mhurhangee/patent-ind-claim-en huggingface dataset:
A traffic volume prediction method, comprising: receiving (S210), by a first management device, a first message from a second management device, wherein the first message is used to request the first management device to perform traffic volume prediction, the first message comprises a predicted object, a traffic type, and prediction requirement information, and the prediction requirement information comprises a prediction granularity and/or a prediction period, wherein the prediction granularity comprises at least one of the following: a prediction area, a prediction service type, a prediction slice, a prediction cell, a prediction public land mobile communications network PLMN, or a prediction tenant; and determining (S220), by the first management device for the predicted object based on the prediction requirement information, a predicted traffic volume corresponding to the traffic type; wherein the predicted object comprises at least one of the following: a service, a network, a network element, a network function, or a cell; wherein the traffic type comprises at least one of the following: a quantity of users, user distribution, a user activation ratio, coverage, a throughput, a quantity of radio resource control RRC connections, a quantity of physical resource blocks PRBs, PRB usage, or load information. receiving (S210), by a first management device, a first message from a second management device, wherein the first message is used to request the first management device to perform traffic volume prediction, the first message comprises a predicted object, a traffic type, and prediction requirement information, and the prediction requirement information comprises a prediction granularity and/or a prediction period, wherein the prediction granularity comprises at least one of the following: a prediction area, a prediction service type, a prediction slice, a prediction cell, a prediction public land mobile communications network PLMN, or a prediction tenant; and determining (S220), by the first management device for the predicted object based on the prediction requirement information, a predicted traffic volume corresponding to the traffic type; wherein the predicted object comprises at least one of the following: a service, a network, a network element, a network function, or a cell; wherein the traffic type comprises at least one of the following: a quantity of users, user distribution, a user activation ratio, coverage, a throughput, a quantity of radio resource control RRC connections, a quantity of physical resource blocks PRBs, PRB usage, or load information. a service, a network, a network element, a network function, or a cell; wherein the traffic type comprises at least one of the following: a quantity of users, user distribution, a user activation ratio, coverage, a throughput, a quantity of radio resource control RRC connections, a quantity of physical resource blocks PRBs, PRB usage, or load information.
A method of preventing an occurrence of a downlink transmission or reception, Tx/Rx, beam mismatch by a user equipment, UE, in a beamforming system, the method comprising: receiving a downlink reference signal; selecting a downlink Tx/Rx beam based on the received downlink reference signal; determining that there is a possibility of the occurrence of the Tx/Rx beam mismatch based on determining that the selected downlink Tx/Rx beam having a capability equal to or larger than a first value is different from a previously selected downlink Tx/Rx beam having a capability equal to or smaller than a second value, or that a frequency with which the selected downlink Tx/Rx beam is changed per second is equal to or larger than a third value; and performing an operation to prevent the occurrence of the Tx/Rx beam mismatch in response to determining that there is the possibility of the occurrence of the Tx/Rx beam mismatch, wherein the operation comprises an operation of reducing a selection period of the downlink Tx/Rx beam. receiving a downlink reference signal; selecting a downlink Tx/Rx beam based on the received downlink reference signal; determining that there is a possibility of the occurrence of the Tx/Rx beam mismatch based on determining that the selected downlink Tx/Rx beam having a capability equal to or larger than a first value is different from a previously selected downlink Tx/Rx beam having a capability equal to or smaller than a second value, or that a frequency with which the selected downlink Tx/Rx beam is changed per second is equal to or larger than a third value; and performing an operation to prevent the occurrence of the Tx/Rx beam mismatch in response to determining that there is the possibility of the occurrence of the Tx/Rx beam mismatch, wherein the operation comprises an operation of reducing a selection period of the downlink Tx/Rx beam.
Double cup-shaped piston , for a disc brake comprising an electromechanical parking brake apparatus, there being a piston wall which is provided to be seated with a free edge firstly on a rear plate of a friction lining , and the piston having secondly, emanating from a piston head , an integral dome which, diametrically with respect to the edge of the piston , configures an open receptacle for an actuating apparatus (SV) of the electromechanical parking brake apparatus, at least one portion of a dome wall being of non-round, profiled configuration for positively locking action on the electromechanical actuating apparatus (SV), and at least one portion of the dome wall being configured with a cone for pressure force input via the actuating apparatus (SV).
A method for assessing the profile of a tool (50;80; 170) using a non-contact tool setting apparatus comprising a transmitter for emitting a light beam (12;152) and a receiver for receiving the light beam, the receiver generating a beam intensity signal describing the intensity of received light, the non-contact tool setting apparatus being mounted to a coordinate positioning apparatus that allows the tool to be moved relative to the non-contact tool setting apparatus, the method comprising the steps of; (i) using the coordinate positioning apparatus to move the tool relative to the non-contact tool setting apparatus along a tool inspection path (56;88), the tool inspection path being selected so that the light beam (12; 152) is traced substantially along a periphery of the tool to be inspected, (ii) collecting beam intensity data describing the beam intensity signal that is generated by the receiver as the tool inspection path of step (i) is traversed, and (iii) analysing the beam intensity data collected in step (ii) to assess the tool profile. (i) using the coordinate positioning apparatus to move the tool relative to the non-contact tool setting apparatus along a tool inspection path (56;88), the tool inspection path being selected so that the light beam (12; 152) is traced substantially along a periphery of the tool to be inspected, (ii) collecting beam intensity data describing the beam intensity signal that is generated by the receiver as the tool inspection path of step (i) is traversed, and (iii) analysing the beam intensity data collected in step (ii) to assess the tool profile.
