mhurhangee/ep-ind-claims huggingface dataset:
A current control system, comprising: • front end circuitry configured to receive an input voltage and provide a regulated front end direct current voltage; • current source circuitry coupled to the front end circuitry, wherein the current source circuitry comprises a first input voltage terminal and a second input voltage terminal, wherein the current source circuitry is configured to receive the regulated front end DC voltage at the first input voltage terminal and to output a current using the regulated front end DC voltage; • dimming interface circuitry configured to output a pulse width modulation signal; and • conversion circuitry coupled to the current source circuitry and the dimming interface circuitry, the conversion circuitry configured to receive the pulse width modulation signal and to supply an analog voltage to the second input voltage terminal of the current source circuitry, such that the current output by the current source circuitry is based on the analog voltage. • front end circuitry configured to receive an input voltage and provide a regulated front end direct current voltage; • current source circuitry coupled to the front end circuitry, wherein the current source circuitry comprises a first input voltage terminal and a second input voltage terminal, wherein the current source circuitry is configured to receive the regulated front end DC voltage at the first input voltage terminal and to output a current using the regulated front end DC voltage; • dimming interface circuitry configured to output a pulse width modulation signal; and • conversion circuitry coupled to the current source circuitry and the dimming interface circuitry, the conversion circuitry configured to receive the pulse width modulation signal and to supply an analog voltage to the second input voltage terminal of the current source circuitry, such that the current output by the current source circuitry is based on the analog voltage.
A communication method of a reception apparatus operating in an active mode, the method comprising: setting a power management mode to a TXOP power saving mode during a transmission opportunity, TXOP, of a transmission apparatus; receiving information transmitted from the transmission apparatus, wherein the information transmitted from the transmission apparatus comprises at least one of a group identifier ID of a group comprising the reception apparatus, information about whether there is a stream of data to be transmitted to the reception apparatus from the transmission apparatus during the transmission opportunity TXOP, and an indicator indicating whether there is an additional stream to be transmitted to the reception apparatus; and changing an operation state of the reception apparatus by determining whether a predetermined criterion is satisfied based on the information received from the transmission apparatus, wherein the criterion is satisfied if the reception apparatus is included in the group of the group ID, and information indicates that there is no stream of data to be transmitted to the reception apparatus from the transmission apparatus during the TXOP, wherein the operation state of the reception apparatus in the TXOP power saving mode is changed from an awake state to a sleep state during a remainder of the TXOP if the predetermined criterion is satisfied, wherein streams corresponding to one or more reception apparatuses are simultaneously transmitted from the transmission apparatus during the TXOP. setting a power management mode to a TXOP power saving mode during a transmission opportunity, TXOP, of a transmission apparatus; receiving information transmitted from the transmission apparatus, wherein the information transmitted from the transmission apparatus comprises at least one of a group identifier ID of a group comprising the reception apparatus, information about whether there is a stream of data to be transmitted to the reception apparatus from the transmission apparatus during the transmission opportunity TXOP, and an indicator indicating whether there is an additional stream to be transmitted to the reception apparatus; and changing an operation state of the reception apparatus by determining whether a predetermined criterion is satisfied based on the information received from the transmission apparatus, wherein the criterion is satisfied if the reception apparatus is included in the group of the group ID, and information indicates that there is no stream of data to be transmitted to the reception apparatus from the transmission apparatus during the TXOP, wherein the operation state of the reception apparatus in the TXOP power saving mode is changed from an awake state to a sleep state during a remainder of the TXOP if the predetermined criterion is satisfied, wherein streams corresponding to one or more reception apparatuses are simultaneously transmitted from the transmission apparatus during the TXOP.
A method for automatically operating a continuous mining machine, the method comprising: accessing at least one coordinate of a cutting face stored in a computer-readable medium; automatically operating a first actuator (136, 171, 172) to position a platform (128, 130, 168) a predetermined clearance distance from the at least one coordinate, the platform (128, 130, 168) supporting a cutterhead; and automatically operating a second actuator to position an arm at a tramming position after positioning the platform (128, 130, 168) the predetermined clearance distance from the at least one coordinate, the arm coupled to the platform (128, 130, 168) and including the cutterhead. accessing at least one coordinate of a cutting face stored in a computer-readable medium; automatically operating a first actuator (136, 171, 172) to position a platform (128, 130, 168) a predetermined clearance distance from the at least one coordinate, the platform (128, 130, 168) supporting a cutterhead; and automatically operating a second actuator to position an arm at a tramming position after positioning the platform (128, 130, 168) the predetermined clearance distance from the at least one coordinate, the arm coupled to the platform (128, 130, 168) and including the cutterhead.
