mhurhangee/ep-ind-claims huggingface dataset:
An adsorption heat exchanger part comprising: a linear guiding element; and a plurality of planar structures that include fins, wherein each of the planar structures is: mounted on the linear guiding element via a joint element, the joint element configured to cooperate with the linear guiding element to form a slider joint, coated with an adsorbent coating, and fixed on the linear guiding element, at a respective position, by a fixing means that restricts linear sliding movement of each of the planar structures to form an arrangement of coated planar structures that are stacked along the linear guiding element, and characterised in that an average gap between each pair of consecutive ones of the fixed planar structures is between 500 and 900 μm, the gap measured along a longitudinal direction of the linear guiding element. a linear guiding element; and a plurality of planar structures that include fins, wherein each of the planar structures is: mounted on the linear guiding element via a joint element, the joint element configured to cooperate with the linear guiding element to form a slider joint, coated with an adsorbent coating, and fixed on the linear guiding element, at a respective position, by a fixing means that restricts linear sliding movement of each of the planar structures to form an arrangement of coated planar structures that are stacked along the linear guiding element, and characterised in that an average gap between each pair of consecutive ones of the fixed planar structures is between 500 and 900 μm, the gap measured along a longitudinal direction of the linear guiding element. mounted on the linear guiding element via a joint element, the joint element configured to cooperate with the linear guiding element to form a slider joint, coated with an adsorbent coating, and fixed on the linear guiding element, at a respective position, by a fixing means that restricts linear sliding movement of each of the planar structures to form an arrangement of coated planar structures that are stacked along the linear guiding element, and characterised in that an average gap between each pair of consecutive ones of the fixed planar structures is between 500 and 900 μm, the gap measured along a longitudinal direction of the linear guiding element.
A component of a gas turbine engine, the component being formed from a continuous fibre reinforced ceramic matrix composite; wherein the component is a seal segment for a shroud ring of a rotor of the engine, the seal segment being positioned, in use, radially adjacent the rotor; wherein the component has a sealing portion which, in use, makes sealing contact with an adjacent component of the engine, wherein sealing contact between the component and the adjacent component is effected by a flexible sealing member which conforms to the surface of the sealing portion, wherein the sealing portion comprises a recess formed in the CMC, characterised in that the sealing portion is filled with a finer grade ceramic relative to the surrounding CMC, a metal or an intermetallic, and in that the recess is a channel formed in a face of the segment.
A system for the automatic recognition of a material, comprising: - automatic recognition means of a material by impact, - a timing device, cooperating with said automatic recognition means, and - an architecture, said architecture comprising: - a reception device of acoustic waves (W i), adapted to receive a sound wave (W i with index i = 1,..., n) emitted by a material at a respective dropping impact on elastic means or drum; - a device for acquiring, processing and transferring information relating to one or more materials, recognized by said recognition means, said device being provided with a computing card, within a microprocessor or microcontroller, and with a memory card for periodically recording such information relating to one or more materials which are recognized (13, 14, 15) in a database; - a plurality of separation means (7, 9, 11), controlled by dedicated software means, for mutually separating the different materials, which was previously recognized (13, 14, 15), selected, weighted, and stored in specific containment means (23, 24, 25); - means for abating the energy consumption of the entire system, provided with dedicated software means to determine the shutdown of the calculating card of the microprocessor when it is not in use, as well as the automatic reactivation thereof following input by a user, and - means adapted to store information necessary for classifying the quantities of material progressively selected. - automatic recognition means of a material by impact, - a timing device, cooperating with said automatic recognition means, and - an architecture, said architecture comprising: - a reception device of acoustic waves (W i), adapted to receive a sound wave (W i with index i = 1,..., n) emitted by a material at a respective dropping impact on elastic means or drum; - a device for acquiring, processing and transferring information relating to one or more materials, recognized by said recognition means, said device being provided with a computing card, within a microprocessor or microcontroller, and with a memory card for periodically recording such information relating to one or more materials which are recognized (13, 14, 15) in a database; - a plurality of separation means (7, 9, 11), controlled by dedicated software means, for mutually separating the different materials, which was previously recognized (13, 14, 15), selected, weighted, and stored in specific containment means (23, 24, 25); - means for abating the energy consumption of the entire system, provided with dedicated software means to determine the shutdown of the calculating card of the microprocessor when it is not in use, as well as the automatic reactivation thereof following input by a user, and - means adapted to store information necessary for classifying the quantities of material progressively selected.