A near-eye displaying method capable of multiple depths of field imaging, whereby the method comprises the steps of: more pixels of a self-emissive display emitting a light to a collimator such that the light passing through the collimator is collimated to form a collimated light; and providing at least one collimated light direction altering unit on a path of the light from the collimator to change direction of the collimated light to enable the collimated light from at least two pixels to intersect and focus at different locations so as to vary a depth of field continuously, to display multiple virtual images to achieve multiple depths of field imaging, wherein the collimated light direction altering unit is a liquid crystal spatial light modulator comprising a plurality of liquid crystal cells , a driving voltage of a liquid crystal cell of the collimated light direction altering unit remains constant, and a driving voltage of at least another different liquid crystal cell is changed so that two collimated lights intersect at different locations and create foci to produce an image having multiple depths of field. more pixels of a self-emissive display emitting a light to a collimator such that the light passing through the collimator is collimated to form a collimated light; and providing at least one collimated light direction altering unit on a path of the light from the collimator to change direction of the collimated light to enable the collimated light from at least two pixels to intersect and focus at different locations so as to vary a depth of field continuously, to display multiple virtual images to achieve multiple depths of field imaging, wherein the collimated light direction altering unit is a liquid crystal spatial light modulator comprising a plurality of liquid crystal cells , a driving voltage of a liquid crystal cell of the collimated light direction altering unit remains constant, and a driving voltage of at least another different liquid crystal cell is changed so that two collimated lights intersect at different locations and create foci to produce an image having multiple depths of field.
An indoor unit of an air-conditioning apparatus comprising: a fan ; a heat exchanger that is disposed so as to surround an upper side and a front side of the fan ; a nozzle that is disposed on a lower side of the heat exchanger that is located on a front side of the fan so as to face the fan ; and a stabilizer that is disposed on a surface of the nozzle which faces the fan along part of an outer periphery of the fan , wherein the stabilizer has a tip portion at a boundary between the stabilizer and the nozzle and a projection on a lower side of the tip portion , a first recess is formed between the projection and the tip portion in a continuously recessed shape in the longitudinal direction of the fan , and the stabilizer has a rounded section which is in a convex shape curved toward the fan at a boundary between the stabilizer and an outlet air channel which is disposed on a lower side of the fan , a plurality of vertical grooves are arranged in a longitudinal direction of the fan on the rounded section , vertical groove ribs are formed on the plurality of vertical grooves with positions of the vertical groove ribs being regularly displaced in an oblique direction along the outer periphery of the fan , and a third recess is formed by the vertical groove ribs which are located on part of the vertical grooves . a fan ; a heat exchanger that is disposed so as to surround an upper side and a front side of the fan ; a nozzle that is disposed on a lower side of the heat exchanger that is located on a front side of the fan so as to face the fan ; and a stabilizer that is disposed on a surface of the nozzle which faces the fan along part of an outer periphery of the fan , wherein the stabilizer has a tip portion at a boundary between the stabilizer and the nozzle and a projection on a lower side of the tip portion , a first recess is formed between the projection and the tip portion in a continuously recessed shape in the longitudinal direction of the fan , and the stabilizer has a rounded section which is in a convex shape curved toward the fan at a boundary between the stabilizer and an outlet air channel which is disposed on a lower side of the fan , a plurality of vertical grooves are arranged in a longitudinal direction of the fan on the rounded section , vertical groove ribs are formed on the plurality of vertical grooves with positions of the vertical groove ribs being regularly displaced in an oblique direction along the outer periphery of the fan , and a third recess is formed by the vertical groove ribs which are located on part of the vertical grooves .
