mhurhangee/ep-ind-claims huggingface dataset:
A hydraulic braking system of a vehicle with several axles, in particular a trailer with several axles, comprising two separated braking circuits (40, 110) respectively associated with two different axle groups (10; 20, 30), one of the braking circuits being supplied by a main hydraulic circuit of the vehicle, whereas the other braking circuit is supplied with a hydraulic accumulator, characterised in that the hydraulic accumulator is supplied with a low pressure line and the braking circuit supplied by the main hydraulic circuit of the vehicle is supplied by a pump via a pressure regulating valve driven, directly or indirectly, by a brake pedal, this pressure regulating valve selectively communicating the pump, the brake line and an oil tank, both braking circuits performing a simultaneous braking.
A method of providing crest factor reduction for a carrier aggregated signal, comprising: estimating a peak of a carrier aggregated signal comprising a plurality of component carriers based on a summation of instantaneous amplitudes of baseband representations of the plurality of component carriers, the number of component carriers in the plurality of component carriers of the carrier aggregated signal is greater than or equal to 2; and clipping the baseband representations of the plurality of component carriers if the estimated peak of the carrier aggregated signal is greater than a predefined clipping threshold, wherein estimating the peak of the carrier aggregated signal comprises: determining the instantaneous amplitudes of the baseband representations of the plurality of component carriers of the carrier aggregated signal; weighting the instantaneous amplitudes according to average power levels of the plurality of component carriers of the carrier aggregated signal; and summing the weighted instantaneous amplitudes of the baseband representations of the plurality of component carriers of the carrier aggregated signal to provide the estimated peak of the carrier aggregated signal. estimating a peak of a carrier aggregated signal comprising a plurality of component carriers based on a summation of instantaneous amplitudes of baseband representations of the plurality of component carriers, the number of component carriers in the plurality of component carriers of the carrier aggregated signal is greater than or equal to 2; and clipping the baseband representations of the plurality of component carriers if the estimated peak of the carrier aggregated signal is greater than a predefined clipping threshold, wherein estimating the peak of the carrier aggregated signal comprises: determining the instantaneous amplitudes of the baseband representations of the plurality of component carriers of the carrier aggregated signal; weighting the instantaneous amplitudes according to average power levels of the plurality of component carriers of the carrier aggregated signal; and summing the weighted instantaneous amplitudes of the baseband representations of the plurality of component carriers of the carrier aggregated signal to provide the estimated peak of the carrier aggregated signal. determining the instantaneous amplitudes of the baseband representations of the plurality of component carriers of the carrier aggregated signal; weighting the instantaneous amplitudes according to average power levels of the plurality of component carriers of the carrier aggregated signal; and summing the weighted instantaneous amplitudes of the baseband representations of the plurality of component carriers of the carrier aggregated signal to provide the estimated peak of the carrier aggregated signal.
A method of process control for an additive manufacturing system, comprising the steps of: monitoring a spark plume created during manufacture of an article in a system according to any of claims 7-9; capturing at least one image of the spark plume; deriving image data from the at least one image; feeding the image data into a statistical process control module; and generating an alert if the image data exceeds a pre-determined control limit. monitoring a spark plume created during manufacture of an article in a system according to any of claims 7-9; capturing at least one image of the spark plume; deriving image data from the at least one image; feeding the image data into a statistical process control module; and generating an alert if the image data exceeds a pre-determined control limit.
A mobile station apparatus comprising: a receiver that receives a signal transmitted from a base station; a determining unit that determines an intermittent receiving cycle based on the received signal indicating the intermittent receiving cycle; a handover-threshold setting unit that sets a handover threshold based on the determined intermittent receiving cycle; and a control unit that compares the handover threshold set by the handover-threshold setting unit and reception level of the signal received by the receiver, and determines whether handover is to be performed. a receiver that receives a signal transmitted from a base station; a determining unit that determines an intermittent receiving cycle based on the received signal indicating the intermittent receiving cycle; a handover-threshold setting unit that sets a handover threshold based on the determined intermittent receiving cycle; and a control unit that compares the handover threshold set by the handover-threshold setting unit and reception level of the signal received by the receiver, and determines whether handover is to be performed.
