mhurhangee/ep-ind-claims huggingface dataset:
A razor blade characterized by: a substrate with a coating joined to said substrate defining a coated blade, said coated blade comprising a cutting edge being defined by a blade tip having a tip radius of from 500 to 1500 angstroms, said coated blade having a thickness of between 0.3 and 0.5 micrometers measured at a distance of 0.25 micrometers from the blade tip, a thickness of between 0.4 and 0.65 micrometers measured at a distance of 0.5 micrometers from the blade tip, a thickness of between 0.61 and 0.71 micrometers measured at a distance of 1 micrometer from the blade tip, a thickness of between 0.96 and 1.16 micrometers measured at a distance of 2 micrometers from the blade tip, and a thickness of between 1.56 and 1.91 micrometers measured at a distance of 4 micrometers from the blade tip. a substrate with a coating joined to said substrate defining a coated blade, said coated blade comprising a cutting edge being defined by a blade tip having a tip radius of from 500 to 1500 angstroms, said coated blade having a thickness of between 0.3 and 0.5 micrometers measured at a distance of 0.25 micrometers from the blade tip, a thickness of between 0.4 and 0.65 micrometers measured at a distance of 0.5 micrometers from the blade tip, a thickness of between 0.61 and 0.71 micrometers measured at a distance of 1 micrometer from the blade tip, a thickness of between 0.96 and 1.16 micrometers measured at a distance of 2 micrometers from the blade tip, and a thickness of between 1.56 and 1.91 micrometers measured at a distance of 4 micrometers from the blade tip.
A work vehicle including a suspended platform, the work vehicle comprising: a work cage configured to carry an operator; an arm mechanism having a distal end, the distal end being movable to an intended position by at least one of a rotating mechanism, an extension mechanism, or a derricking mechanism that are installed on a vehicle body; and the suspended platform comprising a support post located at the distal end of the arm mechanism and extending vertically, a suspension frame from which the work cage is suspended, the suspension frame being mounted on an upper end of the support post, being located outside the work cage allowing the operator to perform an operation on a portion above the upper end of the support post, and a lift mechanism configured to raise or lower the work cage to a work position, the work cage being suspended from the suspension frame with a plurality of lanyards, characterised in that the arm mechanism comprises an operation panel that is operable from the work cage at an uppermost stop position and inoperable from the work cage at a raised or lowered position. a work cage configured to carry an operator; an arm mechanism having a distal end, the distal end being movable to an intended position by at least one of a rotating mechanism, an extension mechanism, or a derricking mechanism that are installed on a vehicle body; and the suspended platform comprising a support post located at the distal end of the arm mechanism and extending vertically, a suspension frame from which the work cage is suspended, the suspension frame being mounted on an upper end of the support post, being located outside the work cage allowing the operator to perform an operation on a portion above the upper end of the support post, and a lift mechanism configured to raise or lower the work cage to a work position, the work cage being suspended from the suspension frame with a plurality of lanyards, characterised in that the arm mechanism comprises an operation panel that is operable from the work cage at an uppermost stop position and inoperable from the work cage at a raised or lowered position. a support post located at the distal end of the arm mechanism and extending vertically, a suspension frame from which the work cage is suspended, the suspension frame being mounted on an upper end of the support post, being located outside the work cage allowing the operator to perform an operation on a portion above the upper end of the support post, and a lift mechanism configured to raise or lower the work cage to a work position, the work cage being suspended from the suspension frame with a plurality of lanyards, characterised in that the arm mechanism comprises an operation panel that is operable from the work cage at an uppermost stop position and inoperable from the work cage at a raised or lowered position.
Elevator cab comprising a pivotable balustrade that is attached to a roof of the elevator cab and can be pivoted, at least in portions, between a folded-down position and an erected position, characterized in that the balustrade comprises a locking mechanism for securing the erected position, by means of which locking mechanism the balustrade can be locked by a latching connection in the event of a pivot movement for establishing the erected position.
