mhurhangee/patent-ind-claim-en huggingface dataset:
A storage basket for radioactive materials , the basket being to be arranged into a containment enclosure of a packaging for transporting and/or warehousing radioactive materials, the basket defining a plurality of housings each for receiving radioactive materials , the housings being parallel to each other and each extending along a housing axis parallel to a longitudinal central axis of the basket, the latter including: - a transverse plate or a plurality of transverse plates distributed along the longitudinal central axis of the basket and arranged orthogonally to this axis, each plate having a plurality of holes passing therethrough; - a plurality of housing tubes arranged parallel to the longitudinal central axis of the basket, characterised in that the housing tubes are arranged alternately with the transverse plate(s) along the longitudinal central axis , so that the inner side surface of each housing is defined, successively along this axis , at least by the inner surface of a first housing tube , the inner surface of one of the holes of a first transverse plate , and the inner surface of a second housing tube . - a transverse plate or a plurality of transverse plates distributed along the longitudinal central axis of the basket and arranged orthogonally to this axis, each plate having a plurality of holes passing therethrough; - a plurality of housing tubes arranged parallel to the longitudinal central axis of the basket,
A three-dimensional object shaping device for shaping a three-dimensional object that is a laminated body of hardened layers made of a shaping material , in a horizontal shaping area which holds the shaping material hardened by irradiation of a light beam (L), wherein the three-dimensional object shaping device comprises plural pairs of shaping units, each shaping unit comprising: an irradiation device which irradiates the light beam (L) to an irradiation area in the shaping area from above the shaping area ; a movable shaping table which has the shaping area that is larger than the irradiation area ; and a moving device which moves the shaping table in a horizontal direction so as to change a position of the irradiation area in the shaping area , wherein: the thickness of the layer of the shaping material is 5-50μm; the square measures of the shaping areas S1 to the square measures of the irradiation area S2 is 1.5 ≤ (S1/S2) ≤ 3.0; the moving devices are configured to increase the acceleration of the respective shaping table as the mean or total mass of the shaping material increases, and are configured to move in one horizontal direction X; and the plural pairs of shaping units are juxtaposed in a horizontal direction Y orthogonal to the horizontal direction X and are operated independently of each other. an irradiation device which irradiates the light beam (L) to an irradiation area in the shaping area from above the shaping area ; a movable shaping table which has the shaping area that is larger than the irradiation area ; and a moving device which moves the shaping table in a horizontal direction so as to change a position of the irradiation area in the shaping area , wherein: the thickness of the layer of the shaping material is 5-50μm; the square measures of the shaping areas S1 to the square measures of the irradiation area S2 is 1.5 ≤ (S1/S2) ≤ 3.0; the moving devices are configured to increase the acceleration of the respective shaping table as the mean or total mass of the shaping material increases, and are configured to move in one horizontal direction X; and the plural pairs of shaping units are juxtaposed in a horizontal direction Y orthogonal to the horizontal direction X and are operated independently of each other. the thickness of the layer of the shaping material is 5-50μm; the square measures of the shaping areas S1 to the square measures of the irradiation area S2 is 1.5 ≤ (S1/S2) ≤ 3.0; the moving devices are configured to increase the acceleration of the respective shaping table as the mean or total mass of the shaping material increases, and are configured to move in one horizontal direction X; and the plural pairs of shaping units are juxtaposed in a horizontal direction Y orthogonal to the horizontal direction X and are operated independently of each other.
An XRF analyzer comprising: an emitter assembly adapted for emitting at least one X-ray or Gamma-ray excitation beam having a spatial intensity distribution for irradiating simultaneously a plurality of solid objects; wherein said emitter assembly comprises at least one of: (i) a plurality of spaced-apart emitters, each emitter being adapted to generate an excitation beam with a different intensity with respect to each other, (ii) an emitter and a spatial intensity beam modulator coupled to said emitter configured for spatially modulating intensity of the excitation beam such that the intensity impinging on each of the objects is different and identifiable; an X-ray detector adapted for measuring secondary radiation emitted by the plurality of objects and generating signals indicative of spatial intensity distribution of detected X-ray data on the plurality of objects; and a signal processor in communication with the detector configured for receiving and processing the detected response X-ray signals to identify which of the plurality of solid objects have a marking composition on at least one surface. an emitter assembly adapted for emitting at least one X-ray or Gamma-ray excitation beam having a spatial intensity distribution for irradiating simultaneously a plurality of solid objects; wherein said emitter assembly comprises at least one of: (i) a plurality of spaced-apart emitters, each emitter being adapted to generate an excitation beam with a different intensity with respect to each other, (ii) an emitter and a spatial intensity beam modulator coupled to said emitter configured for spatially modulating intensity of the excitation beam such that the intensity impinging on each of the objects is different and identifiable; an X-ray detector adapted for measuring secondary radiation emitted by the plurality of objects and generating signals indicative of spatial intensity distribution of detected X-ray data on the plurality of objects; and a signal processor in communication with the detector configured for receiving and processing the detected response X-ray signals to identify which of the plurality of solid objects have a marking composition on at least one surface.
