mhurhangee/ep-ind-claims huggingface dataset:
A test and measurement instrument, comprising: a time domain channel configured to process a first input signal for analysis in a time domain; a frequency domain channel configured to process a second input signal for analysis in a frequency domain; and an acquisition system coupled to the time domain channel and the frequency domain channel and configured to acquire data from the time domain channel and the frequency domain channel, wherein the time domain channel and the frequency domain channel are arranged such that they do not process the same signal sequentially. a time domain channel configured to process a first input signal for analysis in a time domain; a frequency domain channel configured to process a second input signal for analysis in a frequency domain; and an acquisition system coupled to the time domain channel and the frequency domain channel and configured to acquire data from the time domain channel and the frequency domain channel, wherein the time domain channel and the frequency domain channel are arranged such that they do not process the same signal sequentially.
A personal care product, comprising: a handle having an elongated gripping portion, the handle having a handle resting plane, wherein the handle has an end portion; characterized in that the handle has a first docking magnet positioned within the end portion, the first docking magnet having an axis of polarity that intersects the handle resting plane at an included angle of 15 degrees to 35 degrees. a handle having an elongated gripping portion, the handle having a handle resting plane, wherein the handle has an end portion; characterized in that the handle has a first docking magnet positioned within the end portion, the first docking magnet having an axis of polarity that intersects the handle resting plane at an included angle of 15 degrees to 35 degrees.
A locking device having at least one electronic load, in particular a control device, and comprising a control circuit which is designed to transfer the electronic load from a first operating state to a second operating state depending on an electric field, wherein a measuring electrode for detecting the electric field and an input amplifier device adapted to amplify an output signal (s_1) of the measuring electrode are provided, wherein a transfer function of the input amplifier device has a) a band-pass characteristic with a center frequency of about 0.5 Hertz, or b) a low-pass characteristic with a cut-off frequency of about 1.5 Hertz.
A computing technology method for detecting data inconsistency, the method comprising: selecting a cutoff time value TO; scanning data entities in respective components, the data entities having data portions which include states; putting into a skipped list any scanned data entities which exist in both components but were modified in one or both components after TO; putting into the skipped list any scanned data entities which exist in only one of the components; comparing data portions of data entities which are not in the skipped list, and triggering an inconsistency alarm if any compared entities differ in their data portions; and performing one or more rescanning phases to attempt comparison of states of data entities which are in the skipped list. selecting a cutoff time value TO; scanning data entities in respective components, the data entities having data portions which include states; putting into a skipped list any scanned data entities which exist in both components but were modified in one or both components after TO; putting into the skipped list any scanned data entities which exist in only one of the components; comparing data portions of data entities which are not in the skipped list, and triggering an inconsistency alarm if any compared entities differ in their data portions; and performing one or more rescanning phases to attempt comparison of states of data entities which are in the skipped list.