A steel sheet pile, wherein a chemical composition comprises, in terms of mass%: C: 0.05 to 0.18%; Si: 0.10 to 0.50%; Mn: 0.50 to 1.50%; Nb: 0.040 to 0.050%; V: 0.2.0 to 0.30%; Cu: 0 to 0.40%; Ni: 0 to 1.00%; M.o: 0 to 1.00%; Cr: 0 to 1.00%; Al: limited to less than 0,05%; and optionally one or more of 0.05 to 0.40% Cu, 0.10 to 1.00% Ni, 0.10 to 1.00% Mo, and 0.10 to 1.00% Cr the remainder Fe and impurities, a carbon equivalent calculated by Expression 1 and Expression 2 is 0.260 to 0.500, a structure includes a ferrite, a pearlite, a Widmanstätten ferrite, and a precipitate, the precipitate is one or both of Nb carbonitride and V carbonitride, a number density of the precipitate is 0.10 to 0.30 pieces/μm 2, a total area ratio of the ferrite and the pearlite is 70% or more, an area ratio of the Widmanstätten ferrite is 1% or more, an average grain size of the ferrite and the pearlite is 10 to 80μm, a yield strength is 460 to 550MPa and a tensile strength is 550 to 740MPa, CE N = < C > + f C × < Mn > / 6 + < Si > / 24 + < Ni > / 20 + < Cr > + < Mo > + < Nb > + < V > / 5 f C = 0.75 + 0.25 × tanh 20 × < C > − 0.12 and <C>, <Mn>, <Si>, <Ni>, <Cr>, <Mo>, <Nb>, and <V> express amounts of each element in terms of mass%, in which an amount of an element which is not included is considered to be 0%. C: 0.05 to 0.18%; Si: 0.10 to 0.50%; Mn: 0.50 to 1.50%; Nb: 0.040 to 0.050%; V: 0.2.0 to 0.30%; Cu: 0 to 0.40%; Ni: 0 to 1.00%; M.o: 0 to 1.00%; Cr: 0 to 1.00%; Al: limited to less than 0,05%; and optionally one or more of 0.05 to 0.40% Cu, 0.10 to 1.00% Ni, 0.10 to 1.00% Mo, and 0.10 to 1.00% Cr the remainder Fe and impurities, a carbon equivalent calculated by Expression 1 and Expression 2 is 0.260 to 0.500, a structure includes a ferrite, a pearlite, a Widmanstätten ferrite, and a precipitate, the precipitate is one or both of Nb carbonitride and V carbonitride, a number density of the precipitate is 0.10 to 0.30 pieces/μm 2, a total area ratio of the ferrite and the pearlite is 70% or more, an area ratio of the Widmanstätten ferrite is 1% or more, an average grain size of the ferrite and the pearlite is 10 to 80μm, a yield strength is 460 to 550MPa and a tensile strength is 550 to 740MPa, CE N = < C > + f C × < Mn > / 6 + < Si > / 24 + < Ni > / 20 + < Cr > + < Mo > + < Nb > + < V > / 5 f C = 0.75 + 0.25 × tanh 20 × < C > − 0.12 and <C>, <Mn>, <Si>, <Ni>, <Cr>, <Mo>, <Nb>, and <V> express amounts of each element in terms of mass%, in which an amount of an element which is not included is considered to be 0%.
Method for operating a driver assistance system, in particular an accident avoidance system, in a motor vehicle, characterised in that from technical data of the motor vehicle, measurement data describing the current driving state, measurement data describing the road conditions and data describing the surroundings of the motor vehicle, in particular the course of the road, at least one limit value of a driving state variable describing the current physical limits of the motor vehicle and a warning value lying within the physical limits derived therefrom is determined, wherein the current value of the at least one driving state variable is determined and a warning is sent to a driver when the driving state variable lies between the warning value and the limit value, wherein an overall standard limit value is determined and/or specified, describing the physical limits of the motor vehicle under standard conditions, wherein the current limit value is determined through scaling by a scaling value describing the current driving situation.