A mobile station comprising a layer 1 function and a layer 2 function, wherein the layer 1 function includes a transmission unit configured to transmit an uplink signal to a radio base station, the layer 2 function includes a transmission management unit configured to command the transmission unit to transmit the uplink signal, and a counter control unit configured to control a counter, the counter control unit is configured to avoid incrementing the counter when the transmission unit does not transmit the uplink signal after the transmission management unit gives the command to the transmission unit, and the counter control unit is configured to monitor a status of transmission of the uplink signal by the transmission unit, and increment the counter when detecting that the transmission of the uplink signal is completed. a transmission management unit configured to command the transmission unit to transmit the uplink signal, and a counter control unit configured to control a counter,
A radiation imaging method including the steps of generating at least one radiation microbeam by a radiation source, penetration of radiation through an examined object and its capture by a detector, wherein the difference between the position of a non-refracted microbeam detected without the examined object and the position of a refracted microbeam detected with the examined object defines a refraction angle in a particular point of the examined object, the refraction angle expressing the size of a local gradient of the refractive index corresponding to a phase gradient image of the examined object, characterized in that the radiation on the way from the radiation source to the detector passes through a directing element which transmits a radiation microbeam with crosswise dimension and directs the radiation microbeam to the boundaries between pixels of the detector, wherein the incident radiation particle generates an analogue signal in the pixels adjacent to the boundary and each of the pixels detects the appropriate share of the signal, the signal share being defined as the effect of the same photo event causing a detected signal in a plurality of pixels adjacent to the boundary, wherein the non-refracted microbeam generates approximately the same share of analogue signal in each pixel of a multiplet, and then after object insertion, the microbeam is refracted in the particular point of the object and the analogue signal is unequally distributed and shared among pixels adjacent to the boundary within one multiplet, and the difference of the position between the refracted microbeam and the non-refracted microbeam is directly derived from the change of the share of analogue signal within the appropriate pixels adjacent to the boundary, and thus the phase gradient in the particular object point is directly derived from the analogue signal.
Pool having a whirlpool covering for insulating the pool having a device for moving the covering, which covering is composed of two parts (1, 2) connected to each other in an articulated manner, which parts (1, 2) of the covering lie flat on an upper edge of the pool in a closed state, wherein a hinge is arranged on the rear part of the covering, which hinge is adapted for connection to the pool, and the front part of the covering is connected to two lifting arms which are driven by at least one drive, characterised in that the lifting arms are arranged at the side of the pool and that a sliding rail is provided on the side of each lifting arm facing the pool, in which sliding rail a pin fixedly connected to the front part of the covering is able to be mounted in a rotatable and linear displaceable manner such that when the lifting arms rotate, the covering is able to be transferred from the closed state to an open state in which the covering lies behind the pool and back again by a lifting/folding motion.
A computer-implemented method for estimating elastic parameters in a subsoil region, wherein the subsoil region is represented using a grid having columns of cells arranged in an array of horizontal positions, wherein the cells of a column are delineated by geological layering of the subsoil region, the method comprising: obtaining seismic traces associated with said horizontal positions; performing seismic inversion for each of a plurality of said columns of cells, wherein the seismic inversion for a column of cells at a horizontal position of the array comprises selecting a set of elastic parameter values that minimizes a cost function regardless of statistical distribution (50, 51) of the elastic parameter values, wherein the set of elastic parameter values is selected among a plurality of candidate sets of elastic parameter values each having values of elastic parameters for the cells of the column, wherein the cost function has a component given by a difference between the seismic trace associated with said horizontal position of the array and a synthetic trace resulting from a candidate set of elastic parameter values, and wherein the seismic inversion is carried out by running a global minimization algorithm, characterised in that the global minimization algorithm comprises a covariance matrix adaptation - evolution strategy, CMA-ES, algorithm. obtaining seismic traces associated with said horizontal positions; performing seismic inversion for each of a plurality of said columns of cells, wherein the seismic inversion for a column of cells at a horizontal position of the array comprises selecting a set of elastic parameter values that minimizes a cost function regardless of statistical distribution (50, 51) of the elastic parameter values, wherein the set of elastic parameter values is selected among a plurality of candidate sets of elastic parameter values each having values of elastic parameters for the cells of the column, wherein the cost function has a component given by a difference between the seismic trace associated with said horizontal position of the array and a synthetic trace resulting from a candidate set of elastic parameter values, and wherein the seismic inversion is carried out by running a global minimization algorithm, characterised in that the global minimization algorithm comprises a covariance matrix adaptation - evolution strategy, CMA-ES, algorithm.
Method for a solar inverter for feeding energy generated by a DC voltage source into an AC voltage network, in which the generated energy from the DC voltage source is chopped in the form of pulse-width modulation by a bridge inverter by alternately switching switching elements that are connected in parallel and in series, and said chopped energy is transmitted via a transformer which is connected between the switching elements connected in series, whereupon the transmitted energy is in turn rectified and fed into the AC voltage network via a buck converter, wherein the switch times of the switching elements of the bridge inverter are controlled in order to adjust the power, wherein switching from one switching element to a further switching element connected in series takes place after a dead time has passed, such that the parasitic capacitances stored in the switching elements are completely recharged during the dead time, wherein the current generated by the DC voltage source and flowing through the primary coil of the transformer is recorded at cyclic intervals or continuously and an average value is determined therefrom, and the dead time for switching from one switching element to a further switching element, connected in series, of the bridge inverter is set on the basis of the average value of the recorded current by the dead time of the switching elements of the bridge inverter being selected from a table in which corresponding values for the dead time are given for a wide range of average values of the current.