A method for controlling an optical system, comprising: causing, by a controller, a light source composed of a laser source coupled to a fiber amplifier to emit pulses of light at a first pulse frequency; directing, by a scanner unit communicatively connected to the controller, the pulses of light out from the optical system; sensing, by at least one sensor communicatively connected with the controller, a reflected light signal reflected from at least one object in a field of view of the optical system; determining, by the controller, a signal-to-noise ratio of the reflected light signal; determining, by the controller, a signal difference between a signal-to-noise threshold and the signal-to-noise ratio, the signal-to-noise ratio being greater than the signal-to-noise threshold; and causing, by the controller, based on the signal difference, the light source to emit pulses of light at a second pulse frequency different than the first pulse frequency, the second pulse frequency being greater than the first pulse frequency, the second pulse frequency being greater than a recharge rate of the light source determined by a population inversion rate of the fiber amplifier. causing, by a controller, a light source composed of a laser source coupled to a fiber amplifier to emit pulses of light at a first pulse frequency; directing, by a scanner unit communicatively connected to the controller, the pulses of light out from the optical system; sensing, by at least one sensor communicatively connected with the controller, a reflected light signal reflected from at least one object in a field of view of the optical system; determining, by the controller, a signal-to-noise ratio of the reflected light signal; determining, by the controller, a signal difference between a signal-to-noise threshold and the signal-to-noise ratio, the signal-to-noise ratio being greater than the signal-to-noise threshold; and causing, by the controller, based on the signal difference, the light source to emit pulses of light at a second pulse frequency different than the first pulse frequency, the second pulse frequency being greater than the first pulse frequency, the second pulse frequency being greater than a recharge rate of the light source determined by a population inversion rate of the fiber amplifier.
Method for permanently deforming keratin fibres, in particular hair, comprising: - a step of applying a reducing composition to the keratin fibres, to reduce the disulfide bonds in the keratin, the keratin fibres being placed under mechanical tension before, during or after said application, preferably before, then - a step of applying an intermediate rinsing composition to the keratin fibres, comprising: - at least one monovalent metal cation salt and/or at least one ammonium salt, the salt(s) being chosen from NaCl, NH 4 Cl, KCl and AgCl, and - at least one organic acid, said salt(s) not being one or more salt(s) of said organic acid(s) present in the intermediate rinsing composition, and said salt(s) not being one or more surfactant(s), then - a step of fixing by oxidation, to reform said bonds, by applying an oxidizing composition to the keratin fibres, said process not comprising a step of rinsing with water between the step of applying the reducing composition and the step of applying the intermediate rinsing composition, nor between the step of applying the intermediate rinsing composition and the step of applying the oxidizing composition. - a step of applying a reducing composition to the keratin fibres, to reduce the disulfide bonds in the keratin, the keratin fibres being placed under mechanical tension before, during or after said application, preferably before, then - a step of applying an intermediate rinsing composition to the keratin fibres, comprising: - at least one monovalent metal cation salt and/or at least one ammonium salt, the salt(s) being chosen from NaCl, NH 4 Cl, KCl and AgCl, and - at least one monovalent metal cation salt and/or at least one ammonium salt, the salt(s) being chosen from NaCl, NH 4 Cl, KCl and AgCl, and - at least one organic acid, - a step of fixing by oxidation, to reform said bonds, by applying an oxidizing composition to the keratin fibres,
An active cambering device for bending presses comprising an upper beam and a lower beam, characterized in that it comprises a pump (4, P1), at least one accumulator (5, ACC) and a proportional direction valve (6, V8), the pump (4, P1) being adapted to load the at least one accumulator (5, ACC), said accumulator (5, ACC) being adapted to actuate said lower beam by means of the proportional direction valve (6, V8).
A method of operation of a radio node (102, 106, 112) for providing sub-Physical Resource Block, PRB, transmission, comprising: selecting two adjacent subcarriers from a set of three allocated subcarriers that are allocated for a sub-PRB transmission that uses Single Carrier Frequency Division Multiple Access, SC-FDMA, Pi/2 Binary Phase Shift Keying, BPSK, modulation using only two adjacent subcarriers out of the set of three allocated subcarriers with Discrete Fourier Transform, DFT, spread length of 2; characterized in that selecting the two adjacent subcarriers from the set of three allocated subcarriers comprises selecting the two adjacent subcarriers based on a cell Identifier, ID, of a cell that has allocated the sub-PRB transmission; wherein selecting the two adjacent subcarriers based on the cell ID of the cell that has allocated the sub-PRB transmission comprises selecting the two adjacent subcarriers based on a value resulting from the cell ID modulo 2 operation. selecting two adjacent subcarriers from a set of three allocated subcarriers that are allocated for a sub-PRB transmission that uses Single Carrier Frequency Division Multiple Access, SC-FDMA, Pi/2 Binary Phase Shift Keying, BPSK, modulation using only two adjacent subcarriers out of the set of three allocated subcarriers with Discrete Fourier Transform, DFT, spread length of 2; characterized in that selecting the two adjacent subcarriers from the set of three allocated subcarriers comprises selecting the two adjacent subcarriers based on a cell Identifier, ID, of a cell that has allocated the sub-PRB transmission; wherein selecting the two adjacent subcarriers based on the cell ID of the cell that has allocated the sub-PRB transmission comprises selecting the two adjacent subcarriers based on a value resulting from the cell ID modulo 2 operation.
