mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic gain control (AGC) circuit, comprising: a pre-divider circuit operable to pre-divide an input analog signal according to a pre-divider circuit setting and output a pre-divided analog signal; a pre-amplifier operable to pre-amplify the pre-divided analog signal and output a pre-amplified analog signal; a post-divider circuit operable to post-divide the pre-amplified analog signal according to a post-divider circuit setting and output a post-divided analog signal; an analog-to-digital converter (ADC) operable to convert the post-divided analog signal into a digital data stream; and logic operable to: sample the digital data stream; determine a pre-divider circuit setting and a post-divider circuit setting based on the sampled data stream; set the pre-divider circuit and the post-divider circuit based on the determined settings; and generate a received signal strength value based on the pre-divider circuit setting and the post-divider circuit setting. a pre-divider circuit operable to pre-divide an input analog signal according to a pre-divider circuit setting and output a pre-divided analog signal; a pre-amplifier operable to pre-amplify the pre-divided analog signal and output a pre-amplified analog signal; a post-divider circuit operable to post-divide the pre-amplified analog signal according to a post-divider circuit setting and output a post-divided analog signal; an analog-to-digital converter (ADC) operable to convert the post-divided analog signal into a digital data stream; and logic operable to: sample the digital data stream; determine a pre-divider circuit setting and a post-divider circuit setting based on the sampled data stream; set the pre-divider circuit and the post-divider circuit based on the determined settings; and generate a received signal strength value based on the pre-divider circuit setting and the post-divider circuit setting. sample the digital data stream; determine a pre-divider circuit setting and a post-divider circuit setting based on the sampled data stream; set the pre-divider circuit and the post-divider circuit based on the determined settings; and generate a received signal strength value based on the pre-divider circuit setting and the post-divider circuit setting.
A modified heat-treated platelet pellet lysate having a total protein content of less than 70%, preferably less than 60%, more preferably less than 50% of the total protein content of non heat-treated platelet pellet lysate, and having less than 1.5 mg/mL, preferably less than 1 mg/mL, more preferably less than 0.5 mg/mL and even more preferably from 0.1 mg/mL to 0.3 mg/mL of fibrinogen for use in the treatment of neurological disorders.
A method for preventing an inrush current of an electric vehicle charger having a charging unit including a plurality of charging modules comprising steps of: determining whether there is a need for an increase or decrease in a charging current level while currently supplied to an electric vehicle to be charged according to a request of the electric vehicle to be charged; decreasing the charging current level at a predetermined ratio when it is determined that there is the need for the increase or decrease in the charging current level, wherein the predetermined ratio corresponds to 10% of the charging current level; checking whether an inrush current occurs during a first time interval (t o ); activating or deactivating at least one charging module of the plurality of charging modules to increase or decrease the charging current level according to the request of the electric vehicle to be charged, when the inrush current does not occur during the first time interval (t o ); checking whether the inrush current occurs during a second time interval (t 1 ); and increasing the charging current level by the charging current level requested by the electric vehicle to be charged, when the inrush current does not occur during the second time interval (t 1 ). determining whether there is a need for an increase or decrease in a charging current level while currently supplied to an electric vehicle to be charged according to a request of the electric vehicle to be charged; decreasing the charging current level at a predetermined ratio when it is determined that there is the need for the increase or decrease in the charging current level, wherein the predetermined ratio corresponds to 10% of the charging current level; checking whether an inrush current occurs during a first time interval (t o ); activating or deactivating at least one charging module of the plurality of charging modules to increase or decrease the charging current level according to the request of the electric vehicle to be charged, when the inrush current does not occur during the first time interval (t o ); checking whether the inrush current occurs during a second time interval (t 1 ); and increasing the charging current level by the charging current level requested by the electric vehicle to be charged, when the inrush current does not occur during the second time interval (t 1 ).