A coupling device for timepieces, in particular for time-setting devices or chronograph watches, the device comprising an entry wheel (1.1), a coupling wheel (1.2) meshing with the entry wheel (1.1), and at least one first exit wheel (1.3), said coupling wheel (1.2) being disposed in a manner substantially coplanar relative to the plane of rotation (p) of the entry wheel (1.1) and of the first exit wheel (1.3) and being arranged such that it is adapted to tilt relative to said plane of rotation so as to be able to occupy at least a first coupling position in which the coupling wheel (1.2) meshes with the first exit wheel (1.3) and a second coupling position in which the coupling wheel (1.2) is decoupled from the first exit wheel (1.3), the device comprising a movable element (1.6) allowing to control the change of position between the first and the second position of the coupling wheel (1.2), characterised in that said coupling wheel (1.2) comprises an axis of rotation (1.2.1) adapted to be inclined relative to the normal to said plane of rotation (p) of the entry wheel (1.1) and of the first exit wheel (1.3) by being mounted pivotably at each of the ends thereof (1.2.2, 1.2.3), at least one end (1.2.2) of said axis of rotation (1.2.1) being mounted on said movable element (1.6), and in that the ratio (d:h) between the diameter (d) of the coupling wheel (1.2) and the height (h) of the axis of rotation (1.2.1) comprised between the intersection of said axis of rotation with said plane of rotation (p) and the end mounted on the movable element (1.6) is greater than 1.5:1.
Mounting arrangement for a bunk in a vehicle, in particular in a sleeping compartment of a lorry, having a) a levelling device for levelling the bunk when the vehicle is parked in an inclined parking space, b) a joint with which the bunk is fitted pivotably in the vehicle, and c) two actuators (9, 10) for setting a certain pivoting position of the bunk, wherein the two actuators (9, 10) are arranged on the longitudinal edge of the bunk, which longitudinal edge is opposite the joint, on opposite sides of a transverse axis of the bunk, characterized d) in that the joint is arranged on a longitudinal edge of the bunk substantially in the centre of the longitudinal edge of the bunk, e) in that the joint is a rotary joint which permits a rotational movement of the bunk about a longitudinal axis of the bunk and a rotational movement of the bunk about the transverse axis of the bunk, and f) in that the two actuators (9, 10) pivot the bunk about the transverse axis thereof and about the longitudinal axis thereof. a) a levelling device for levelling the bunk when the vehicle is parked in an inclined parking space, b) a joint with which the bunk is fitted pivotably in the vehicle, and c) two actuators (9, 10) for setting a certain pivoting position of the bunk, wherein the two actuators (9, 10) are arranged on the longitudinal edge of the bunk, which longitudinal edge is opposite the joint, on opposite sides of a transverse axis of the bunk, d) in that the joint is arranged on a longitudinal edge of the bunk substantially in the centre of the longitudinal edge of the bunk, e) in that the joint is a rotary joint which permits a rotational movement of the bunk about a longitudinal axis of the bunk and a rotational movement of the bunk about the transverse axis of the bunk, and f) in that the two actuators (9, 10) pivot the bunk about the transverse axis thereof and about the longitudinal axis thereof.
A plant exhibiting an increase in the content of a fat and oil per given seed of a plant, or an increase in the weight of single seed, compared with a wild-type plant, which expresses a chimeric protein resulting from the fusion of a target transcription factor with a functional peptide that converts an arbitrary transcription factor into a transcription repressor, so as to suppress transcription accelerating activity of the target transcription factor, wherein the target transcription factor is any of proteins (a) to (c) below: (a) a protein comprising the amino acid sequence as shown in SEQ ID NO: 10; (b) a protein comprising an amino acid sequence derived from the amino acid sequence as shown in SEQ ID NO: 10 by deletion, substitution, addition, or insertion of 1 to 10 amino acids and having transcription accelerating activity; or (c) a protein encoded by a polynucleotide hybridizing under stringent conditions to a polynucleotide comprising a nucleotide sequence complementary to the nucleotide sequence as shown in SEQ ID NO: 9 and having transcription accelerating activity. (a) a protein comprising the amino acid sequence as shown in SEQ ID NO: 10; (b) a protein comprising an amino acid sequence derived from the amino acid sequence as shown in SEQ ID NO: 10 by deletion, substitution, addition, or insertion of 1 to 10 amino acids and having transcription accelerating activity; or (c) a protein encoded by a polynucleotide hybridizing under stringent conditions to a polynucleotide comprising a nucleotide sequence complementary to the nucleotide sequence as shown in SEQ ID NO: 9 and having transcription accelerating activity.