An information processing device comprising: a first storage with a first access speed; an AP execution unit configured to execute an application designed to perform a synchronization process between data processing and access to storage, on the assumption that the speed of access to storage will be that of an access speed of a second storage with a second access speed which is different from the first access speed; an access request acknowledging unit configured to acknowledge a request for access to the first storage from the AP execution unit; an access execution unit configured to perform a process of accessing the first storage in response to the request for access; an access time estimation unit configured to estimate the required time needed to perform a process of accessing the second storage in response to the request for access, in accordance with an evaluation function for calculating the required time; an adjustment unit configured to make an adjustment process to fill a time gap between a record time required to perform a process of accessing the first storage and a required estimated time to perform a process of accessing the second storage, wherein, if the record time is shorter than the estimated time by a predetermined duration or longer, the adjustment unit delays the notification of completion for a duration indicated by the time gap; and an access completion notification unit configured to notify the application that the process of accessing the first storage is completed after the adjustment process. a first storage with a first access speed; an AP execution unit configured to execute an application designed to perform a synchronization process between data processing and access to storage, on the assumption that the speed of access to storage will be that of an access speed of a second storage with a second access speed which is different from the first access speed; an access request acknowledging unit configured to acknowledge a request for access to the first storage from the AP execution unit; an access execution unit configured to perform a process of accessing the first storage in response to the request for access; an access time estimation unit configured to estimate the required time needed to perform a process of accessing the second storage in response to the request for access, in accordance with an evaluation function for calculating the required time; an adjustment unit configured to make an adjustment process to fill a time gap between a record time required to perform a process of accessing the first storage and a required estimated time to perform a process of accessing the second storage, wherein, if the record time is shorter than the estimated time by a predetermined duration or longer, the adjustment unit delays the notification of completion for a duration indicated by the time gap; and an access completion notification unit configured to notify the application that the process of accessing the first storage is completed after the adjustment process.
Panel curtain device with a ceiling track with at least one run channel, with a carrier, which on the one hand is provided with guide elements for movably mounting the carrier in a run channel of the ceiling track and which on the other hand has a groove with a downwardly directed opening and with a curtain bar, wherein the curtain bar has a fastening surface for a curtain panel and wherein the curtain bar is connected to a fastening element, which is detachably held in the groove of the carrier, wherein a head extends above a support of the fastening element for holding in the groove of the carrier, characterised in that the head is formed as a hollow head with an asymmetric cross-section, wherein a forwardly directed bulge is formed more pronounced than a backwardly directed bulge, the head passes into the support via a neck piece, and the front side of the head or the neck is not connected to the support such that a gap-shaped opening results, which facilitates a snapping of the head into the groove of the carrier since the head can be compressed more strongly when it is inserted through the opening into the groove of the carrier from below along an insertion direction, wherein further, when the head of the fastening element is located in the groove, the head relaxes again and occupies its maximum width which is greater than the width (BÖ) of the opening of the carrier, the fastening element has a width in the region of the neck piece, which is adapted to the width (BÖ) of the opening, and the head is expanded forwards and backwards above the neck piece of the fastening element, wherein the bulges, ensure the holding of the fastening element on the carrier, in addition to the clamp connection of the neck piece.