A system for estimating the number of persons inside an area, the system comprising at least one passive infrared sensor (S1..S3) configured to detect the presence of a person in at least a part (A1..A3) of the area and to output a binary signal depending on presence of a person in the part (A1..A3) of the area, wherein the binary signal includes a sequence of highs and lows depending on the presence of a person and the binary signal is high when the presence of a person is detected, and a computing unit configured to estimate the number of persons inside the area based on the sequence of highs and lows by a machine learned model, wherein the sequence of highs and lows is input into the machine learned model, and the computing unit is configured to perform the machine learning by producing a model that allows to determine from different sequences of highs and lows - one of a plurality of classes, wherein each class corresponds to predetermined numbers of persons, or - a number of persons. at least one passive infrared sensor (S1..S3) configured to detect the presence of a person in at least a part (A1..A3) of the area and to output a binary signal depending on presence of a person in the part (A1..A3) of the area, wherein the binary signal includes a sequence of highs and lows depending on the presence of a person and the binary signal is high when the presence of a person is detected, and a computing unit configured to estimate the number of persons inside the area based on the sequence of highs and lows by a machine learned model, wherein the sequence of highs and lows is input into the machine learned model, and the computing unit is configured to perform the machine learning by producing a model that allows to determine from different sequences of highs and lows - one of a plurality of classes, wherein each class corresponds to predetermined numbers of persons, or - a number of persons. - one of a plurality of classes, wherein each class corresponds to predetermined numbers of persons, or - a number of persons.
Pneumatic vehicle tyre for passenger motor vehicles, in particular for use in wintry driving conditions, with a tread strip profile with at least one row of blocks which runs around in the circumferential direction, the profile blocks of which are separated by way of transverse grooves, and the profile blocks of which are provided in plan view with at least two wave-like or zigzag-shaped sipes which are aligned with one another and substantially parallel to one another and which configure wave crests with a deflection towards the top and wave troughs with a deflection towards the bottom about an imaginary zero line, and the sipes having, furthermore, two different widths (b 1, b 2) in plan view, a first width (b 1) of from 0.3 to 0.6 mm which is configured over a majority of the longitudinal extent of the sipe, and sections of a second, greater width (b 2) which are configured locally as snow pockets around the points of the greatest deflection, characterized in that the snow pockets are arranged distributed over the profile block in such a way that one sipe has snow pockets exclusively in the wave crests, and the sipe or sipes which adjoins/adjoin the said sipe directly has/have the snow pockets exclusively in the wave troughs, or vice versa.
An adjustable bend sheath tube, comprising a tube body, a traction mechanism and a fixing and connecting mechanism; the traction mechanism comprising an anchor ring and a traction wire; the anchor ring being coaxially embedded in a distal elastic segment of the tube body; the traction wire being arranged in a side wall of the tube body, and extending along the axial direction of the tube body; wherein the traction wire comprises a first segment and a second segment and a bending portion connecting the distal end of the first segment and the distal end of the second segment, wherein both the first segment and the second segment are connected to the fixing and connecting mechanism near a proximal end of the tube body, and wherein the bending portion strides over a distal end surface of the anchor ring, and wherein the first and second traction wire segments (122a, 122b), when engaged with the anchor ring, are located on two opposite sides of the anchor ring. wherein the traction wire comprises a first segment and a second segment and a bending portion connecting the distal end of the first segment and the distal end of the second segment, wherein both the first segment and the second segment are connected to the fixing and connecting mechanism near a proximal end of the tube body, and wherein the bending portion strides over a distal end surface of the anchor ring, and wherein the first and second traction wire segments (122a, 122b), when engaged with the anchor ring, are located on two opposite sides of the anchor ring.
Braking system comprising a brake pad, said pad comprising a backing plate with a first face and a second face, and a lining made of friction material and fixed to said first face, the lining being delimited by a friction face, a mounting face, an inner edge, an outer edge, a rear edge, and a front edge, said lining being provided with at least one collection groove which is open to the friction face, which extends from its first end of said inner edge and which emerges at its second end of said outer edge and on said outer edge, said braking system being characterized in that it further comprises a collection system which comprises a collection pipe through which air is able to flow, the air inlet orifice of said collection pipe being located opposite said second end.
A circuit comprising: a first capacitor connected between a first power line and a ground connection; a first duplicating capacitor having a capacitance equal to said first capacitor, wherein the first duplicating capacitor is connected between the first power line and a measuring point; and a comparison circuit for determining whether or not a potential difference exists between the measuring point and the ground connection. a first capacitor connected between a first power line and a ground connection; a first duplicating capacitor having a capacitance equal to said first capacitor, wherein the first duplicating capacitor is connected between the first power line and a measuring point; and a comparison circuit for determining whether or not a potential difference exists between the measuring point and the ground connection.