A method for preparing a thermoplastic laminate for an eyewear, wherein the thermoplastic laminate comprises an upper layer, a lower layer, and one or more core layers and optional one or more inner layers located between the upper layer and lower layer, and wherein the method comprises the steps of: 1) providing the thermoplastic upper layer and lower layer; 2) providing one or more core layers, which are selected from a pattern, an article and combinations thereof, located between the upper layer and lower layer; 3) optionally providing one or more thermoplastic inner layers between the upper layer and an adjacent core layer, the lower layer and an adjacent core layer, and/or two adjacent core layers; 4) bonding the one or more core layers, the upper layer, the lower layer and the optional inner layers together by using a high frequency welding machine; and 5) obtaining the laminate, wherein the welding time of the high frequency welding machine is greater than 15 seconds and less than 5 minutes, wherein the electric current of the high frequency welding machine is greater than 0.5 A but less than 5 A. 1) providing the thermoplastic upper layer and lower layer; 2) providing one or more core layers, which are selected from a pattern, an article and combinations thereof, located between the upper layer and lower layer; 3) optionally providing one or more thermoplastic inner layers between the upper layer and an adjacent core layer, the lower layer and an adjacent core layer, and/or two adjacent core layers; 4) bonding the one or more core layers, the upper layer, the lower layer and the optional inner layers together by using a high frequency welding machine; and 5) obtaining the laminate,
A tactile sensor comprising: a base portion; a displacement portion; a displacement portion support body that supports the displacement portion; a hair in a straight line arranged along a second direction perpendicular to a first direction; a hair fixing portion to which a base end of the hair is fixed; a hair fixing portion support body that turnably supports the hair fixing portion; a displacement detector that detects a displacement of the displacement portion with respect to the base portion; and a turn detector that detects a turn of the hair fixing portion with respect to the displacement portion, characterized in that the displacement portion support body supports the displacement portion in a displaceable manner at least in the first direction with respect to the base portion, and the hair fixing portion support body turnably supports the hair fixing portion within a plane including the first direction and the second direction with respect to the displacement portion. a base portion; a displacement portion; a displacement portion support body that supports the displacement portion; a hair in a straight line arranged along a second direction perpendicular to a first direction; a hair fixing portion to which a base end of the hair is fixed; a hair fixing portion support body that turnably supports the hair fixing portion; a displacement detector that detects a displacement of the displacement portion with respect to the base portion; and a turn detector that detects a turn of the hair fixing portion with respect to the displacement portion, characterized in that the displacement portion support body supports the displacement portion in a displaceable manner at least in the first direction with respect to the base portion, and the hair fixing portion support body turnably supports the hair fixing portion within a plane including the first direction and the second direction with respect to the displacement portion.
A multi-phase wireless power transfer system comprising: a transmitter portion (215, 615, 505) of the multi-phase wireless power transfer system associated with an electrical equipment rack that is configured to house a plurality of electrical components, wherein the transmitter portion (215, 615, 505) is configured to receive multi-phase power from a power distribution unit over a branch circuit conductor (110, 210), and wherein the transmitter portion (215, 615, 505) is further configured to wirelessly transfer multi-phase power at a power level that is configured to operate the plurality of electrical components.
Method for operating a hardware device (1, 10) which is suitable for performing a plurality of different functions, comprising: storing, in the hardware device (1, 10), a plurality of integrity protection profiles (P1-P4) for the hardware device (1, 10), wherein each integrity protection profile (P1-P4) can be assigned to one of the plurality of different functions, and wherein each integrity protection profile (P1-P4) defines security measures for protecting hardware of the hardware device (1, 10) from manipulations; selecting an integrity protection profile from the plurality of integrity protection profiles (P1-P4) as a selected integrity protection profile via an interface taking into account a function from the plurality of different functions which is to be performed by the hardware device (1, 10); and performing the security measures in the selected integrity protection profile; characterized in that the performance of the security measures at least comprises: monitoring tamper sensors of the hardware device (1, 10) which capture physical properties of the hardware device (1, 10). storing, in the hardware device (1, 10), a plurality of integrity protection profiles (P1-P4) for the hardware device (1, 10), wherein each integrity protection profile (P1-P4) can be assigned to one of the plurality of different functions, and wherein each integrity protection profile (P1-P4) defines security measures for protecting hardware of the hardware device (1, 10) from manipulations; selecting an integrity protection profile from the plurality of integrity protection profiles (P1-P4) as a selected integrity protection profile via an interface taking into account a function from the plurality of different functions which is to be performed by the hardware device (1, 10); and performing the security measures in the selected integrity protection profile;
A method in a communication node (201, 204, 210, 213) for canceling interference between a plurality of signals in a communication system, wherein the communication system operates in a high phase noise environment, the method comprising: receiving, at each of a plurality of receiver antennas, a respective signal, wherein the received signals have a differential phase noise between them so that the communication system is degraded by the differential phase noise; canceling a first part of interference between the plurality of received signals before a clock signal generation, reducing an effect of clock timing difference associated with the received signals; characterized in that after cancelling the first part of the interference, generating a clock signal which is synchronized with the received signals; filtering the interference cancelled signals and the received signals; and cancelling a second part of interference between the filtered signals, which canceling the second part of interference is delayed to compensate for a delay in the canceling the first part of interference, and which cancelling the second part of interference comprises phase rotating the filtered signals to increase tracking of the differential phase noise and suppression of the differential phase noise; and wherein the first part interference canceling before the filtering is larger than the second part interference canceling after the filtering. receiving, at each of a plurality of receiver antennas, a respective signal, wherein the received signals have a differential phase noise between them so that the communication system is degraded by the differential phase noise; canceling a first part of interference between the plurality of received signals before a clock signal generation, reducing an effect of clock timing difference associated with the received signals; characterized in that after cancelling the first part of the interference, generating a clock signal which is synchronized with the received signals; filtering the interference cancelled signals and the received signals; and cancelling a second part of interference between the filtered signals, which canceling the second part of interference is delayed to compensate for a delay in the canceling the first part of interference, and which cancelling the second part of interference comprises phase rotating the filtered signals to increase tracking of the differential phase noise and suppression of the differential phase noise; and wherein the first part interference canceling before the filtering is larger than the second part interference canceling after the filtering.
