mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a motor vehicle in an activated, at least partially autonomous driving mode, wherein the motor vehicle comprises a control unit which controls the motor vehicle when the at least partially autonomous driving mode is activated to reach a destination along a route, wherein - a detection device arranged in the motor vehicle detects at least one motor vehicle occupant in the motor vehicle; - an authorisation apparatus coupled to the detection device checks, after the at least one motor vehicle occupant has been detected, whether at least one of the at least one detected motor vehicle occupants satisfies at least one authorisation criterion; wherein - when the at least one authorisation criterion is satisfied, the authorisation apparatus itself generates an enable signal and sends it to the control unit, wherein the control unit, upon reception of the enable signal, activates the at least partially autonomous driving mode; and - when the at least one authorisation criterion is not satisfied, the authorisation apparatus transmits an interrogation signal to a vehicle-external authorisation device and receives an external enable signal from the external authorisation device and, as a function of a reception of the external enable signal, the authorisation apparatus forwards the received enable signal to the control unit in response to the interrogation signal, characterised in that the enable signal comprises an item of information about the destination, wherein the control unit, upon reception of the enable signal, selects the destination comprised in the enable signal and activates the at least partially autonomous driving mode. - a detection device arranged in the motor vehicle detects at least one motor vehicle occupant in the motor vehicle; - an authorisation apparatus coupled to the detection device checks, after the at least one motor vehicle occupant has been detected, whether at least one of the at least one detected motor vehicle occupants satisfies at least one authorisation criterion; wherein - when the at least one authorisation criterion is satisfied, the authorisation apparatus itself generates an enable signal and sends it to the control unit, wherein the control unit, upon reception of the enable signal, activates the at least partially autonomous driving mode; and - when the at least one authorisation criterion is not satisfied, the authorisation apparatus transmits an interrogation signal to a vehicle-external authorisation device and receives an external enable signal from the external authorisation device and, as a function of a reception of the external enable signal, the authorisation apparatus forwards the received enable signal to the control unit in response to the interrogation signal,
A contactor comprising: a bellows body; a fixed portion, connected to one end of the bellows body, and a movable portion, connected to the other end of the bellows body, wherein the bellows body, the fixed portion and the movable portion are integrally molded by electroforming, and the movable portion is adapted to be depressed to compress the bellows body, so that adjacent arc portions of the bellows body are brought into contact with each other to cause a short circuit, characterized in that a sliding projection is provided at an apex of a corresponding arc portion in the bellows body. a bellows body; a fixed portion, connected to one end of the bellows body, and a movable portion, connected to the other end of the bellows body, wherein the bellows body, the fixed portion and the movable portion are integrally molded by electroforming, and the movable portion is adapted to be depressed to compress the bellows body, so that adjacent arc portions of the bellows body are brought into contact with each other to cause a short circuit, characterized in that a sliding projection is provided at an apex of a corresponding arc portion in the bellows body.
A method of providing imagery to a user of a head mounted display comprising a display, an eye tracker configured to provide eye tracking data and a processor, the method comprising: Receiving, from the eye tracker, eye tracking data; Determining, by the processor, a gaze location on the display or a gaze vector using the eye tracking data; Defining, by the processor, a first tile using the gaze location on the display or the gaze vector (136, 302), wherein the first tile has a height (h) and a width (w), the height and width being determined using the eye tracking data; Defining, by the processor, a plurality of additional tiles (602b, 602c) to fill an entire area of the display; and Providing, on the display, a portion of an image using the first tile at a first image quality at the same time as providing another portion of the image at a second image quality using at least one of the plurality of additional tiles (602b, 602c) to fill an entire area of the display at the second image quality. Receiving, from the eye tracker, eye tracking data; Determining, by the processor, a gaze location on the display or a gaze vector using the eye tracking data; Defining, by the processor, a first tile using the gaze location on the display or the gaze vector (136, 302), wherein the first tile has a height (h) and a width (w), the height and width being determined using the eye tracking data; Defining, by the processor, a plurality of additional tiles (602b, 602c) to fill an entire area of the display; and Providing, on the display, a portion of an image using the first tile at a first image quality at the same time as providing another portion of the image at a second image quality using at least one of the plurality of additional tiles (602b, 602c) to fill an entire area of the display at the second image quality.