A semiconductor element comprising gallium nitride, the semiconductor element comprising: a semiconductor layer comprising a first surface comprising a first region and a second region that is a projecting portion having a strip shape and projecting relative to the first region or a recessed portion having a strip shape and being recessed relative to the first region, wherein, of the first surface, at least one of surfaces of the first region and the second region comprises a crystal plane comprising a plane orientation different from a plane orientation and a plane orientation, and the semiconductor layer further comprises a second surface opposite to the first surface, and the second surface has a ridge. a semiconductor layer comprising a first surface comprising a first region and a second region that is a projecting portion having a strip shape and projecting relative to the first region or a recessed portion having a strip shape and being recessed relative to the first region, wherein, of the first surface, at least one of surfaces of the first region and the second region comprises a crystal plane comprising a plane orientation different from a plane orientation and a plane orientation, and the semiconductor layer further comprises a second surface opposite to the first surface, and the second surface has a ridge.
A method for determining a surface condition of one or more wind turbine blades of a wind turbine comprising a rotor including a first wind turbine blade and one or more additional wind turbine blades (222, 223), the method comprising: rotating the wind turbine rotor under the influence of a wind in predetermined rotation conditions, wherein the predetermined rotation conditions include at least a predetermined constant pitch angle of the additional wind turbine blades (222, 223); determining a current value of one or more parameters of the wind turbine when rotating in the predetermined rotation conditions; and comparing the current value of the one or more parameters of the wind turbine with one or more reference values to determine the surface condition of the wind turbine blades, and wherein the predetermined rotation conditions comprise a predetermined pitch angle of the first blade, and the determined parameters of the wind turbine include speed of rotation or tip speed ratio, or wherein the predetermined rotation conditions comprise a predetermined rotor speed and the determined parameters of the wind turbine include a pitch angle of the first blade to maintain the predetermined rotor speed, or wherein the predetermined rotation conditions include a pitch angle of the first blade and a predetermined rotor speed, and the determined parameters of the wind turbine include a generator torque to maintain the predetermined rotor speed. rotating the wind turbine rotor under the influence of a wind in predetermined rotation conditions, wherein the predetermined rotation conditions include at least a predetermined constant pitch angle of the additional wind turbine blades (222, 223); determining a current value of one or more parameters of the wind turbine when rotating in the predetermined rotation conditions; and comparing the current value of the one or more parameters of the wind turbine with one or more reference values to determine the surface condition of the wind turbine blades, and wherein the predetermined rotation conditions comprise a predetermined pitch angle of the first blade, and the determined parameters of the wind turbine include speed of rotation or tip speed ratio, or wherein the predetermined rotation conditions comprise a predetermined rotor speed and the determined parameters of the wind turbine include a pitch angle of the first blade to maintain the predetermined rotor speed, or wherein the predetermined rotation conditions include a pitch angle of the first blade and a predetermined rotor speed, and the determined parameters of the wind turbine include a generator torque to maintain the predetermined rotor speed.
An apparatus for extruding dough, comprising a supporting frame, a hopper for feeding dough to be extruded, a pair of extractors (4a, 4b), which comprises a first extractor and a second extractor and is arranged downstream of said feeding hopper, at least one pair of calibration cylinders (5a, 5b) arranged downstream of said pair of extractors (4a, 4b), said pair of calibration cylinders (5a, 5b) comprising a first calibration cylinder arranged substantially below said first extractor and a second calibration cylinder arranged substantially below said second extractor, said pair of extractors (4a, 4b) and said pair of calibration cylinders (5a, 5b) having respective rotation axes (101, 102, 103, 104) which are substantially mutually parallel, and further comprising first adjustment means adapted to adjust the angular position of the rotation axis of said first extractor with respect to the rotation axis of said first calibration cylinder, second adjustment means adapted to adjust the angular position of the rotation axis of said second calibration cylinder with respect to the rotation axis of said second extractor and third adjustment means for adjusting the distance between the rotation axis of said second extractor and the rotation axis of said first calibration cylinder, characterized in that said third adjustment means are adapted to move the rotation axis of said second extractor along a substantially horizontal direction, said third adjustment means being associated with control means adapted to keep unchanged the distance between the axis of said second extractor and the axis of said first extractor.