Connecting element for the rotatable connection of a car body to a bogie of a rail vehicle, wherein the connecting element has a boundary surface which can be aligned with the car body and on which the car body at least partially rests when the connecting element is in the assembled state, characterised in that the connecting element has at least one channel-shaped recess in the boundary surface which runs through the entire boundary surface .
Lithium aluminium silicate glass-ceramic having a coefficient of thermal expansion in the range from 20°C to 700°C of -0.5 to 1.9 ppm/K and having a composition containing in % by weight based on oxide SiO 2 60 - 70 Al 2 O 3 17 - 25 Li 2 O 2.0 - 3.2 MgO 0 - 3 ZrO 2 >1.3 - 4 ZnO >3.2 - 7 SnO 2 0.1 - <1.0 P 2 O 5 0 - <1. having a coefficient of thermal expansion in the range from 20°C to 700°C of -0.5 to 1.9 ppm/K and having a composition containing in % by weight based on oxide SiO 2 60 - 70 Al 2 O 3 17 - 25 Li 2 O 2.0 - 3.2 MgO 0 - 3 ZrO 2 >1.3 - 4 ZnO >3.2 - 7 SnO 2 0.1 - <1.0 P 2 O 5 0 - <1.
Pressure medium assembly which is configured as a pneumatic brake cylinder, having a housing which is made from plastic, is manufactured by way of injection molding, and in the housing wall of which at least one connector socket with a through opening is fastened, through which through opening a feed and/or discharge of pressure medium into or out of the interior of the housing takes place, wherein the connector socket consists of at least one metal, and wherein the connector socket is configured for releasably fastening a connector stub of a hose or pipe line, which connector stub conducts the pressure medium, characterized in that the connector socket , with the exception of the through opening , is molded at least partially into the housing wall in a single work step during the injection molding of the housing .
A fluid compressor device comprising: a housing ; a rotating group supported for rotation within the housing about an axis , the rotating group including a compressor wheel ; an e-machine that is operably coupled to the rotating group and configured as at least one of a motor and a generator; and an integrated controller of the e-machine and supported by the housing, the integrated controller having an arcuate support structure that extends about the axis, the support structure having a seat that is disposed at a radial area of the arcuate support structure, the integrated controller having an electronics component supported on the seat, the integrated controller including a retainer clip , characterized in that the retainer clip is resiliently flexible between a neutral position and a flexed position, and the retainer clip is fixed to the support structure in the flexed position to retain the electronics component on the seat. a housing ; a rotating group supported for rotation within the housing about an axis , the rotating group including a compressor wheel ; an e-machine that is operably coupled to the rotating group and configured as at least one of a motor and a generator; and an integrated controller of the e-machine and supported by the housing, the integrated controller having an arcuate support structure that extends about the axis, the support structure having a seat that is disposed at a radial area of the arcuate support structure, the integrated controller having an electronics component supported on the seat, the integrated controller including a retainer clip , characterized in that the retainer clip is resiliently flexible between a neutral position and a flexed position, and the retainer clip is fixed to the support structure in the flexed position to retain the electronics component on the seat.
Process for the production of cement clinker or other mineral products and for the denitrification of bypass gases, wherein a bypass gas is branched off between a heat treatment device and at least one preheating device , wherein the bypass gas is cooled to a temperature between 800°C and 1,100°C by means of at least one coolant and an ammonia-containing reducing agent is introduced into the bypass gas in solid, aqueous and/or gaseous form to reduce the nitrogen oxides contained therein, characterised in that the ammonia-containing reducing agent is introduced into the bypass gas together with the at least one coolant .
