mhurhangee/ep-ind-claims huggingface dataset:
A seat heater comprising: a first heat generator embedded in a seat; a second heat generator (20, 21) embedded in the seat at a location different from the first heat generator; and a controller operable to execute a fluctuation control in which a first set temperature of the first heat generator and a second set temperature of the second heat generator (20, 21) are increased or decreased in each of a plurality of predetermined time periods; wherein the controller changes and sets a first temperature drop of the first set temperature with respect to a predetermined reference set temperature and a second temperature drop of the second set temperature with respect to the predetermined reference set temperature for each of the predetermined time periods by the fluctuation control, and wherein during the fluctuation control the controller sets the second temperature drop to be larger than the first temperature drop in the time period in which the first temperature drop is small and the second temperature drop to be smaller than the first temperature drop in the time period in which the first temperature drop is large. a first heat generator embedded in a seat; a second heat generator (20, 21) embedded in the seat at a location different from the first heat generator; and a controller operable to execute a fluctuation control in which a first set temperature of the first heat generator and a second set temperature of the second heat generator (20, 21) are increased or decreased in each of a plurality of predetermined time periods; wherein the controller changes and sets a first temperature drop of the first set temperature with respect to a predetermined reference set temperature and a second temperature drop of the second set temperature with respect to the predetermined reference set temperature for each of the predetermined time periods by the fluctuation control, and wherein during the fluctuation control the controller sets the second temperature drop to be larger than the first temperature drop in the time period in which the first temperature drop is small and the second temperature drop to be smaller than the first temperature drop in the time period in which the first temperature drop is large.
A cover for protecting the lower portion of the steering column of a vehicle, intended to prevent infiltrations of material in the opening in the form of a dish of the floor and of the front floor mat of the vehicle for the passage of the steering column, including a principal body, which comprises a tubular wall of substantially semicylindrical shape, and positioning means of the protective cover on the front floor mat of the vehicle, and assembly elements of said protective cover on said front floor mat of the vehicle, characterized in that it includes a substantially flat base connected to the lower part of the tubular wall, intended to partially cover said dish-shaped opening and to conceal the lower part of the steering column.
A computer-implemented method for allowing data restoration from opaque data backup streams created by a backup application without using the data backup application to perform a complete restore operation, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: initiating, from a client, a virtual restore of an opaque data backup stream that is hosted on a server and that comprises blocks of data with modified headers and tails designed to be parsed exclusively by a data backup application that created the opaque data backup stream, wherein the virtual restore avoids storing a fully restored set of data from the opaque data backup stream on either the client or the server, and wherein the modified headers and tails comprises changes to a relative data block address and a block checksum for the blocks of data with the modified headers and tails; for each block of data in the opaque data backup stream: determining an original header and tail of the block based on a restored version of the block on the client; sending the original header and tail of the block from the client to the server; and creating, at the server, a mapping between a location of the block of data in the opaque data backup stream on the server and the original header and tail of the block. initiating, from a client, a virtual restore of an opaque data backup stream that is hosted on a server and that comprises blocks of data with modified headers and tails designed to be parsed exclusively by a data backup application that created the opaque data backup stream, wherein the virtual restore avoids storing a fully restored set of data from the opaque data backup stream on either the client or the server, and wherein the modified headers and tails comprises changes to a relative data block address and a block checksum for the blocks of data with the modified headers and tails; for each block of data in the opaque data backup stream: determining an original header and tail of the block based on a restored version of the block on the client; sending the original header and tail of the block from the client to the server; and creating, at the server, a mapping between a location of the block of data in the opaque data backup stream on the server and the original header and tail of the block. determining an original header and tail of the block based on a restored version of the block on the client; sending the original header and tail of the block from the client to the server; and creating, at the server, a mapping between a location of the block of data in the opaque data backup stream on the server and the original header and tail of the block.
