mhurhangee/ep-ind-claims huggingface dataset:
A support carbon material for solid polymer type fuel cell use comprised of a porous carbon material which has a pore volume and a pore area found by the BJH analysis method from a nitrogen adsorption isotherm in an adsorption process satisfying the following conditions: a radius 2 nm to 50 nm pore volume V A of 1 ml/g to 5 ml/g and a radius 2 nm to 50 nm pore area S 2-50 of 300 m 2 /g to 1500 m 2 /g and a ratio (V 5-25 /V A) of radius 5 nm to 25 nm pore volume V 5-25 (ml/g) to said pore volume V A (ml/g) of 0.4 to 0.7 and a ratio (V 2-5 /V A) of radius 2 nm to 5 nm pore volume V 2-5 (ml/g) to the same of 0.2 to 0.5. a radius 2 nm to 50 nm pore volume V A of 1 ml/g to 5 ml/g and a radius 2 nm to 50 nm pore area S 2-50 of 300 m 2 /g to 1500 m 2 /g and a ratio (V 5-25 /V A) of radius 5 nm to 25 nm pore volume V 5-25 (ml/g) to said pore volume V A (ml/g) of 0.4 to 0.7 and a ratio (V 2-5 /V A) of radius 2 nm to 5 nm pore volume V 2-5 (ml/g) to the same of 0.2 to 0.5.
A transistor circuit comprising: a power transistor comprising a gate terminal, a drain and a source terminal (D,S), wherein the power transistor is a depletion mode transistor configured to amplify an RF input signal (RF INPUT); a first circuit configured to convert the RF input signal (RF INPUT) of the transistor circuit to a negative gate bias voltage and to apply the negative gate bias voltage to the gate terminal of the power transistor, the first circuit comprising an RF coupler (230, 430) having an input coupled to the gate terminal of the power transistor, a rectifier (232, 410, 510) having an input coupled to an output of the RF coupler, and a voltage regulator coupled between a node and ground, the node being coupled to an output of the rectifier and to the gate of the power transistor, the voltage regulator being configured to limit the negative gate bias voltage by establishing a fixed voltage on the node; a second circuit configured to convert the RF input signal (RF INPUT) of the transistor circuit to a control voltage; and a switching circuit configured to apply a drain bias voltage to the drain terminal of the power transistor in response to the control voltage, wherein the first and second circuits (30, 40) and the switching circuit are configured to apply the negative gate bias voltage to the gate terminal of the power transistor before the drain bias voltage is applied to the drain terminal of the power transistor, wherein the second circuit has a longer time constant than the first circuit. a power transistor comprising a gate terminal, a drain and a source terminal (D,S), wherein the power transistor is a depletion mode transistor configured to amplify an RF input signal (RF INPUT); a first circuit configured to convert the RF input signal (RF INPUT) of the transistor circuit to a negative gate bias voltage and to apply the negative gate bias voltage to the gate terminal of the power transistor, the first circuit comprising an RF coupler (230, 430) having an input coupled to the gate terminal of the power transistor, a rectifier (232, 410, 510) having an input coupled to an output of the RF coupler, and a voltage regulator coupled between a node and ground, the node being coupled to an output of the rectifier and to the gate of the power transistor, the voltage regulator being configured to limit the negative gate bias voltage by establishing a fixed voltage on the node; a second circuit configured to convert the RF input signal (RF INPUT) of the transistor circuit to a control voltage; and a switching circuit configured to apply a drain bias voltage to the drain terminal of the power transistor in response to the control voltage,
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the processor, cause the apparatus to at least: determine an orientation of each of a plurality of segments of a multi-segment wearable accessory relative to an axis through the multi-segment wearable accessory; and determine a relative ordering of the plurality of segments of the multi-segment wearable accessory based upon the orientation of each of the plurality of segments relative to the axis; wherein one or more of the segments are removable relative to the multi-segment wearable accessory; and wherein determining the relative ordering comprises identifying segments adjacent to a particular segment and a sequence of adjacent segments. determine an orientation of each of a plurality of segments of a multi-segment wearable accessory relative to an axis through the multi-segment wearable accessory; and determine a relative ordering of the plurality of segments of the multi-segment wearable accessory based upon the orientation of each of the plurality of segments relative to the axis; wherein one or more of the segments are removable relative to the multi-segment wearable accessory; and wherein determining the relative ordering comprises identifying segments adjacent to a particular segment and a sequence of adjacent segments.