A wall dehumidification system, comprising: - a generator for a magnetic or electromagnetic field ( E ) to be directed toward a wall structure to be dehumidified; - means for voltage powering said generator ; - an electronic control unit of said generator having a driving circuit supplied by said powering means and adapted to send to said generator a frequency driving signal ( S ) for generating said field ( E ); - impulsive adjusting means adapted to control said driving circuit for generating a pulse-type driving signal ( S ) for emitting an impulsive field ( E ) with variable frequency; wherein said adjusting means comprise a programmable clock generator adapted to generate a sequence of impulsive signals ( S ); characterized in that said impulsive signals ( S ) of said sequence have fixed width at different frequencies within said range and in that said impulsive adjusting means also comprise a programmable timer adapted to define the duty cycle of each of said impulsive signals ( S ), in such a manner to preset a multiplicity of different sequences, said driving circuit being adapted to send said impulsive signal ( S ) to said power stage with an adjustable frequency inside a predetermined range. - a generator for a magnetic or electromagnetic field ( E ) to be directed toward a wall structure to be dehumidified; - means for voltage powering said generator ; - an electronic control unit of said generator having a driving circuit supplied by said powering means and adapted to send to said generator a frequency driving signal ( S ) for generating said field ( E ); - impulsive adjusting means adapted to control said driving circuit for generating a pulse-type driving signal ( S ) for emitting an impulsive field ( E ) with variable frequency; wherein said adjusting means comprise a programmable clock generator adapted to generate a sequence of impulsive signals ( S );
A memory interface , comprising: a plurality of transmitters (112 ... 112(n)), wherein each of the plurality of transmitters (112 ...112(n)) is configured to transmit data to a memory device over a respective one of a plurality of I/O channels; a plurality of receivers (115 ...115(n)), wherein each of the plurality of receivers (115 ...115(n)) is coupled to a respective one of the plurality of transmitters (112 ...112(n)), and is configured to receive data from the memory device over the respective one of the plurality of I/O channels; and a plurality of flip-flops (130 ...(130(n)) located in close proximity to the plurality of receivers (115 ...115(n)), wherein each of the flip-flops (130 ...130(n)) is configured to capture data from an output of a respective one of the plurality of receivers (115 ...115(n)); wherein the plurality of receivers (115 ...115(n)) and the plurality of flip-flops (130 ...130(n)) are all grouped together into a receiver subsystem located away from the plurality of transmitters (112 ...112(n)), wherein the plurality of transmitters (112 ...112(n)) span a first distance, the receiver subsystem spans a second distance, and the first distance is at least five times longer than the second distance. a plurality of transmitters (112 ... 112(n)), wherein each of the plurality of transmitters (112 ...112(n)) is configured to transmit data to a memory device over a respective one of a plurality of I/O channels; a plurality of receivers (115 ...115(n)), wherein each of the plurality of receivers (115 ...115(n)) is coupled to a respective one of the plurality of transmitters (112 ...112(n)), and is configured to receive data from the memory device over the respective one of the plurality of I/O channels; and a plurality of flip-flops (130 ...(130(n)) located in close proximity to the plurality of receivers (115 ...115(n)), wherein each of the flip-flops (130 ...130(n)) is configured to capture data from an output of a respective one of the plurality of receivers (115 ...115(n)); wherein the plurality of receivers (115 ...115(n)) and the plurality of flip-flops (130 ...130(n)) are all grouped together into a receiver subsystem located away from the plurality of transmitters (112 ...112(n)), wherein the plurality of transmitters (112 ...112(n)) span a first distance, the receiver subsystem spans a second distance, and the first distance is at least five times longer than the second distance.
A dressing for use in treating a tissue site with negative pressure, the dressing comprising: a manifold having a first side configured to face the tissue site, a second side opposite the first side , a thickness between the first side and the second side , a first portion , and a second portion ; and a spacer fabric extending between the first portion and the second portion , the spacer fabric comprising: a first layer coupled to the first portion ; a second layer coupled to the second portion ; and a spacer layer extending between the first layer and the second layer ; wherein the first layer and the second layer are perpendicular to the first side of the manifold. a manifold having a first side configured to face the tissue site, a second side opposite the first side , a thickness between the first side and the second side , a first portion , and a second portion ; and a spacer fabric extending between the first portion and the second portion , the spacer fabric comprising: a first layer coupled to the first portion ; a second layer coupled to the second portion ; and a spacer layer extending between the first layer and the second layer ; a first layer coupled to the first portion ; a second layer coupled to the second portion ; and a spacer layer extending between the first layer and the second layer ; wherein the first layer and the second layer are perpendicular to the first side of the manifold.
A bituminous mix comprising at least 50 % by weight of aggregates, at least 8 % by weight of petroleum coke and at least one hydrocarbon binder.
A metal additive manufacturing method comprising: supplying a material to be deposited; melting the material by outputting an energy beam while the energy beam is being scanned; and irradiating a solidified portion of the material with a pulse laser having a power density of 10 12 W/cm 2 or more at an irradiation position thereby creating a plastic shock wave propagating in the solidified portion of the material , scanning the pulsed laser while maintaining a predetermined interval from the energy beam in order to have the solidified portion in a temperature lowering process after being melted and solidified and in a temperature range of 0.4T m ≤ T <T m , wherein T is a temperature of the material and T m is a melting point of the material . supplying a material to be deposited; melting the material by outputting an energy beam while the energy beam is being scanned; and irradiating a solidified portion of the material with a pulse laser having a power density of 10 12 W/cm 2 or more at an irradiation position thereby creating a plastic shock wave propagating in the solidified portion of the material , scanning the pulsed laser while maintaining a predetermined interval from the energy beam in order to have the solidified portion in a temperature lowering process after being melted and solidified and in a temperature range of 0.4T m ≤ T <T m , wherein T is a temperature of the material and T m is a melting point of the material .