A power amplifier system (100, 400), comprising: - a differential power amplifier (110, 410), configured to receive a differential input pair to generate an output signal; and - a bias circuit (120, 420), configured to generate a bias voltage to bias the differential power amplifier (110, 410), wherein: - the bias circuit (120, 420) comprises a source follower (122, 422), configured to receive a reference voltage to generate the bias voltage and having an input node (Nin) and an output node (Nout), - the differential power amplifier (110, 410) is configured to receive the differential input pair from a transformer (112, 412), and the source follower (122, 422) is configured to receive the reference voltage at the input node (Nin) to generate the bias voltage to a center tap of the transformer (112, 412) to bias the differential power amplifier (110, 410), - the bias circuit (120, 420) further comprises a harmonic rejection circuit (124, 424), (i) coupled between the output node (Nout) of the source follower (122, 422) and the center tap of the transformer (112, 412), configured to reject power amplifier kick-back harmonic(s), and (ii) connected between the output node (Nout) of the source follower (122, 422) and a ground voltage node, - the output node (Nout) of the source follower (122, 422) is directly connected to the center tap of the transformer (112, 412) thereby yielding a low output impedance of the source follower (122, 422), and - the harmonic rejection circuit (124, 424) is implemented by at least an inductor and at least a capacitor. - a differential power amplifier (110, 410), configured to receive a differential input pair to generate an output signal; and - a bias circuit (120, 420), configured to generate a bias voltage to bias the differential power amplifier (110, 410), - the bias circuit (120, 420) comprises a source follower (122, 422), configured to receive a reference voltage to generate the bias voltage and having an input node (Nin) and an output node (Nout), - the differential power amplifier (110, 410) is configured to receive the differential input pair from a transformer (112, 412), and the source follower (122, 422) is configured to receive the reference voltage at the input node (Nin) to generate the bias voltage to a center tap of the transformer (112, 412) to bias the differential power amplifier (110, 410), - the bias circuit (120, 420) further comprises a harmonic rejection circuit (124, 424), (i) coupled between the output node (Nout) of the source follower (122, 422) and the center tap of the transformer (112, 412), configured to reject power amplifier kick-back harmonic(s), and (ii) connected between the output node (Nout) of the source follower (122, 422) and a ground voltage node, - the output node (Nout) of the source follower (122, 422) is directly connected to the center tap of the transformer (112, 412) thereby yielding a low output impedance of the source follower (122, 422), and - the harmonic rejection circuit (124, 424) is implemented by at least an inductor and at least a capacitor.
A device for searching for people buried by avalanches, comprising: a) a receiving unit for determining a receive direction of a transmission signal, b) a processing unit, and c) an acoustic signal generator, characterized in that d) the receive direction can be associated by means of the processing unit with one of 3, 4, 5, 6, 7, 8, 9 or 10 solid angle ranges (10, 11, 12, 13, 60, 61, 62, 63, 64) around the device for searching of people buried by avalanches, and, e) depending on the solid angle range (10, 11, 12, 13, 60, 61, 62, 63, 64) associated with the receive direction, one of at least two tone patterns can be generated by means of the acoustic signal generator, wherein f) a first tone pattern can be generated by the signal generator, if the receive direction determined by the receiving unit is located in a front solid angle range (10, 60) which is directed in a forward direction of the device for searching for people buried by an avalanche, wherein g) a second tone pattern can be generated by the signal generator, if the receive direction determined by the receiving unit is located in a rear solid angle range (11, 61) which is oriented in a rearward direction of the device for searching for people buried by an avalanche, and wherein h) a third tone pattern can be generated by the signal generator, if the receive direction determined by the receiving unit is located in one of at least one lateral solid angle range (12, 13, 62, 63, 64) which is located outside of the front and outside of the rear solid angle range (10, 60, 11, 61). a) a receiving unit for determining a receive direction of a transmission signal, b) a processing unit, and c) an acoustic signal generator, characterized in that d) the receive direction can be associated by means of the processing unit with one of 3, 4, 5, 6, 7, 8, 9 or 10 solid angle ranges (10, 11, 12, 13, 60, 61, 62, 63, 64) around the device for searching of people buried by avalanches, and, e) depending on the solid angle range (10, 11, 12, 13, 60, 61, 62, 63, 64) associated with the receive direction, one of at least two tone patterns can be generated by means of the acoustic signal generator, wherein f) a first tone pattern can be generated by the signal generator, if the receive direction determined by the receiving unit is located in a front solid angle range (10, 60) which is directed in a forward direction of the device for searching for people buried by an avalanche, wherein g) a second tone pattern can be generated by the signal generator, if the receive direction determined by the receiving unit is located in a rear solid angle range (11, 61) which is oriented in a rearward direction of the device for searching for people buried by an avalanche, and wherein h) a third tone pattern can be generated by the signal generator, if the receive direction determined by the receiving unit is located in one of at least one lateral solid angle range (12, 13, 62, 63, 64) which is located outside of the front and outside of the rear solid angle range (10, 60, 11, 61).