Method for producing a semi-finished product in a continuous process and for processing so as to form a carbon fibre reinforced component, comprising at least the following steps: a. feeding carbon fibre cutting waste into an extruder; b. metering a plastics polymer into the extruder; c. comminuting the carbon fibre cutting waste immediately into the extruder and mixing the comminuted carbon fibre cutting waste and the plastics polymer so as to form a polymer mass; d. impregnating the polymer mass with a resin so as to form therefrom a recycled-material prepreg; e. forming the recycled-material prepreg to a defined shape upon exiting the extruder; f. impact-extruding the recycled-material prepreg brought to the defined shape in a press tool so as to form a semi-finished product with the approximate final contour, wherein the recycled-material prepreg for impact-extruding is fed to a shape-imparting cavity of a press tool and is pressed by means of a press die; and g. curing the semi-finished product in the press tool after the impact-extruding. a. feeding carbon fibre cutting waste into an extruder; b. metering a plastics polymer into the extruder; c. comminuting the carbon fibre cutting waste immediately into the extruder and mixing the comminuted carbon fibre cutting waste and the plastics polymer so as to form a polymer mass; d. impregnating the polymer mass with a resin so as to form therefrom a recycled-material prepreg; e. forming the recycled-material prepreg to a defined shape upon exiting the extruder; f. impact-extruding the recycled-material prepreg brought to the defined shape in a press tool so as to form a semi-finished product with the approximate final contour, wherein the recycled-material prepreg for impact-extruding is fed to a shape-imparting cavity of a press tool and is pressed by means of a press die; and g. curing the semi-finished product in the press tool after the impact-extruding.
A tractor in which a lift valve of a hydraulic system for lifting up/down a work machine is mechanically coupled to a lift lever, wherein conditions for engine startup are set as follows: a reverser lever is at a neutral position; a PTO clutch is disengaged; a seat switch is ON; and the lift lever is at a lowermost position, wherein an indicator plate indicating an "engine startable position" is provided at a position corresponding to the lowermost position of the lift lever. a reverser lever is at a neutral position; a PTO clutch is disengaged; a seat switch is ON; and the lift lever is at a lowermost position, wherein an indicator plate indicating an "engine startable position" is provided at a position corresponding to the lowermost position of the lift lever.
A Doppler ultrasound imaging device comprising: a signal conversion unit configured to transmit an ultrasound signal to an object and to receive the ultrasound signal reflected from the object, so as to convert the received ultrasound signal into an in-phase/quadrature-phase (I/Q) signal corresponding to each pixel of an image in an ultrasound image, and a control unit (120, 121, 122) configured to convert the I/Q signal into a frequency domain signal, characterised in that the control unit is further configured to compare magnitudes of a plurality of signal characteristic values of the converted I/Q signal with one another and to determine to remove a clutter element from the I/Q signal based on the compared result. a signal conversion unit configured to transmit an ultrasound signal to an object and to receive the ultrasound signal reflected from the object, so as to convert the received ultrasound signal into an in-phase/quadrature-phase (I/Q) signal corresponding to each pixel of an image in an ultrasound image, and a control unit (120, 121, 122) configured to convert the I/Q signal into a frequency domain signal, characterised in that the control unit is further configured to compare magnitudes of a plurality of signal characteristic values of the converted I/Q signal with one another and to determine to remove a clutter element from the I/Q signal based on the compared result.
An effect pigment comprising: (a) synthetic mica substrate; (b) calcined ferrite coating on the substrate; and (c) an outer layer or treatment over the calcined ferrite coating wherein • said outer layer or treatment was added to said calcined ferrite coated synthetic mica in water, • said ferrite is MFe 2 O 4 in which M is one or a mixture of metals such as zinc or copper, and • said synthetic mica substrate (a) is fluorophlogopite. (a) synthetic mica substrate; (b) calcined ferrite coating on the substrate; and (c) an outer layer or treatment over the calcined ferrite coating • said outer layer or treatment was added to said calcined ferrite coated synthetic mica in water, • said ferrite is MFe 2 O 4 in which M is one or a mixture of metals such as zinc or copper, and • said synthetic mica substrate (a) is fluorophlogopite.