Torsional vibration damper arrangement, comprising a primary side and a secondary side which can be rotated about a rotational axis with regard to the primary side counter to the action of a damper element arrangement, the damper element arrangement comprising a plurality of spring units which are arranged so as to follow one another in the circumferential direction, and the primary side and the secondary side having circumferential supporting regions (18, 20, 28) for each spring unit, on which supporting regions (18, 20, 28) the spring units can be supported by way of respective circumferential ends (36, 38), comprising, furthermore, a radial supporting arrangement for radial support of at least one spring unit in a circumferential region between its circumferential ends (36, 38), the radial supporting arrangement comprising at least one ring-like radial supporting member (46; 46, 46'; 46a) which has, in a manner which is assigned to the at least one of the spring units, a radial supporting region (50; 50, 50') which radially supports the circumferential ends (36, 38) between the latter, it being possible for the at least one ring-like radial supporting member (46; 46, 46') to be rotated about the rotational axis with regard to the primary side and the secondary side, and the at least one ring-like radial supporting member (46; 46, 46') comprising a ring body (48; 48, 48'), from which a plurality of radial supporting regions (50; 50, 50') emanate at different circumferential positions, which radial supporting regions (50; 50, 50') extend radially outwards and engage over a radially supported spring unit radially on the outside and axially, characterized in that the ring body (48; 48, 48') of the at least one ring-like radial supporting member (46; 46, 46') is arranged so as to follow the spring units axially, and in that the radial supporting regions (50; 50, 50') are connected to one another by way of a reinforcing ring region (70; 70, 70').
An audio apparatus comprising: a circuit for applying a dynamic range adjustment processing to an input signal to generate an output signal for rendering by a loudspeaker, the dynamic range adjustment processing being dependent on a set of dynamic range adjustment parameters; a first linear echo-cancellation filter for generating a first compensated signal from the audio input signal; a first adapter for determining a set of filter parameters for the first linear echo-cancellation filter in response to the first compensated signal and a microphone signal; a circuit (207, 209) for generating a second compensated signal by applying the dynamic range adjustment processing and a second echo-cancellation filter to the input signal, the second echo-cancellation filter corresponding to the first echo-cancellation filter; a second adapter for determining the set of dynamic range adjustment parameters in response to the second compensated signal and the microphone signal. a circuit for applying a dynamic range adjustment processing to an input signal to generate an output signal for rendering by a loudspeaker, the dynamic range adjustment processing being dependent on a set of dynamic range adjustment parameters;
A system for determining multiple sclerosis activity in an individual, wherein the multiple sclerosis activity in the individual is a state of quiescence or exacerbation, the system comprising: a storage memory for storing a dataset comprising quantitative expression values for a plurality of biomarkers from a blood sample from the individual, wherein the plurality of biomarkers comprise YKL40 and growth hormone; and a processor communicatively coupled to the storage memory for determining a score by applying the stored dataset as input to a predictive model using the expression values reported as an AUC metric; wherein the predictive model is trained using one of a random forest algorithm, a gradient boosting algorithm, and a Lasso algorithm; and wherein performance of the predictive model is characterized by an area under the curve ranging from 0.60 to 0.99, wherein the score is predictive of an assessment of a quiescent or exacerbated state of multiple sclerosis activity in the individual; and wherein an upregulated level of GH is indicative of a state of exacerbation. a storage memory for storing a dataset comprising quantitative expression values for a plurality of biomarkers from a blood sample from the individual, wherein the plurality of biomarkers comprise YKL40 and growth hormone; and a processor communicatively coupled to the storage memory for determining a score by applying the stored dataset as input to a predictive model using the expression values reported as an AUC metric; wherein the predictive model is trained using one of a random forest algorithm, a gradient boosting algorithm, and a Lasso algorithm; and wherein performance of the predictive model is characterized by an area under the curve ranging from 0.60 to 0.99, wherein the score is predictive of an assessment of a quiescent or exacerbated state of multiple sclerosis activity in the individual; and wherein an upregulated level of GH is indicative of a state of exacerbation.
A process to produce agglomerated lignin with a controlled particle size distribution, comprising the steps of a) compaction of lignin, wherein lignin having a moisture content of from 1 wt-% to 45 wt-% is agglomerated by means of roll compaction, wherein the rolls have cavities and wherein the depth of each cavity used in the roll compaction is from 0.1 mm to 10 mm; b) subjecting the compacted lignin from step a) to a milling step; followed by c) a sieving step, wherein the product of step b) is subjected to sieving to remove particles having a particle diameter below 100 μm, to produce a final agglomerated lignin with a controlled particle size distribution in which the particle size distribution is governed by the porosity of the sieving screens used in the sieving step; and wherein less than 10 wt-% of the particles retained after step c) have a particle diameter below 100 μm. a) compaction of lignin, wherein lignin having a moisture content of from 1 wt-% to 45 wt-% is agglomerated by means of roll compaction, wherein the rolls have cavities and wherein the depth of each cavity used in the roll compaction is from 0.1 mm to 10 mm; b) subjecting the compacted lignin from step a) to a milling step; followed by c) a sieving step, wherein the product of step b) is subjected to sieving to remove particles having a particle diameter below 100 μm, to produce a final agglomerated lignin with a controlled particle size distribution in which the particle size distribution is governed by the porosity of the sieving screens used in the sieving step; and wherein less than 10 wt-% of the particles retained after step c) have a particle diameter below 100 μm.