An absorbent article having a longitudinal axis, a lateral axis, opposite longitudinal end regions (22, 24) and a central region extending longitudinally between and interconnecting the end regions, said absorbent article comprising: an outer cover; a bodyside liner adapted for contiguous relationship with the wearer's skin; and an absorbent structure disposed between the bodyside liner and the outer cover, the absorbent structure being secured to at least one of the liner and the outer cover within a securement zone, the securement zone comprising a central portion having longitudinally opposite end boundaries (116a, 116b), and being disposed generally within the central region of the article and having an average width (W c) as determined by a Securement Zone Measurement Method, and a pair of outer portion (114a, 114b) disposed longitudinally outward of the central portion of the securement zone, one of said outer portions extending longitudinally toward one end of the absorbent article, the other outer portion extending longitudinally toward the opposite end of the absorbent article, each said outer portion having an average width (W O) as determined by the Securement Zone Measurement Method, said average width of the central portion of the securement zone being substantially greater than said average width of each outer portion (114a, 114b) of said securement zone. an outer cover; a bodyside liner adapted for contiguous relationship with the wearer's skin; and an absorbent structure disposed between the bodyside liner and the outer cover, the absorbent structure being secured to at least one of the liner and the outer cover within a securement zone, the securement zone comprising a central portion having longitudinally opposite end boundaries (116a, 116b), and being disposed generally within the central region of the article and having an average width (W c) as determined by a Securement Zone Measurement Method, and a pair of outer portion (114a, 114b) disposed longitudinally outward of the central portion of the securement zone, one of said outer portions extending longitudinally toward one end of the absorbent article, the other outer portion extending longitudinally toward the opposite end of the absorbent article, each said outer portion having an average width (W O) as determined by the Securement Zone Measurement Method, said average width of the central portion of the securement zone being substantially greater than said average width of each outer portion (114a, 114b) of said securement zone.
A compound for use in a method of treating multiple myeloma in a patient having multiple myeloma and having received stem cell transplantation, wherein the compound has the formula: or a pharmaceutically acceptable salt, solvate, hydrate or stereoisomer thereof; wherein the patient has received an induction therapy with the compound before receiving the stem cell transplantation; and wherein the method comprises: a. determining the minimal residual disease status of the patient following the stem cell transplantation; and b. if the minimal residual disease status of the patient is greater than 0.01%, the compound is administered in the amount of from 1 to 50 mg per day in combination with a therapeutically effective amount of an anti-CSl antibody. wherein the compound has the formula: or a pharmaceutically acceptable salt, solvate, hydrate or stereoisomer thereof; wherein the patient has received an induction therapy with the compound before receiving the stem cell transplantation; and wherein the method comprises: a. determining the minimal residual disease status of the patient following the stem cell transplantation; and b. if the minimal residual disease status of the patient is greater than 0.01%, the compound is administered in the amount of from 1 to 50 mg per day in combination with a therapeutically effective amount of an anti-CSl antibody. a. determining the minimal residual disease status of the patient following the stem cell transplantation; and b. if the minimal residual disease status of the patient is greater than 0.01%, the compound is administered in the amount of from 1 to 50 mg per day in combination with a therapeutically effective amount of an anti-CSl antibody.
Method for correcting a frequency shift on symbols received by a receiver, each symbol being composed of N samples and of a cyclic prefix or a cyclic postfix of a predetermined number Δ samples, the Δ samples being a copy of Δ samples of the N samples, wherein the method comprises the steps, executed by a receiver, of: - calculating for each symbol, a correlation between at most the Δ samples of the cyclic prefix and the at most Δ samples among the last samples or a correlation between at most the Δ samples of the cyclic postfix and the at most Δ among the first samples of the N samples, - averaging the correlations over a number of symbols and determining one smooth frequency shift estimation for each averaged correlation or averaging over the number of symbols instantaneous frequency shifts determined from calculated correlations in order to obtain one smooth frequency shift estimation for each symbol, - weighting the smooth frequency shift estimation by a coefficient, wherein the number of symbols and/or the coefficient are determined from channel characteristic between a source and the receiver. - calculating an exponential from the weighted smooth frequency shift estimation, - delaying the received symbols by a delay, - multiplying the exponential by the delayed received symbols, - estimating a Ricean K -factor of the channel between a source and the receiver and/or estimating the frequency shift excursions using the instantaneous frequency shift estimations, - determining using the Ricean K -factor and/or the frequency shift excursions, the number of symbols and/or the coefficient. - calculating for each symbol, a correlation between at most the Δ samples of the cyclic prefix and the at most Δ samples among the last samples or a correlation between at most the Δ samples of the cyclic postfix and the at most Δ among the first samples of the N samples, - averaging the correlations over a number of symbols and determining one smooth frequency shift estimation for each averaged correlation or averaging over the number of symbols instantaneous frequency shifts determined from calculated correlations in order to obtain one smooth frequency shift estimation for each symbol, - weighting the smooth frequency shift estimation by a coefficient, wherein the number of symbols and/or the coefficient are determined from channel characteristic between a source and the receiver. - calculating an exponential from the weighted smooth frequency shift estimation, - delaying the received symbols by a delay, - multiplying the exponential by the delayed received symbols, - estimating a Ricean K -factor of the channel between a source and the receiver and/or estimating the frequency shift excursions using the instantaneous frequency shift estimations, - determining using the Ricean K -factor and/or the frequency shift excursions, the number of symbols and/or the coefficient.