An optical phase regeneration method of regenerating a phase of binary phase shift keying signal light, the method comprising: multiplexing the binary phase shift keying signal light (frequency: v s) and pump light (frequency: v p) at a predetermined mixing ratio, introducing the multiplexed signal light into a nonlinear optical element, and taking out the signal light and phase conjugate light (frequency: vi (-1)) by four-wave mixing; characterized by setting each light power of the signal light and the phase conjugate light to a predetermined same level in an optical amplifier; and performing power modulation of the signal light and the phase conjugate light which are set to be the same level, by using a half of a difference frequency between the signal light and the phase conjugate light as a modulation frequency, and generating interference signal light at the frequency v p of the pump light as phase-regenerated signal light in a light power modulator. multiplexing the binary phase shift keying signal light (frequency: v s) and pump light (frequency: v p) at a predetermined mixing ratio, introducing the multiplexed signal light into a nonlinear optical element, and taking out the signal light and phase conjugate light (frequency: vi (-1)) by four-wave mixing; characterized by setting each light power of the signal light and the phase conjugate light to a predetermined same level in an optical amplifier; and performing power modulation of the signal light and the phase conjugate light which are set to be the same level, by using a half of a difference frequency between the signal light and the phase conjugate light as a modulation frequency, and generating interference signal light at the frequency v p of the pump light as phase-regenerated signal light in a light power modulator.
A composition for use in a method of treating cancer in a patient in need thereof, the composition comprising therapeutic IgG monoclonal antibody mAb-AR20.5 specific to MUC1; polyIC, polyICLC; and an immune homeostatic checkpoint inhibitor being an anti-PDL-1 antibody.
A method of wireless communication at a user equipment, UE, comprising: receiving downlink control information, DCI, on a wireless channel, the DCI identifying a plurality of data blocks and an outer coded block associated with a multicast transmission or a broadcast transmission, and indicating that the outer coded block is coded according to an outer coding scheme; monitoring the wireless channel for the plurality of data blocks and the outer coded block based on the DCI identifying the plurality of data blocks and the outer coded block being coded according to the outer coding scheme; and decoding the plurality of data blocks based at least in part on the outer coding scheme and the outer coded block. receiving downlink control information, DCI, on a wireless channel, the DCI identifying a plurality of data blocks and an outer coded block associated with a multicast transmission or a broadcast transmission, and indicating that the outer coded block is coded according to an outer coding scheme; monitoring the wireless channel for the plurality of data blocks and the outer coded block based on the DCI identifying the plurality of data blocks and the outer coded block being coded according to the outer coding scheme; and decoding the plurality of data blocks based at least in part on the outer coding scheme and the outer coded block.
Method for real time navigation using three-carrier radio signals with discrete first, second and third frequencies, having increasing values ranging from said first to said third frequency, for determining the position of a user, referred to as a nomad, said radio signals being transmitted by a determined number of transmitters installed on-board satellites orbiting the terrestrial globe and in line of sight with said nomad, said signals being received by a receiver associated with said nomad, and a receiver associated with at least one earth station among a plurality of fixed earth stations, referred to as reference stations, said radio signals passing through a layer of the atmosphere, referred to as the ionospheric layer (C ION). surrounding said terrestrial globe and undergoing disturbances there causing phase ambiguities of said carriers, this method including at least the following steps: - a first step consisting in the determination, in said nomad, of the phase difference ambiguity between said third and second carriers, referred to as the "extra-long path", on the basis of a combination of pseudo-distances using a unique code value; - a second step consisting in the estimation, in said nomad, of the phase difference ambiguity between said first and second carriers, referred to as the "long path", on the basis of said "extra-long path" ambiguity determined during said first step; - a third step consisting, in said nomad, in the resolution of the ambiguity of one of said frequencies on the basis of said "long path" ambiguity estimated during said second step; this method being characterised in that it includes: an additional step consisting in the application of ionospheric corrections in real time during said third step, said ionospheric corrections being based on a constantly updated real-time ionospheric model of said ionospheric layer ( C ION). - a first step consisting in the determination, in said nomad, of the phase difference ambiguity between said third and second carriers, referred to as the "extra-long path", on the basis of a combination of pseudo-distances using a unique code value; - a second step consisting in the estimation, in said nomad, of the phase difference ambiguity between said first and second carriers, referred to as the "long path", on the basis of said "extra-long path" ambiguity determined during said first step; - a third step consisting, in said nomad, in the resolution of the ambiguity of one of said frequencies on the basis of said "long path" ambiguity estimated during said second step; this method being characterised in that it includes: an additional step consisting in the application of ionospheric corrections in real time during said third step, said ionospheric corrections being based on a constantly updated real-time ionospheric model of said ionospheric layer ( C ION). an additional step consisting in the application of ionospheric corrections in real time during said third step, said ionospheric corrections being based on a constantly updated real-time ionospheric model of said ionospheric layer ( C ION).