A method for determining locations of transducer arrays (504; 601, 602, 603, 604) on a subject's body for applying tumor treating fields, comprising: receiving, based on two-dimensional image data associated with a portion of the subject's body, an indication of one or more potential skin surface conditions on the subject's body; receiving an indication that the one or more potential skin surface conditions are associated with one or more skin surface conditions (402, 403); determining, based on the 2D image data and the indication that the one or more potential skin surface conditions are associated with the one or more skin surface conditions (402, 403), a representation of the one or more skin surface conditions (402, 403) in three-dimensional space; determining, based on the representation of the one or more skin surface conditions (402, 403) in the 3D space, one or more recommended locations of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields; and outputting the one or more recommended locations of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields. receiving, based on two-dimensional image data associated with a portion of the subject's body, an indication of one or more potential skin surface conditions on the subject's body; receiving an indication that the one or more potential skin surface conditions are associated with one or more skin surface conditions (402, 403); determining, based on the 2D image data and the indication that the one or more potential skin surface conditions are associated with the one or more skin surface conditions (402, 403), a representation of the one or more skin surface conditions (402, 403) in three-dimensional space; determining, based on the representation of the one or more skin surface conditions (402, 403) in the 3D space, one or more recommended locations of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields; and outputting the one or more recommended locations of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields.
An inspection system weighing less than 20,000 kg comprising: a vehicle having a first axle proximate to a front of said vehicle and a rear axle proximate to a back of said vehicle wherein a first area is bounded by the rear axle extending to the front of said vehicle and a second area is bounded by the rear axle extending to the back of said vehicle; a radiological source; and a boom movably attached to said vehicle and having stowed and deployed configurations, wherein said boom comprises a vertical support, a vertical boom and a horizontal boom, wherein the horizontal boom is attached at one of its ends to the top of the vertical support and the other end of the horizontal boom is hinged to the vertical boom; characterized in that: the base of the vertical support is hinged about a pivot point; and the inspection system further comprises an actuator configured to move the vertical support from a substantially horizontal orientation to a vertical orientation about the pivot point thereby moving the boom from a stowed to a deployed configuration. a vehicle having a first axle proximate to a front of said vehicle and a rear axle proximate to a back of said vehicle wherein a first area is bounded by the rear axle extending to the front of said vehicle and a second area is bounded by the rear axle extending to the back of said vehicle; a radiological source; and a boom movably attached to said vehicle and having stowed and deployed configurations, wherein said boom comprises a vertical support, a vertical boom and a horizontal boom, wherein the horizontal boom is attached at one of its ends to the top of the vertical support and the other end of the horizontal boom is hinged to the vertical boom; characterized in that: the base of the vertical support is hinged about a pivot point; and the inspection system further comprises an actuator configured to move the vertical support from a substantially horizontal orientation to a vertical orientation about the pivot point thereby moving the boom from a stowed to a deployed configuration. the base of the vertical support is hinged about a pivot point; and the inspection system further comprises an actuator configured to move the vertical support from a substantially horizontal orientation to a vertical orientation about the pivot point thereby moving the boom from a stowed to a deployed configuration.
An agent comprising a 3D porous structure comprising a non-resorbable polycarbonate polyurethane matrix with urea crosslinks; and collagen in or on the matrix, for use in the treatment and/or prevention of a metastatic cancer.
A monitoring system comprising: a plurality of biomechanical sensors, at least one output device, and a controller (102, 204) having a signal conditioning circuit and a processor arranged to receive sensory inputs from the sensors and to execute algorithms to provide output signals for the output device, and wherein the processor is adapted to detect from the sensory inputs risk of a syncopal event and to provide output signals for preventing a syncopal event from occurring, wherein the bio-mechanical sensors include sensors (206, 207) arranged to allow the processor to detect a user posture transition, and the processor is adapted to use signals from said sensors including said detection of a user posture transition to determine risk of a fall event caused by syncope of the orthostatic hypotension syncope type, and wherein the output device comprises at least one neuro muscular electrical muscle stimulator for applying skeletal muscle stimulation, and the processor is adapted to drive said muscle stimulator to increase venous return by contraction of muscles in response to the sensory inputs in order to prevent a syncopal fall event. a plurality of biomechanical sensors, at least one output device, and a controller (102, 204) having a signal conditioning circuit and a processor arranged to receive sensory inputs from the sensors and to execute algorithms to provide output signals for the output device, and wherein the processor is adapted to detect from the sensory inputs risk of a syncopal event and to provide output signals for preventing a syncopal event from occurring, wherein the bio-mechanical sensors include sensors (206, 207) arranged to allow the processor to detect a user posture transition, and the processor is adapted to use signals from said sensors including said detection of a user posture transition to determine risk of a fall event caused by syncope of the orthostatic hypotension syncope type, and wherein the output device comprises at least one neuro muscular electrical muscle stimulator for applying skeletal muscle stimulation, and the processor is adapted to drive said muscle stimulator to increase venous return by contraction of muscles in response to the sensory inputs in order to prevent a syncopal fall event.