A communication terminal , comprising: a receiver , which is configured to receive an aggregated-spectrum downlink signal comprising two or more component carriers in respective spectral bands; a transmitter , which is configured to transmit an uplink signal to a serving base station that serves the communication terminal; and control circuitry , which is configured to: evaluate respective channel measures of the two or more component carriers of the aggregated-spectrum downlink signal, including at least first and second different types of the channel measures; compute respective channel quality metrics of the component carriers based on the channel measures; compress the channel quality metrics, wherein separate compression is applied to the channel measures of each type and the channel quality metrics corresponding to the channel measures of the first type are jointly compressed separately from the channel quality metrics corresponding to the channel measures of the second type; and provide the compressed channel quality metrics to the transmitter, wherein the transmitter is further configured to transmit a report comprising the compressed channel quality metrics over the uplink to the serving base station. a receiver , which is configured to receive an aggregated-spectrum downlink signal comprising two or more component carriers in respective spectral bands; a transmitter , which is configured to transmit an uplink signal to a serving base station that serves the communication terminal; and control circuitry , which is configured to: evaluate respective channel measures of the two or more component carriers of the aggregated-spectrum downlink signal, including at least first and second different types of the channel measures; compute respective channel quality metrics of the component carriers based on the channel measures; compress the channel quality metrics, wherein separate compression is applied to the channel measures of each type and the channel quality metrics corresponding to the channel measures of the first type are jointly compressed separately from the channel quality metrics corresponding to the channel measures of the second type; and provide the compressed channel quality metrics to the transmitter, evaluate respective channel measures of the two or more component carriers of the aggregated-spectrum downlink signal, including at least first and second different types of the channel measures; compute respective channel quality metrics of the component carriers based on the channel measures; compress the channel quality metrics, wherein separate compression is applied to the channel measures of each type and the channel quality metrics corresponding to the channel measures of the first type are jointly compressed separately from the channel quality metrics corresponding to the channel measures of the second type; and provide the compressed channel quality metrics to the transmitter, wherein the transmitter is further configured to transmit a report comprising the compressed channel quality metrics over the uplink to the serving base station.
A drive with integrated dynamic load control, comprising: a mains-fed three-phase asynchronous motor having three phase legs in a star connection, the phase legs each including at least one field winding (L1, L2, L3) having a winding start on the phase conductor side and a winding end and being connected in a common neutral point ; a load control circuit having a regulating module and at least one first ammeter , at least one first voltmeter and at least one first and one second semiconductor switch (V1, V2); wherein the first ammeter is configured to detect a first phase current in a first phase leg of the motor , wherein the first voltmeter is configured to detect a first phase voltage at the first phase leg , and characterized in that the regulating module is configured to calculate an active power of the first phase leg and in particular a total active power of the motor by means of the first phase current and the first phase voltage; and wherein the first and second semiconductor switches (V1, V2) are arranged in two of the three phase legs between the respective winding end and the neutral point , and wherein the regulating module is configured to interrupt at least the two of the three phase legs by means of the first and second semiconductor switches (V1, V2) when the regulating module detects a faulty operating state by determining a limit value exceedance, and wherein the limit value exceedance is a limit value exceedance of the active power, the total active power or a torque calculated from the total active power. a mains-fed three-phase asynchronous motor having three phase legs in a star connection, the phase legs each including at least one field winding (L1, L2, L3) having a winding start on the phase conductor side and a winding end and being connected in a common neutral point ; a load control circuit having a regulating module and at least one first ammeter , at least one first voltmeter and at least one first and one second semiconductor switch (V1, V2); wherein the first ammeter is configured to detect a first phase current in a first phase leg of the motor , wherein the first voltmeter is configured to detect a first phase voltage at the first phase leg , and characterized in that the regulating module is configured to calculate an active power of the first phase leg and in particular a total active power of the motor by means of the first phase current and the first phase voltage; and wherein the first and second semiconductor switches (V1, V2) are arranged in two of the three phase legs between the respective winding end and the neutral point , and wherein the regulating module is configured to interrupt at least the two of the three phase legs by means of the first and second semiconductor switches (V1, V2) when the regulating module detects a faulty operating state by determining a limit value exceedance, and wherein the limit value exceedance is a limit value exceedance of the active power, the total active power or a torque calculated from the total active power.