Operating method for a turbo set comprising a turbine and a generator which is arranged within a supply line to the turbine , comprising the steps of b) introducing a gaseous fluid in the form of steam into the supply line , c) passing the fluid past the generator , d) driving the turbine by means of the fluid, wherein a flow of the fluid is directed from the generator to the turbine , and wherein a pressure in the supply line and in the turbine is below the ambient pressure. b) introducing a gaseous fluid in the form of steam into the supply line , c) passing the fluid past the generator , d) driving the turbine by means of the fluid,
A vehicle passenger seat swivel mechanism , a seat frame and a seat base , the swivel mechanism being connected between the seat frame upon which an individual may sits in use and the seat base which is secured in use to a vehicle body, the seat frame includes a deployable legrest; the swivel assembly comprising: a swivel axis around which the seat frame and the legrest rotate in relation to the seat base; a translation axis , approximately perpendicular to the swivel axis , along which the seat frame and the legrest can translate in relation to the seat base; a guide plate , disposed on one of the seat base and the seat frame, comprising a guide plate rail ; a guide follower , disposed on the other of the seat base and the seat frame, comprising an engagement surface engaging the guide plate rail ; wherein as the seat frame swivels around the swivel axis , one of the guide plate and the guide follower is displaced along the translation axis , which causes at least the seat frame to displace in the same direction along the translation axis , to at least a first or a second clearance distance from the swivel axis , and wherein the guide plate and the guide follower do not overlap along the swivel axis . a swivel axis around which the seat frame and the legrest rotate in relation to the seat base; a translation axis , approximately perpendicular to the swivel axis , along which the seat frame and the legrest can translate in relation to the seat base; a guide plate , disposed on one of the seat base and the seat frame, comprising a guide plate rail ; a guide follower , disposed on the other of the seat base and the seat frame, comprising an engagement surface engaging the guide plate rail ; wherein as the seat frame swivels around the swivel axis , one of the guide plate and the guide follower is displaced along the translation axis , which causes at least the seat frame to displace in the same direction along the translation axis , to at least a first or a second clearance distance from the swivel axis , and wherein the guide plate and the guide follower do not overlap along the swivel axis .
A method for requesting a current magnitude from a fuel cell, the method comprising: based at least on one of a battery state of charge, a coolant temperature, and a fan speed, determining whether to operate under normal processing, smart idle processing, or smart ceiling processing; if a determination is made for normal processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and is performed in a stepwise manner where each current magnitude step includes a debounce range with respect to at least one other current magnitude step and outputting by the fuel cell the requested current magnitude; if a determination is made for smart idle processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and the coolant temperature and the current magnitude requested is sufficiently high to raise the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude; and if a determination is made for smart ceiling processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based on at least a fan speed and the coolant temperature and the current magnitude requested is sufficiently low to reduce the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude. based at least on one of a battery state of charge, a coolant temperature, and a fan speed, determining whether to operate under normal processing, smart idle processing, or smart ceiling processing; if a determination is made for normal processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and is performed in a stepwise manner where each current magnitude step includes a debounce range with respect to at least one other current magnitude step and outputting by the fuel cell the requested current magnitude; if a determination is made for smart idle processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based at least on the battery state of charge and the coolant temperature and the current magnitude requested is sufficiently high to raise the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude; and if a determination is made for smart ceiling processing requesting a current magnitude from the fuel cell, where the current magnitude requested is based on at least a fan speed and the coolant temperature and the current magnitude requested is sufficiently low to reduce the coolant temperature towards a coolant temperature setpoint and outputting by the fuel cell the requested current magnitude.
Cooking appliance for cooking foodstuffs, specifically commercial kitchen appliance of the combination steamer type, comprising two cooking appliance units which are arranged one above the other and each have: a cooking chamber which can be closed by a cooking chamber door and has a plurality of insertion levels for food, a heater for heating the cooking chamber atmosphere, a water connection, a wastewater connection and a cooking appliance controller which is connected to a display and operator control device, in particular to a touchscreen, characterized in that the display and operator control device of the upper cooking appliance unit forms an upper display and operator control device section and the display and operator control device of the lower cooking appliance unit forms a lower display and operator control device section , which display and operator control device sections are arranged one above the other, in that the two display and operator control device sections are combined to form a display and operator control device which is arranged in the region of the upper cooking appliance unit , as a result of which an unambiguous fixed association between the upper and the lower display and operator control device section and the upper and the lower cooking appliance unit is created, so that a changeover is not necessary, wherein the display and operator control device is located in an easily readable and operable position substantially at a height of 1.5 m +/- 0.25 m above the ground, this corresponding to the eye level of an operator of average height.