A method for determining a physical parameter of a fluid in a section of a pipe-fluid system, wherein the pipe-fluid system comprises a pipe configured to be filled with the fluid, the method comprising the steps of: selecting the section of the pipe-fluid system, the section being delimited by a pair of stiff delimiters (11, 19); performing a numerical vibration simulation of the section of the pipe, resulting in a computed Eigen-frequency range (f target) of computed maxima of the pipe-fluid system; inducing, by an excitation means, a first vibration of the section; acquiring, by at least two vibration measurement devices, a set of first maxima (M3a, M4a, M5a) in an amplitude-frequency diagram, with a first frequency (f3a, f4a) within the computed Eigen-frequency range (f target); selecting, by means of a vibration mode analysis, a first hoop mode maximum (M3a) out of the set of first maxima (M3a, M4a, M5a), the first hoop mode maximum (M3a) being a reference value; inducing, by the excitation means, a second vibration of the section; acquiring, by the at least two vibration measurement devices, a set of second maxima (M3b, M4b, M5b) in the amplitude-frequency diagram, with a second frequency (f3b, f4b, f5b) within the computed Eigen-frequency range (f target); selecting, by means of vibration mode analysis, a second hoop mode maximum (M3b) out of the set of second maxima (M3b, M4b, M5b), the second hoop mode maximum (M3b) being an indicator of the current state of the section of the pipe-fluid system; and deriving the physical parameter of the fluid from a difference between the first hoop mode maximum (M3a) and the second hoop mode maximum (M3b). selecting the section of the pipe-fluid system, the section being delimited by a pair of stiff delimiters (11, 19); performing a numerical vibration simulation of the section of the pipe, resulting in a computed Eigen-frequency range (f target) of computed maxima of the pipe-fluid system; inducing, by an excitation means, a first vibration of the section; acquiring, by at least two vibration measurement devices, a set of first maxima (M3a, M4a, M5a) in an amplitude-frequency diagram, with a first frequency (f3a, f4a) within the computed Eigen-frequency range (f target); selecting, by means of a vibration mode analysis, a first hoop mode maximum (M3a) out of the set of first maxima (M3a, M4a, M5a), the first hoop mode maximum (M3a) being a reference value; inducing, by the excitation means, a second vibration of the section; acquiring, by the at least two vibration measurement devices, a set of second maxima (M3b, M4b, M5b) in the amplitude-frequency diagram, with a second frequency (f3b, f4b, f5b) within the computed Eigen-frequency range (f target); selecting, by means of vibration mode analysis, a second hoop mode maximum (M3b) out of the set of second maxima (M3b, M4b, M5b), the second hoop mode maximum (M3b) being an indicator of the current state of the section of the pipe-fluid system; and deriving the physical parameter of the fluid from a difference between the first hoop mode maximum (M3a) and the second hoop mode maximum (M3b).
A method performed by an SMF+PGW-C that is a combination node of a session management function, SMF, in a 5G system, 5GS, and a packet data network gateway-control, PGW-C, in an evolved packet system, EPS, in a wireless communication system supporting interworking between the 5GS and the EPS, the method comprising: receiving, from a user data management, UDM, managing subscription information, subscription update information of a user equipment, UE, for which a packet data network, PDN, connection associated with a network slice is established in the EPS, the network slice being subscribed in the 5GS; identifying a cause associated with a release of the PDN connection in response that the subscription update information includes information notifying that subscribed single-network slice selection assistance information, S-NSSAI, associated with the PDN connection of the UE is changed; and transmitting (308, 309, 310, 311), to the UE via the EPS, information indicating the cause associated with the release of the PDN connection associated with the network slice, wherein the information indicating the cause includes information representing a subscription removal of the subscribed S-NSSAI of the UE. receiving, from a user data management, UDM, managing subscription information, subscription update information of a user equipment, UE, for which a packet data network, PDN, connection associated with a network slice is established in the EPS, the network slice being subscribed in the 5GS; identifying a cause associated with a release of the PDN connection in response that the subscription update information includes information notifying that subscribed single-network slice selection assistance information, S-NSSAI, associated with the PDN connection of the UE is changed; and transmitting (308, 309, 310, 311), to the UE via the EPS, information indicating the cause associated with the release of the PDN connection associated with the network slice, wherein the information indicating the cause includes information representing a subscription removal of the subscribed S-NSSAI of the UE.