A system comprising: a first input sensor configured to (i) detect a first amount of force or torque applied by a user of an x-ray scanner gantry in a first direction, and (ii) generate a first input command signal, wherein the first input command signal indicates the first amount of force or torque; a first summer configured to generate a first error signal based on the first input command signal and a first feedback signal; a first controller configured to generate a motor command signal to control operation of a motor based at least on the first error signal to provide counterbalancing of the x-ray scanner gantry in the first direction; and a first feedback sensor configured to (i) detect a second amount of force or torque applied on the x-ray scanner gantry in the first direction as a result of the controlled operation of the motor, and (ii) generate the first feedback signal based on the detected second amount of force or torque. a first input sensor configured to (i) detect a first amount of force or torque applied by a user of an x-ray scanner gantry in a first direction, and (ii) generate a first input command signal, wherein the first input command signal indicates the first amount of force or torque; a first summer configured to generate a first error signal based on the first input command signal and a first feedback signal; a first controller configured to generate a motor command signal to control operation of a motor based at least on the first error signal to provide counterbalancing of the x-ray scanner gantry in the first direction; and a first feedback sensor configured to (i) detect a second amount of force or torque applied on the x-ray scanner gantry in the first direction as a result of the controlled operation of the motor, and (ii) generate the first feedback signal based on the detected second amount of force or torque.
A method of measuring ash deposit levels in a particulate filter comprising at least one cell, the method comprising the steps of: inserting one or more indicator components (38; 238) into the at least one cell so as to lie upon any deposits contained therein; emitting radiation from a radiation source into the cell; detecting the position of the one or more indicator components (38; 238) on the basis of the emitted radiation; and calculating the deposit level within the cell on the basis of the position of the indicator components (38; 238). inserting one or more indicator components (38; 238) into the at least one cell so as to lie upon any deposits contained therein; emitting radiation from a radiation source into the cell; detecting the position of the one or more indicator components (38; 238) on the basis of the emitted radiation; and calculating the deposit level within the cell on the basis of the position of the indicator components (38; 238).
A vacuum suction pad comprising: a pad main body having a lower surface to be adhered to a stage of a substrate holder; and a plurality of circular arc-shaped substrate holding convexities (38a, 38b), provided on a top surface of the pad main body, for holding a substrate which is attracted by vacuum suction to the top surface of the pad main body, wherein the circular arc-shaped substrate holding convexities (38a, 38b) are arranged concentrically with the pad main body having a circular shape, the vacuum suction pad being characterised in that width, in a radial direction, of the substrate holding convexity located on a radially outer side among the plurality of circular arc-shaped substrate holding convexities (38a, 38b) is narrower than a width, in the radial direction, of the substrate holding convexity located on a radially inner side. a pad main body having a lower surface to be adhered to a stage of a substrate holder; and a plurality of circular arc-shaped substrate holding convexities (38a, 38b), provided on a top surface of the pad main body, for holding a substrate which is attracted by vacuum suction to the top surface of the pad main body, wherein the circular arc-shaped substrate holding convexities (38a, 38b) are arranged concentrically with the pad main body having a circular shape, the vacuum suction pad being characterised in that width, in a radial direction, of the substrate holding convexity located on a radially outer side among the plurality of circular arc-shaped substrate holding convexities (38a, 38b) is narrower than a width, in the radial direction, of the substrate holding convexity located on a radially inner side.