A pneumatic tire having a carcass and a belt structure , the carcass comprising an inner liner , at least two inner plies which are wound around a annular bead member from axially inside of the annular bead member toward axially outside thereof and which extend radially outward of the annular bead member towards the tire crown to form respective turnup portions , and at least one outer carcass ply that extends radially inward from the crown and axially outward of the annular bead member , wherein the at least one outer carcass ply is only partially wrapped around the annular bead member and terminates in an ending , and wherein a barrier ply is located between the inner liner and the axially innermost inner ply , and wherein at least one outer ply has a terminal end located in a zone B, wherein zone B is defined by a first plane that intersects the center point of the annular bead member and that is parallel to the axis of rotation of the tire and by a second plane that is perpendicular to the first plane and intersects the center point of the annular bead member and wherein zone B is radially inward of the first plane and axially inward of the second plane , characterized in that the barrier ply has a second end located in zone B.
Use of a compound of formula (I): wherein R 1 is a C 5 to C 39 alkyl or alkenyl group and R 2 is a group of formula (a) wherein one of W, X, Y and Z is a covalent bond and the remaining groups are independently selected from H, M, SO 3 M and a further group of formula R 1 CO provided at least one of W, X, Y and Z is SO 3 M; and each M is independently a hydrogen ion, an ammonium ion or a metal ion, as a mild, high foaming surfactant in a personal care composition.
A container system for use in storage, transportation, deployment and/or retrieval of a seismic cable comprising seismic stations , characterized in that the system comprises: a container wherein said container is a standard 20' or 40' ISO container having an open top side or a detachable top-side wall, at least two coiling elements for spooling of the seismic cable around them, each of said coiling elements having one end attached to a bottom side of the container, and storage means for allocating or accommodating, in an ordered arrangement, at least one of: a number of seismic stations, a number of couplers/splices and a number of other discontinuities which are being interconnected by sections of the seismic cable; said storage means being arranged between said at least two coiling elements and attached to the bottom side of the container.
A rear spoiler device comprising a force-absorbing device for compensating a force between at least two components , with at least a first component and at least one second component , characterized in that the force absorbing device comprises at least one deformable tongue member and at least one stud member seated, at least partly, in the tongue member , the tongue member being deformable with respect to the stud member along a deformation path within the tongue member as a function of a force application path acting on the first or second component.
A human monoclonal antibody against AXL comprising a heavy chain comprising: - a H-CDR1 defined by the sequence ranging from the amino acid residue at position 31 to the amino acid residue at position 35 in SEQ ID NO:1, - a H-CDR2 defined by the sequence ranging from the amino acid residue at position 50 to the amino acid residue at position 66 in SEQ ID NO:1, and - a H-CDR3 defined by the sequence ranging from the amino acid residue at position 99 to the amino acid residue at position 108 in SEQ ID NO:1, and a light chain comprising: - a L-CDR1 is defined by the sequence ranging from the amino acid residue at position 23 to the amino acid residue at position 36 in SEQ ID NO:2, - a L-CDR2 is defined by the sequence ranging from the amino acid residue at position 52 to the amino acid residue at position 58 in SEQ ID NO:2, and, - a L-CDR3 defined by the sequence ranging from the amino acid residue at position 91 to the amino acid residue at position 100 in SEQ ID NO:2. - a H-CDR1 defined by the sequence ranging from the amino acid residue at position 31 to the amino acid residue at position 35 in SEQ ID NO:1, - a H-CDR2 defined by the sequence ranging from the amino acid residue at position 50 to the amino acid residue at position 66 in SEQ ID NO:1, and - a H-CDR3 defined by the sequence ranging from the amino acid residue at position 99 to the amino acid residue at position 108 in SEQ ID NO:1, - a L-CDR1 is defined by the sequence ranging from the amino acid residue at position 23 to the amino acid residue at position 36 in SEQ ID NO:2, - a L-CDR2 is defined by the sequence ranging from the amino acid residue at position 52 to the amino acid residue at position 58 in SEQ ID NO:2, and, - a L-CDR3 defined by the sequence ranging from the amino acid residue at position 91 to the amino acid residue at position 100 in SEQ ID NO:2.