An identification tag for use in a location system, comprising: a controller; a receiver for receiving wireless signals from an exciter; and a transmitter for transmitting wireless signals to at least one location receiver; wherein the controller is configured to determine a presence of interference from a source unrelated to the location system, and to cause the transmitter to transmit an alert signal; characterized by further comprising a test transmitter for transmitting a test message, wherein the controller is configured to determine the presence of interference from a source unrelated to the location system when the receiver of the tag does not successfully receive the test message, and the controller is configured such that if the test message is not successfully received then the alert signal can be transmitted. a controller; a receiver for receiving wireless signals from an exciter; and a transmitter for transmitting wireless signals to at least one location receiver; wherein the controller is configured to determine a presence of interference from a source unrelated to the location system, and to cause the transmitter to transmit an alert signal; characterized by further comprising a test transmitter for transmitting a test message, wherein the controller is configured to determine the presence of interference from a source unrelated to the location system when the receiver of the tag does not successfully receive the test message, and the controller is configured such that if the test message is not successfully received then the alert signal can be transmitted.
A method of predicting vehicle rollover and activating an occupant restraint system comprising receiving input signals for detection of one or more of a vehicle position and vehicle movement that indicate a potential for vehicle rollover, determining, based on said one or more of the input signals when a first pre-rollover stage threshold has been met, activating at least a first re-settable restraint device to restrain an occupant when the first pre-rollover stage threshold has been met, characterised in determining, based on said one or more of the input signals when a second distinct pre-rollover stage threshold has been met, activating at least another re-settable restraint device to maintain the occupant's position when the second pre-rollover stage threshold has been met, determining based on said one or more of the input signals when a first rollover stage threshold has been met, activating at least a first non-re-settable restraint device when the first rollover stage threshold has been met, determining based on said one or more of the input signals when a second distinct rollover stage threshold has been met, and activating at least another non-re-settable restraint device when the second rollover stage threshold has been met.
A manipulator system comprising: a manipulator that includes an elongated insertion portion having a plurality of channels formed therethrough in the longitudinal direction, a treatment tool to be inserted into one of the channels of the insertion portion, and a treatment-tool driving part that allows the treatment tool to perform at least one of a forward/backward movement and a rotary movement in the channel; an operation input unit to which an operator inputs an operation instruction for the treatment tool; a control unit that generates a control signal for driving the treatment-tool driving part, according to the operation instruction input to the operation input unit; a channel-in-use detecting part that detects, among the plurality of channels, the channel into which the treatment tool has been inserted; and a compensation-value setting unit that sets a compensation value for the control signal on the basis of the channel detected by the channel-in-use detecting part, wherein the control unit compensates the control signal by using the compensation value set by the compensation-value setting unit and sends the compensated control signal to the treatment-tool driving part. a manipulator that includes an elongated insertion portion having a plurality of channels formed therethrough in the longitudinal direction, a treatment tool to be inserted into one of the channels of the insertion portion, and a treatment-tool driving part that allows the treatment tool to perform at least one of a forward/backward movement and a rotary movement in the channel; an operation input unit to which an operator inputs an operation instruction for the treatment tool; a control unit that generates a control signal for driving the treatment-tool driving part, according to the operation instruction input to the operation input unit; a channel-in-use detecting part that detects, among the plurality of channels, the channel into which the treatment tool has been inserted; and a compensation-value setting unit that sets a compensation value for the control signal on the basis of the channel detected by the channel-in-use detecting part, wherein the control unit compensates the control signal by using the compensation value set by the compensation-value setting unit and sends the compensated control signal to the treatment-tool driving part.
