensor; determine a direction of the elevator car while the elevator car is in motion based at least in part on the sensor; collect, from the sensor, sensor data associated with the elevator car while the elevator car is in motion, wherein the sensor data includes a travel time while the elevator car is in motion; access elevator car travel data from a travel time profile associated with the elevator car; compare the travel time to the elevator car travel data to determine a location of the elevator car in a hoistway; characterized in that the sensor is affixed to a moving component of an elevator system; and the controller is further configured to: collect, by the sensor, additional sensor data; and associate the additional sensor data with the location of the elevator car in the hoistway; wherein the additional sensor data includes vibration data for the elevator car. collect, by the sensor, additional sensor data; and associate the additional sensor data with the location of the elevator car in the hoistway; wherein the additional sensor data includes vibration data for the elevator car.
Deposition head for a three-dimensional printer, comprising at least one pay-out device, a drive system for driving at least one wire (12.1, 12.2), and a guide system positioned in the vicinity of a deposition zone during operation, the drive system comprising a drive roller configured to pivot about a pivot axis at a rotational speed determined as a function of a desired speed of travel of the wire (12.1, 12.2), the drive roller having a cylindrical lateral surface coaxial with the pivot axis, and also a groove (58.1) positioned on the lateral surface in a plane substantially perpendicular to the pivot axis, the guide system comprising a wire guide which has a first end (82.1), a second end (82.2) close to the deposition zone during operation, and also a passage hole opening out at each of the first and second ends (82.1, 82.2), the passage hole having a passage section (84.1) at the second end (82.2) having a section substantially identical to the section of the wire (12.1, 12.2) to be guided; the pay-out device comprising several wire spools (18, 18'), one for each wire (12.1, 12.2) to be deposited simultaneously, the drive roller having several grooves (58.1, 58.2), one for each wire (12.1, 12.2) to be deposited simultaneously, the passage hole of the wire guide comprising several passage sections (84.1, 84.2), one for each wire (12.1, 12.2) to be deposited simultaneously, characterized in that the pay-out device comprises at least one cylindrical support on which wire spools (18, 18') are threaded and, for at least one wire spool, a friction braking system for limiting the rotation of the wire spool which comprises a body mounted on the free end (26.1) of the support, a coupling connecting the body and the wire spool closest to the free end (26.1) as well as a friction mechanism limiting, by friction, a pivoting movement of the body with respect to the support, each wire spool (18, 18')having a through hole (18.1) which has a diameter adjusted to that of the support so that each wire spool (18, 18') can pivot freely on the support.
An expandable spinal implant comprising three or more elongated implant members (20, 30, 40, 50), said implant members (20, 30, 40, 50) rotatably coupled to a central base portion, wherein said implant members (20, 30, 40, 50) comprise a first end with an axis of rotation and circumferentially arranged gear teeth (23, 33, 43, 53), wherein the gear teeth (23, 33, 43, 53) of at least one of said elongated implant members (20, 30, 40, 50) are interlocked into said gear teeth (23, 33, 43, 53) of the two other elongated implant members (20, 30, 40, 50).
A system for direct frequency conversion comprising: a multimode channelization filter architecture operable in an analog mode to process analog broadcast signals and in a digital mode to process digital broadcast signals and implemented as integrated circuits on a single integrated circuit substrate, the multimode channelization filter architecture including: a multimode channel filter, and a multimode vestige filter, a demodulator to perform demodulation in said analog mode; a direct conversion tuner coupled to said multimode channelization filter architecture and configured to provide a baseband signal to said multimode channelization filter architecture including desired channel signals; wherein said multimode channel filter is adapted to provide selection of said desired channel signals, wherein the multimode vestige filter is configured differently in the analog mode and in the digital mode, wherein said multimode vestige filter is configured to provide adjacent channel removal in said analog mode, and to provide removal of vestigial signal components after said demodulation of at least some of said desired channel signals in said analog mode, and wherein said multimode vestige filter is configured to provide compensation for a frequency response of a subsequent filter in said multimode channelization filter architecture in said digital mode. a multimode channelization filter architecture operable in an analog mode to process analog broadcast signals and in a digital mode to process digital broadcast signals and implemented as integrated circuits on a single integrated circuit substrate, the multimode channelization filter architecture including: a multimode channel filter, and a multimode vestige filter, a multimode channel filter, and a multimode vestige filter, a demodulator to perform demodulation in said analog mode; a direct conversion tuner coupled to said multimode channelization filter architecture and configured to provide a baseband signal to said multimode channelization filter architecture including desired channel signals; wherein said multimode channel filter is adapted to provide selection of said desired channel signals, wherein the multimode vestige filter is configured differently in the analog mode and in the digital mode, wherein said multimode vestige filter is configured to provide adjacent channel removal in said analog mode, and to provide removal of vestigial signal components after said demodulation of at least some of said desired channel signals in said analog mode, and wherein said multimode vestige filter is configured to provide compensation for a frequency response of a subsequent filter in said multimode channelization filter architecture in said digital mode.
A computerized method for detecting an anomaly in a computer that is a member of a population of networked computers, the method comprising: receiving snapshots from respective member computers of the population of computers, wherein the snapshots include run-time memory scan results of the member computers; identifying correlations between executing codes and dynamic link libraries loaded in memory during execution of the executing codes, wherein the executing codes correspond to run-time processes; generating a model from the received snapshots by encoding the correlations to form clusters of encoded correlations in the model, said model further including a set of stack traces and their associated processes characterizing thread creation behavior; and comparing a sample snapshot from the member computer to the model to determine whether a behavioral anomaly is present, wherein the behavioral anomaly is determined based on detecting one or more of changes in code, changes in execution stack, changes in execution of threads in comparison to the model. receiving snapshots from respective member computers of the population of computers, wherein the snapshots include run-time memory scan results of the member computers; identifying correlations between executing codes and dynamic link libraries loaded in memory during execution of the executing codes, wherein the executing codes correspond to run-time processes; generating a model from the received snapshots by encoding the correlations to form clusters of encoded correlations in the model, said model further including a set of stack traces and their associated processes characterizing thread creation behavior; and comparing a sample snapshot from the member computer to the model to determine whether a behavioral anomaly is present, wherein the behavioral anomaly is determined based on detecting one or more of changes in code, changes in execution stack, changes in execution of threads in comparison to the model.