An apparatus comprising: a flexible substrate; at least one sensor mounted on the flexible substrate arranged to provide an electrical output signal dependent upon a first parameter; at least one conductive trace provided on the flexible substrate arranged to provide a direct current path to the at least one sensor and have an electrical property dependent upon a second parameter, and arranged to provide an electrical output signal indicative of the second parameter; wherein the conductive trace is deformable and the second parameter is the deformation of the conductive trace; characterised in that the apparatus is arranged to provide a direct current signal to the at least one sensor to measure the first parameter and to provide an alternating current signal to the conductive trace to measure the second parameter. a flexible substrate; at least one sensor mounted on the flexible substrate arranged to provide an electrical output signal dependent upon a first parameter; at least one conductive trace provided on the flexible substrate arranged to provide a direct current path to the at least one sensor and have an electrical property dependent upon a second parameter, and arranged to provide an electrical output signal indicative of the second parameter; wherein the conductive trace is deformable and the second parameter is the deformation of the conductive trace; characterised in that the apparatus is arranged to provide a direct current signal to the at least one sensor to measure the first parameter and to provide an alternating current signal to the conductive trace to measure the second parameter.
A gas turbine engine controller, the gas turbine engine comprising: a compressor; a combustor; and a motor configured to drive the compressor; wherein the controller is configured to: in a first idle mode, control combustor fuel flow to maintain compressor rotational speed at or above a first predetermined value; and in a second idle mode, control combustor fuel flow and the motor to drive the compressor to maintain the compressor rotational speed at or above a second predetermined value, lower than the first predetermined value; characterised in that: the combustor comprises a plurality of fuel injectors (40a-h), and wherein the controller is configured to operate only a subset of the fuel injectors (40a-h) during operation in the second idle mode. a compressor; a combustor; and a motor configured to drive the compressor; wherein the controller is configured to: in a first idle mode, control combustor fuel flow to maintain compressor rotational speed at or above a first predetermined value; and in a second idle mode, control combustor fuel flow and the motor to drive the compressor to maintain the compressor rotational speed at or above a second predetermined value, lower than the first predetermined value; characterised in that: the combustor comprises a plurality of fuel injectors (40a-h), and wherein the controller is configured to operate only a subset of the fuel injectors (40a-h) during operation in the second idle mode. in a first idle mode, control combustor fuel flow to maintain compressor rotational speed at or above a first predetermined value; and in a second idle mode, control combustor fuel flow and the motor to drive the compressor to maintain the compressor rotational speed at or above a second predetermined value, lower than the first predetermined value; characterised in that: the combustor comprises a plurality of fuel injectors (40a-h), and wherein the controller is configured to operate only a subset of the fuel injectors (40a-h) during operation in the second idle mode.
Crane for lifting loads which can be mounted on a corresponding vehicle having a longitudinal axis, in particular a truck, comprising a support base of the crane mounted on the vehicle, from which extend vehicle stabilizing means comprising a first extending arm and a second stabilizing arm carrying respective ground support means (16, 16a; 22, 24); said fist extending stabilizer arm being fixed to the support base and includes a base fixed element having a height which is substantially the same as the height of the support base; and said second stabilizer arm extending from the opposite side of the support base with respect to the first stabilizer arm and being in its rest position located alongside the support base; characterised in that the fist extending stabilizer arm extends from the support base oriented at an angle with respect to the longitudinal direction diagonally to the support base; and in that said second stabilizer arm has the form of a rotating arm which rotates with respect to the support base.