Diagnostic apparatus for a sand metering device (SD) for a sanding system for a rail vehicle , wherein the diagnostic apparatus comprises the following features: a detection device , which is configured to detect at least one parameter of the sand metering device (SD) of the sanding system and to provide a detection signal representing the parameter, and an evaluation device , which is configured to output a metering error signal using the detection signal , which metering error signal indicates a malfunction of the sand metering device (SD) when the parameter differs from a target parameter, characterized in that the detection device is configured to identify as the parameter a position of a reciprocating piston (HK) of a sand metering device (SDE) of the sanding system and to provide as the detection signal a position signal representing the position, wherein the evaluation device is configured to output a sand metering error signal using the position signal as the metering error signal , which sand metering error signal indicates a malfunction of the sand metering device (SDE) if the position deviates from a target position. a detection device , which is configured to detect at least one parameter of the sand metering device (SD) of the sanding system and to provide a detection signal representing the parameter, and an evaluation device , which is configured to output a metering error signal using the detection signal , which metering error signal indicates a malfunction of the sand metering device (SD) when the parameter differs from a target parameter, characterized in that the detection device is configured to identify as the parameter a position of a reciprocating piston (HK) of a sand metering device (SDE) of the sanding system and to provide as the detection signal a position signal representing the position, wherein the evaluation device is configured to output a sand metering error signal using the position signal as the metering error signal , which sand metering error signal indicates a malfunction of the sand metering device (SDE) if the position deviates from a target position.
A harvesting apparatus characterized by : a harvester ; a header coupled to the harvester , the header including a reel configured to draw crop from a crop field toward the header as the harvester moves through the crop field; at least one distance sensor positioned on the reel , each of the at least one distance sensor configured to detect distance information; and a control system configured to receive the detected distance information from the at least one distance sensor to detect at least one crop field parameter. a harvester ; a header coupled to the harvester , the header including a reel configured to draw crop from a crop field toward the header as the harvester moves through the crop field; at least one distance sensor positioned on the reel , each of the at least one distance sensor configured to detect distance information; and a control system configured to receive the detected distance information from the at least one distance sensor to detect at least one crop field parameter.
A computer-implemented method to identify one or more of a plurality of malicious software components from which a monitored software component in a computer system is derived; the method comprising: evaluating a measure of a correlation fractal dimension ,CFD, for at least a portion of the monitored software component in the computer system, the CFD including a plurality of CFD values varying with a resolution of fractal dimension; and comparing the evaluated measure of the CFD for the at least a portion of the monitored software component with a reference measure of CFD for each of the one or more malicious software components, wherein each reference measure of CFD including a plurality of CFD values varying with a resolution of fractal dimension, so as to identify one or more of the plurality of malicious software components from which the monitored software component is derived, wherein each of the one or more of the plurality of identified malicious software components is identified based on a similarity of at least a portion of the plurality of CFD values of the monitored software component and the one or more of the plurality of identified malicious software components. evaluating a measure of a correlation fractal dimension ,CFD, for at least a portion of the monitored software component in the computer system, the CFD including a plurality of CFD values varying with a resolution of fractal dimension; and comparing the evaluated measure of the CFD for the at least a portion of the monitored software component with a reference measure of CFD for each of the one or more malicious software components, wherein each reference measure of CFD including a plurality of CFD values varying with a resolution of fractal dimension, so as to identify one or more of the plurality of malicious software components from which the monitored software component is derived, wherein each of the one or more of the plurality of identified malicious software components is identified based on a similarity of at least a portion of the plurality of CFD values of the monitored software component and the one or more of the plurality of identified malicious software components.