Bearing arrangement and rotary inlet for a cooled roller, comprising - a bearing block; - a roller-shaped roller body for guiding and supporting a cast or rolled product having an, at least on the entry side, central coolant channel for a cooling medium; - at least one bearing for rotatably supporting the roller body in relation to the bearing block, wherein the forces are transmitted from the roller body via the bearing to the bearing block; - an outer bearing cover, which is detachably connected to the bearing block; - a stationary coolant tube, connected to the outer bearing cover, for introducing the cooling medium into the coolant channel of the roller body; - a sleeve-shaped sealing element having an inner and an outer contacting surface (11, 12), wherein the stationary coolant tube is connected to the roller body by the sleeve-shaped sealing element, wherein the inner contacting surface is sealingly connected to the stationary coolant tube and the outer contacting surface is sealingly connected to the rotating roller body, and wherein the sealing element has on its outer contacting surface at least one, preferably at least two, static seal(s), and on its inner contacting surface at least one, preferably at least two, dynamic seal(s); characterized in that the sealing element is arranged around a circumference of the coolant tube. - a bearing block; - a roller-shaped roller body for guiding and supporting a cast or rolled product having an, at least on the entry side, central coolant channel for a cooling medium; - at least one bearing for rotatably supporting the roller body in relation to the bearing block, wherein the forces are transmitted from the roller body via the bearing to the bearing block; - an outer bearing cover, which is detachably connected to the bearing block; - a stationary coolant tube, connected to the outer bearing cover, for introducing the cooling medium into the coolant channel of the roller body; - a sleeve-shaped sealing element having an inner and an outer contacting surface (11, 12), wherein the stationary coolant tube is connected to the roller body by the sleeve-shaped sealing element, wherein the inner contacting surface is sealingly connected to the stationary coolant tube and the outer contacting surface is sealingly connected to the rotating roller body, and wherein the sealing element has on its outer contacting surface at least one, preferably at least two, static seal(s), and on its inner contacting surface at least one, preferably at least two, dynamic seal(s);
An assembly of two adjacent angular sectors of a fixed blade ring of a turbomachine, in particular of a stator vane or a turbine stator, each sector extending at a predetermined angle about an axis A of the fixed blade ring and comprising, with respect to the axis A of said fixed blade ring, a radially outer platform, a radially inner platform, at least two vanes extending between said platforms (38a, 40a), and at least one block of honeycomb abradable material extending inwardly of the inner platform between transverse ends of the sector, characterized in that the block of abradable material of each angular sector comprises at least one transverse end wall which is shaped according to a toothed profile (54a1, 54a2) comprising at least one tooth (56a1, 56a2) of radial orientation, extending along an entire radial thickness of said block, in that said at least one transverse end wall of said adjacent angular sectors face one another, and in that said toothed profiles (54a1, 54a2) are complementary.
An electrochromic thermoplastic composition comprising: about 10 wt% to about 60 wt% of a poly(vinyl alcohol), a poly(acrylic acid),a poly(acrylic acid) salt, a polyaniline salt, a poly(diallyl dimethyl ammonium chloride), a poly(ethylene-co-acrylic acid), a co-polymer of any two or more thereof, or a mixture of any two or more thereof; about 40 wt% to about 90 wt% of a protic solvent; and at least one cathodic material comprising a viologen; and at least one anodic material; wherein the composition is substantially void of lithium chloride, tetrabutylammonium bromide, lithium bis(trifluoromethanesulfonyl)imide, lithium triflate, and lithium hexafluorophosphate. about 10 wt% to about 60 wt% of a poly(vinyl alcohol), a poly(acrylic acid),a poly(acrylic acid) salt, a polyaniline salt, a poly(diallyl dimethyl ammonium chloride), a poly(ethylene-co-acrylic acid), a co-polymer of any two or more thereof, or a mixture of any two or more thereof; about 40 wt% to about 90 wt% of a protic solvent; and at least one cathodic material comprising a viologen; and at least one anodic material; wherein the composition is substantially void of lithium chloride, tetrabutylammonium bromide, lithium bis(trifluoromethanesulfonyl)imide, lithium triflate, and lithium hexafluorophosphate.
A wall or ceiling feedthrough for a plastic tube, comprising a strip made of a fire protection material that is arranged on the plastic tube, and comprising a collar for fixing the strip made of fire protection material on the plastic tube, characterized in that the strip made of fire protection material and the collar are only partially wound around the plastic tube.
A wound dressing for the treatment of chronic wounds or burns, comprising superabsorbent fibers of polyacrylates that are provided or impregnated with copper or copper ions.
An antibody that binds to an Aβ oligomer but not to an Aβ monomer, wherein the antibody is a monoclonal antibody and selected from the group consisting of: an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 69 as CDR1, the amino acid sequence of SEQ ID NO: 71 as CDR2, and the amino acid sequence of SEQ ID NO: 73 as CDR3 and an L chain having the amino acid sequence of SEQ ID NO: 75 as CDR1, the amino acid sequence of SEQ ID NO: 77 as CDR2, and the amino acid sequence of SEQ ID NO: 79 as CDR3; an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 65 as VH and an L chain having the amino acid sequence of SEQ ID NO: 67 as VL; and an antibody comprising an H chain having the amino acid sequence of SEQ ID NO: 61 and an L chain having the amino acid sequence of SEQ ID NO: 63. an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 69 as CDR1, the amino acid sequence of SEQ ID NO: 71 as CDR2, and the amino acid sequence of SEQ ID NO: 73 as CDR3 and an L chain having the amino acid sequence of SEQ ID NO: 75 as CDR1, the amino acid sequence of SEQ ID NO: 77 as CDR2, and the amino acid sequence of SEQ ID NO: 79 as CDR3; an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 65 as VH and an L chain having the amino acid sequence of SEQ ID NO: 67 as VL; and an antibody comprising an H chain having the amino acid sequence of SEQ ID NO: 61 and an L chain having the amino acid sequence of SEQ ID NO: 63.