A terminal, comprising: a receiving unit configured to receive a message requesting a report of a terminal capability, from a base station; a control unit configured to include, in a message reporting the terminal capability, a terminal capability that is related to measurement using a reference signal for acquiring a channel state, for each of band combinations that are selected from a plurality of bands that are report targets included in the message requesting the report of the terminal capability; and a transmitting unit configured to transmit the message reporting the terminal capability to the base station, wherein a range of a target time domain is specified for the terminal capability related to the measurement, and wherein the control unit is configured to include, in the message reporting the terminal capability, the terminal capability that is related to the measurement by including the terminal capability that is related to the measurement in CA-ParametersNR, including the CA-ParametersNR in BandCombinationList, including the BandCombinationList in RF-Parameters, and including the RF-Parameters in UE-NR-Capability. a receiving unit configured to receive a message requesting a report of a terminal capability, from a base station; a control unit configured to include, in a message reporting the terminal capability, a terminal capability that is related to measurement using a reference signal for acquiring a channel state, for each of band combinations that are selected from a plurality of bands that are report targets included in the message requesting the report of the terminal capability; and a transmitting unit configured to transmit the message reporting the terminal capability to the base station, wherein a range of a target time domain is specified for the terminal capability related to the measurement, and wherein the control unit is configured to include, in the message reporting the terminal capability, the terminal capability that is related to the measurement by including the terminal capability that is related to the measurement in CA-ParametersNR, including the CA-ParametersNR in BandCombinationList, including the BandCombinationList in RF-Parameters, and including the RF-Parameters in UE-NR-Capability.
A robotic surgical system comprising: a robotic linkage including a plurality of joints; an endoscope coupled to a distal portion of the robotic linkage and configured to capture stereoscopic images; and a controller in operable communication with the endoscope, characterized in that the controller is configured to execute instructions to cause the controller to: analyze the stereoscopic images from the endoscope to identify a human-held tool in the stereoscopic images and to estimate at least one of a type or pose of the human-held tool, infer a position of a person holding the human-held tool based on the at least one of the type or pose of the human-held tool, determine a spatial relationship between the person and the robotic linkage based on the inferred position of the person, and generate a warning of a potential collision between the person and the robotic linkage based on the determined spatial relationship. a robotic linkage including a plurality of joints; an endoscope coupled to a distal portion of the robotic linkage and configured to capture stereoscopic images; and a controller in operable communication with the endoscope, characterized in that the controller is configured to execute instructions to cause the controller to: analyze the stereoscopic images from the endoscope to identify a human-held tool in the stereoscopic images and to estimate at least one of a type or pose of the human-held tool, infer a position of a person holding the human-held tool based on the at least one of the type or pose of the human-held tool, determine a spatial relationship between the person and the robotic linkage based on the inferred position of the person, and generate a warning of a potential collision between the person and the robotic linkage based on the determined spatial relationship. analyze the stereoscopic images from the endoscope to identify a human-held tool in the stereoscopic images and to estimate at least one of a type or pose of the human-held tool, infer a position of a person holding the human-held tool based on the at least one of the type or pose of the human-held tool, determine a spatial relationship between the person and the robotic linkage based on the inferred position of the person, and generate a warning of a potential collision between the person and the robotic linkage based on the determined spatial relationship.
An automated transport unit for use in a laboratory environment, the automated transport unit comprising: a drive mechanism for moving the automated transport unit; a control system for controlling operation of the automated transport unit; a power supply for powering the automated transport unit; a storage compartment configured to hold a material obtained from a fluid storage vessel and/or to be delivered to a fluid storage vessel; and a material transfer device configured to extract material from the fluid storage vessel and/or add material to the fluid storage vessel; wherein: the storage compartment further comprises a biological safety compartment suitable for the storing and containment of biological material in an aseptic manner; the material transfer device is arranged to maintain the sterility of the fluid storage vessel; the automated transport unit further comprises a sterilising device configured to sterilise a connection port of the fluid storage vessel prior to extracting material from the fluid storage vessel and/or adding material to the fluid storage vessel; and the material transfer device further comprises a pump or syringe configured to remove material from the fluid storage vessel and/or add material into the fluid storage vessel. a drive mechanism for moving the automated transport unit; a control system for controlling operation of the automated transport unit; a power supply for powering the automated transport unit; a storage compartment configured to hold a material obtained from a fluid storage vessel and/or to be delivered to a fluid storage vessel; and a material transfer device configured to extract material from the fluid storage vessel and/or add material to the fluid storage vessel; wherein: the storage compartment further comprises a biological safety compartment suitable for the storing and containment of biological material in an aseptic manner; the material transfer device is arranged to maintain the sterility of the fluid storage vessel; the automated transport unit further comprises a sterilising device configured to sterilise a connection port of the fluid storage vessel prior to extracting material from the fluid storage vessel and/or adding material to the fluid storage vessel; and the material transfer device further comprises a pump or syringe configured to remove material from the fluid storage vessel and/or add material into the fluid storage vessel. the storage compartment further comprises a biological safety compartment suitable for the storing and containment of biological material in an aseptic manner; the material transfer device is arranged to maintain the sterility of the fluid storage vessel; the automated transport unit further comprises a sterilising device configured to sterilise a connection port of the fluid storage vessel prior to extracting material from the fluid storage vessel and/or adding material to the fluid storage vessel; and the material transfer device further comprises a pump or syringe configured to remove material from the fluid storage vessel and/or add material into the fluid storage vessel.