A method for calculating a total state-of-charge of a battery, wherein the method comprises: calculating the total state-of-charge as a coulomb counting state-of-charge (SoC), upon determining that the battery is charging; - determining an off period (dtoff), which is the time period that the battery has not received charge, upon determining that the battery is no longer charging, - calculating the total state-of-charge as a constant state of charge value (SoC') being equal to the coulomb counting state-of-charge (SoC), upon determining that the off period (dtoff) is shorter than a first time interval, or - calculating the total state-of-charge as a function of the constant state-of-charge value (SoC') and an open circuit voltage state-of-charge value (SoC) determined by means of an open circuit voltage across the poles of the battery, upon determining that the off period (dtoff) is shorter than a second time interval, and that the off period (dtoff) is longer than the first time interval, wherein the function comprises a sum of a first function, comprising the relation 1-W, multiplied with the constant state-of-charge value (SoC') and a second function, comprising the relation W, multiplied with the open circuit voltage state-of-charge value (SoC), wherein W strictly increases from 0 to 1 when the off period (dtoff) changes from the first time interval to the second time interval, or - calculating the total state-of-charge as the open circuit voltage state-of-charge value (SoC), upon determining that the off period (dtoff) is larger than the second time interval. - determining an off period (dtoff), which is the time period that the battery has not received charge, upon determining that the battery is no longer charging, - calculating the total state-of-charge as a constant state of charge value (SoC') being equal to the coulomb counting state-of-charge (SoC), upon determining that the off period (dtoff) is shorter than a first time interval, or - calculating the total state-of-charge as a function of the constant state-of-charge value (SoC') and an open circuit voltage state-of-charge value (SoC) determined by means of an open circuit voltage across the poles of the battery, upon determining that the off period (dtoff) is shorter than a second time interval, and that the off period (dtoff) is longer than the first time interval, wherein the function comprises a sum of a first function, comprising the relation 1-W, multiplied with the constant state-of-charge value (SoC') and a second function, comprising the relation W, multiplied with the open circuit voltage state-of-charge value (SoC), wherein W strictly increases from 0 to 1 when the off period (dtoff) changes from the first time interval to the second time interval, or - calculating the total state-of-charge as the open circuit voltage state-of-charge value (SoC), upon determining that the off period (dtoff) is larger than the second time interval.
A hardware-based processing node (605, 610, 705, 710, 820, 825, 1005, 1010, 2200) of a plurality of hardware-based processing nodes (605, 610, 705, 710, 820, 825, 1005, 1010, 2200) for use in an object memory fabric (405, 600, 700, 3305), the hardware-based processing node (605, 610, 705, 710, 820, 825, 1005, 1010, 2200) comprising: a memory module (625, 630) for storing and managing a plurality of memory objects (510, 1705) in a hierarchy of the object memory fabric (405, 600, 700, 3305), the memory module (625, 630) comprising a Dual In-line Memory Module, DIMM, wherein: each memory object (510, 1705) is arranged to be created natively within the memory module (625, 630), each memory object (510, 1705) is arranged to be accessed through an object namespace using a single memory reference instruction without Input/Output, I/O, instructions, each memory object (510, 1705) is arranged to be managed by the memory module (625, 630) through the object namespace at a single memory layer without distinction between temporary memory and persistent storage, and the object memory fabric (405, 600, 700, 3305) is arranged to distribute and track the memory objects (510, 1705) across the hierarchy of the object memory fabric (405, 600, 700, 3305) and the plurality of hardware-based processing nodes (605, 610, 705, 710, 820, 825, 1005, 1010, 2200) on a per-object basis. each memory object (510, 1705) is arranged to be created natively within the memory module (625, 630), each memory object (510, 1705) is arranged to be accessed through an object namespace using a single memory reference instruction without Input/Output, I/O, instructions, each memory object (510, 1705) is arranged to be managed by the memory module (625, 630) through the object namespace at a single memory layer without distinction between temporary memory and persistent storage, and the object memory fabric (405, 600, 700, 3305) is arranged to distribute and track the memory objects (510, 1705) across the hierarchy of the object memory fabric (405, 600, 700, 3305) and the plurality of hardware-based processing nodes (605, 610, 705, 710, 820, 825, 1005, 1010, 2200) on a per-object basis.