A gas turbine engine comprising: an engine section comprising a plurality of stages (62A,B) of variable vanes; first and second synchronizing rings (sync-rings) (70;70A,B), wherein movement of the first sync-ring adjusts vane angles of a first one of the stages of variable vanes, and movement of the second sync-ring adjusts vane angles of a second one of the stages of variable vanes; at least one sensor (81A-C) configured to measure a condition of the gas turbine engine; a controller configured to move the first sync-ring independently of the second sync-ring based on data from the at least one sensor (81A-C); a first actuator configured to rotate the first sync-ring, and a different, second actuator configured to rotate the second sync-ring; wherein to move the first sync-ring independently of the second sync-ring, the controller is configured to actuate the first actuator independently of the second actuator; characterised in that: each sync-ring comprises: first gear teeth situated on a first side of the sync-ring that engage an actuator gear of the actuator; and second gear teeth situated on an opposite, second side of the sync-ring that engage vane gears of the stage of variable vanes associated with the sync-ring. an engine section comprising a plurality of stages (62A,B) of variable vanes; first and second synchronizing rings (sync-rings) (70;70A,B), wherein movement of the first sync-ring adjusts vane angles of a first one of the stages of variable vanes, and movement of the second sync-ring adjusts vane angles of a second one of the stages of variable vanes; at least one sensor (81A-C) configured to measure a condition of the gas turbine engine; a controller configured to move the first sync-ring independently of the second sync-ring based on data from the at least one sensor (81A-C); a first actuator configured to rotate the first sync-ring, and a different, second actuator configured to rotate the second sync-ring; wherein to move the first sync-ring independently of the second sync-ring, the controller is configured to actuate the first actuator independently of the second actuator; characterised in that: each sync-ring comprises: first gear teeth situated on a first side of the sync-ring that engage an actuator gear of the actuator; and second gear teeth situated on an opposite, second side of the sync-ring that engage vane gears of the stage of variable vanes associated with the sync-ring. first gear teeth situated on a first side of the sync-ring that engage an actuator gear of the actuator; and second gear teeth situated on an opposite, second side of the sync-ring that engage vane gears of the stage of variable vanes associated with the sync-ring.
A display device comprising: a gate line, a common line, and an additional data line formed on a substrate; wherein the gate line, the common line, and the additional data line are formed of the same gate metal material; a gate insulating layer formed on a portion of the gate line and a portion of the additional data line; a semiconductor layer formed on at least a portion of the gate insulating layer; a data line formed on a portion of the additional data line not covered by the gate insulating layer; wherein a top surface of the additional data line is in physical contact with a bottom surface of the data line; an additional gate line formed on a portion of the gate line not covered by the gate insulating layer; wherein a bottom surface of the additional gate line is in physical contact with a top surface of the gate line; an additional common line formed on the common line; wherein the data line, the additional gate line, and the additional common line are formed of the same data metal material; wherein a bottom surface of the additional common line contact a top surface of the common line; and a transistor comprising a gate coupled to the gate line, a source coupled to the data line, a drain, and a portion of the semiconductor layer at least partially located between the source and the drain. a gate line, a common line, and an additional data line formed on a substrate; wherein the gate line, the common line, and the additional data line are formed of the same gate metal material; a gate insulating layer formed on a portion of the gate line and a portion of the additional data line; a semiconductor layer formed on at least a portion of the gate insulating layer; a data line formed on a portion of the additional data line not covered by the gate insulating layer; wherein a top surface of the additional data line is in physical contact with a bottom surface of the data line; wherein a top surface of the additional data line is in physical contact with a bottom surface of the data line; an additional gate line formed on a portion of the gate line not covered by the gate insulating layer; wherein a bottom surface of the additional gate line is in physical contact with a top surface of the gate line; wherein a bottom surface of the additional gate line is in physical contact with a top surface of the gate line; an additional common line formed on the common line; wherein the data line, the additional gate line, and the additional common line are formed of the same data metal material; wherein a bottom surface of the additional common line contact a top surface of the common line; and wherein a bottom surface of the additional common line contact a top surface of the common line; and a transistor comprising a gate coupled to the gate line, a source coupled to the data line, a drain, and a portion of the semiconductor layer at least partially located between the source and the drain.
A housing for a sensor having a base body which is open at a first side and has an end wall at an oppositely disposed second side, said end wall closing a part region of the second side such that the second side has a partly closed region and a partly open region, and having a closure flap for closing the base body and for laying cable from an interior of the housing to the outside, wherein the closure flap complements the partly open region of the second side in a shape matched manner and is releasably mounted at the base body such that the second side of the base body is hermetically closed by the closure flap in a closed position of the closure flap with respect to the base body, characterised in that the closure flap is designed such that it can be released from the closed position without tools by means of an actuation of an elastic closing means at the closure flap; and in that it can be mounted at or removed from the base body without tools by means of a tongue and groove connection if it is in an open position with respect to the base body, with openings being provided which are sealed with respect to the base body in the closed position of the closure flap and which serve for the laying of cable from the interior of the housing to the outside, and with the openings allowing a laying of the cables from the housing to the outside in the axially or radially tangential direction.