Hydrostatic traction drive having a hydraulic pump which is couplable to a drive machine and which serves for the supply of pressure medium to a hydraulic motor, which is couplable to an output, of the traction drive, wherein the hydraulic pump has a control cylinder with at least one cylinder chamber (12, 14) and has a swept volume (V P) adjustable by means of said control cylinder, and at least one electrically actuatable pressure valve (18, 26) is provided, by means of which the cylinder chamber (12, 14) can be charged with a control pressure (p a, p b) which has an adjusting action, and having a device by means of which a pressure (p) of the hydraulic pump can be limited through influencing of the control pressure (p a, p b), characterized in that the device is configured such that, by means thereof, the pressure (p) can be limited in controlled fashion, and said controlled limitation is calibratable.
Linear flux switching permanent magnet (FSPM) motor comprising a longitudinal linear stator with stator teeth facing an air gap (a) and a mover comprising at least one armature with armature teeth, whereby at least some of said, preferably all of said armature teeth embed at least one permanent magnet (20, 22), respectively, which armature teeth are spaced apart by slots for receiving an armature winding, characterized in that the permanent magnets (20, 22) embedded in the corresponding armature teeth protrude by an overhang (d) over the back of the armature in a direction facing away from the air gap (a).
A power equipment protection system comprising: a plurality of trip units comprising at least a first trip unit and a second trip unit, each of said plurality of trip units configured to monitor operation data relating to a respective circuit breaker; and a shared memory device communicatively coupled to said plurality of trip units via a network, said shared memory device configured to: transmit a synchronization request to at least said second trip unit; receive a response from said second trip unit, the response including operation data associated with a circuit breaker that is communicatively coupled to said second trip unit; characterized in receive a data request from said first trip unit; and transmit the operation data associated with said second trip unit to said first trip unit via said network, wherein said first trip unit is configured to execute at least one function using the operation data associated with said second trip unit. a plurality of trip units comprising at least a first trip unit and a second trip unit, each of said plurality of trip units configured to monitor operation data relating to a respective circuit breaker; and a shared memory device communicatively coupled to said plurality of trip units via a network, said shared memory device configured to: transmit a synchronization request to at least said second trip unit; receive a response from said second trip unit, the response including operation data associated with a circuit breaker that is communicatively coupled to said second trip unit; characterized in receive a data request from said first trip unit; and transmit the operation data associated with said second trip unit to said first trip unit via said network, wherein said first trip unit is configured to execute at least one function using the operation data associated with said second trip unit. transmit a synchronization request to at least said second trip unit; receive a response from said second trip unit, the response including operation data associated with a circuit breaker that is communicatively coupled to said second trip unit; characterized in receive a data request from said first trip unit; and transmit the operation data associated with said second trip unit to said first trip unit via said network, wherein said first trip unit is configured to execute at least one function using the operation data associated with said second trip unit.
A dentifrice composition comprising a zinc compound and an abrasive, wherein the abrasive comprises abrasive silica and calcium carbonate, and wherein the composition whitens the teeth and strengthens the enamel, wherein the zinc compound is present in an amount in the range of 0.1 wt % to 5 wt % and is a mixture of two zinc compounds wherein the weight ratio of the compounds may be in a range from 1:4 to 6:1; and the weight ratio of the calcium carbonate to the amount of abrasive silica is in the range of 1:2 to 2:1.
A method for providing a calibration curve for an optical D-dimer assay comprising a) providing a calibrator stock solution having a predetermined D-dimer concentration, b) providing at least two calibrator samples, wherein said at least two calibrator samples are derived from said calibrator stock solution, wherein all or all but one calibrator samples are derived from said calibrator stock solution by dilution, c) determining the value of an optical property of said calibrator samples of b) in said D-dimer assay, d) assigning an assigned concentration value to at least one calibrator sample of b), wherein said assigned concentration value assigned to at least one calibrator sample deviates from the calculated concentration value of said calibrator sample, wherein said calculated concentration value is a concentration value attributed to a calibrator sample by taking into account the dilution factor applied while deriving the calibrator sample from the calibrator stock solution; and wherein said assigned concentration value was obtained by comparing a calibration curve obtained with the method used in step c) to a reference calibration curve obtained for said calibrator stock solution with a different method, obtained on a different device, or obtained on a different device model, and e) establishing a calibration curve based on the values of said optical property of c), on the assigned concentration value or the assigned concentration values of d), and on calculated concentration values for calibrator samples to which no assigned concentration value was assigned. a) providing a calibrator stock solution having a predetermined D-dimer concentration, b) providing at least two calibrator samples, wherein said at least two calibrator samples are derived from said calibrator stock solution, wherein all or all but one calibrator samples are derived from said calibrator stock solution by dilution, c) determining the value of an optical property of said calibrator samples of b) in said D-dimer assay, d) assigning an assigned concentration value to at least one calibrator sample of b), wherein said assigned concentration value assigned to at least one calibrator sample deviates from the calculated concentration value of said calibrator sample, wherein said calculated concentration value is a concentration value attributed to a calibrator sample by taking into account the dilution factor applied while deriving the calibrator sample from the calibrator stock solution; and wherein said assigned concentration value was obtained by comparing a calibration curve obtained with the method used in step c) to a reference calibration curve obtained for said calibrator stock solution with a different method, obtained on a different device, or obtained on a different device model, and e) establishing a calibration curve based on the values of said optical property of c), on the assigned concentration value or the assigned concentration values of d), and on calculated concentration values for calibrator samples to which no assigned concentration value was assigned.
A method for determining navigation data, comprising: determining positional angle measurement values with a first inertial navigation device; and initializing a second hybrid navigation device with the positional angle measurement values determined by the first navigation device, wherein rotation rate and acceleration measurement values for the determining of the positional angle measurement values are supplied to the first navigation device and the second navigation device from a sensor unit; wherein erroneous measurements of the positional angle measurement values determined by the first navigation device occur with a probability that is smaller than a predetermined positional angle error rate; erroneous measurements of the positional angle measurement values determined by the second navigation device occur with a probability that is larger than the predetermined positional angle error rate; and an erroneous measurement of the positional angle measurement values is present, if one of the determined positional angle measurement values deviates by more than a predetermined positional angle tolerance value from a respective positional angle reference value. determining positional angle measurement values with a first inertial navigation device; and initializing a second hybrid navigation device with the positional angle measurement values determined by the first navigation device, wherein rotation rate and acceleration measurement values for the determining of the positional angle measurement values are supplied to the first navigation device and the second navigation device from a sensor unit; wherein erroneous measurements of the positional angle measurement values determined by the first navigation device occur with a probability that is smaller than a predetermined positional angle error rate; erroneous measurements of the positional angle measurement values determined by the second navigation device occur with a probability that is larger than the predetermined positional angle error rate; and an erroneous measurement of the positional angle measurement values is present, if one of the determined positional angle measurement values deviates by more than a predetermined positional angle tolerance value from a respective positional angle reference value.
A system comprising: a gas field ion source capable of interacting with a gas to generate an ion beam, an ion optics configured to focus the ion beam onto a surface of a sample so that the ion beam can interact with a sample to cause particles to leave the sample, wherein the ion beam has a spot size with a dimension of 10 nm or less at the surface of the sample, at least one detector to determine the angular dependence of the scattered ions; the at least one detector configured so that, during use, the at least one detector can detect at least some of the particles including ions scattered at the sample, the detector having an acceptance angle; wherein the at least one detector is configured so that the scattering angle and the energy of each detected scattered ion is known for each angle within the acceptance angle of the detector; an electronic processor electrically connected to the at least one detector so that, during use, the electronic processor can process information based on the detected scattered ions to determine information about the sample.