A micro scale method for separating cell-bead complexes, said cell-bead complexes comprising cells, ligands and beads, from a mixture of different types of cells in a suspension, said suspension further comprising a suspending liquid, comprising the steps of; i) subjecting said suspension to pressure, wherein said pressure forces said suspension into at least one inlet and into at least one channel present on a microfluidic chip, ii) forcing said suspension through the side branches of a trifurcated inlet while forcing cell free acoustic step gradient liquid, said acoustic step gradient liquid having physical properties which are different from the physical properties of the suspending liquid, through the central branch of said trifurcated inlet simultaneously into at least one separation channel, wherein said suspension is pushed by hydrodynamic forces towards the walls of the separation channel, iii) subjecting said mixture of different cells and said cell-bead complexes to a one dimensional acoustic force directed perpendicular to the length direction towards the center of the separation channel and iv) collecting said cell-bead complexes at the end of the separation channel present on the microfluidic chip through at least one first outlet , v) collecting said mixture of different types of cells at the end of the separation channel present on the microfluidic chip through at least one second outlet . i) subjecting said suspension to pressure, wherein said pressure forces said suspension into at least one inlet and into at least one channel present on a microfluidic chip, ii) forcing said suspension through the side branches of a trifurcated inlet while forcing cell free acoustic step gradient liquid, said acoustic step gradient liquid having physical properties which are different from the physical properties of the suspending liquid, through the central branch of said trifurcated inlet simultaneously into at least one separation channel, wherein said suspension is pushed by hydrodynamic forces towards the walls of the separation channel, iii) subjecting said mixture of different cells and said cell-bead complexes to a one dimensional acoustic force directed perpendicular to the length direction towards the center of the separation channel and iv) collecting said cell-bead complexes at the end of the separation channel present on the microfluidic chip through at least one first outlet , v) collecting said mixture of different types of cells at the end of the separation channel present on the microfluidic chip through at least one second outlet .
Electric motor vehicle coolant pump comprising a housing with a pump unit and with a motor unit , wherein the motor unit comprises a motor rotor , which is supported in the housing by bearing means , and comprises a motor stator , wherein the motor rotor comprises an impeller member and a drive member having an axis of rotation , the drive member extending in an axial direction, wherein blade elements of the pump unit are arranged on the impeller member , wherein inlet and outlet openings are provided in the pump unit , the inlet and outlet openings having respective central axes and allowing a cooling fluid of the pump unit to flow through the motor unit , wherein the outlet openings of the pump unit are provided in the impeller member , wherein the outlet openings are provided in the motor rotor , wherein central axes of the outlet openings , viewed in an outlet direction, define an angle between α = 10° and α = 135° with a projection of the axis of rotation into the respective outlet opening , characterized in that the outlet openings extend substantially in a tangential direction with respect to the projected axis of rotation of the impeller member .
A method for producing a fiber reinforced plastic bolt comprising the steps of: winding a prepreg having a shape of a sheet and a thickness of 0.02 to 2.5 mm 2 to 50 times around a surface of an internal body , wherein the internal body includes a first reinforcing fiber which is unidirectionally aligned along the axis of the bolt, and a synthetic resin which is impregnated into the first reinforcing fiber, and the prepreg includes a second reinforcing fiber and a thermosetting resin which is impregnated into the second reinforcing fiber; forming a fiber reinforced plastic round bar by heat-hardening the prepreg; and forming a screw thread on the outer surface of the fiber reinforced plastic round bar by grinding the hardened prepreg layer , wherein the second reinforcing fiber is selected from the group consisting of carbon fiber, glass fiber, aramid fiber, and mixtures thereof, and a shape of the second reinforcing fiber is selected from the group consisting of fabric which is woven with long fiber, multidirectionally aligned short staple or monofilament sheet, non-woven fabric of short staple or monofilament, and mixtures thereof. winding a prepreg having a shape of a sheet and a thickness of 0.02 to 2.5 mm 2 to 50 times around a surface of an internal body , wherein the internal body includes a first reinforcing fiber which is unidirectionally aligned along the axis of the bolt, and a synthetic resin which is impregnated into the first reinforcing fiber, and the prepreg includes a second reinforcing fiber and a thermosetting resin which is impregnated into the second reinforcing fiber; forming a fiber reinforced plastic round bar by heat-hardening the prepreg; and forming a screw thread on the outer surface of the fiber reinforced plastic round bar by grinding the hardened prepreg layer , wherein the second reinforcing fiber is selected from the group consisting of carbon fiber, glass fiber, aramid fiber, and mixtures thereof, and a shape of the second reinforcing fiber is selected from the group consisting of fabric which is woven with long fiber, multidirectionally aligned short staple or monofilament sheet, non-woven fabric of short staple or monofilament, and mixtures thereof.
A bio-nanoparticle (BNP) comprising a hepadnaviral envelope HBsAg-S fusion protein comprising one or more antigenic epitope repeat regions, wherein said antigenic epitope repeat regions are selected from the group consisting of antigenic epitopes expressed in the Loop 1 and Loop 2 regions of HBsAg-S domain.
Method for determining the severity of a possible collision between a motor vehicle and another vehicle , in which sensor data which describe the other vehicle are received from at least one sensor of the motor vehicle by means of a control apparatus , a change in velocity which describes a difference between a velocity (V 1 ) of the motor vehicle before the collision and a collision velocity (V c ) of the motor vehicle after the collision is determined on the basis of the sensor data, and the severity of the possible collision is determined on the basis of the determined change in velocity, wherein a mass (m 2 ) of the other vehicle is estimated by means of the control apparatus on the basis of the sensor data, and the severity of the possible collision is additionally determined on the basis of the estimated mass (m 2 ), characterized in that the sensor data describe at least one outer surface of the other vehicle , by means of the control apparatus external dimensions of the other vehicle are determined on the basis of the sensor data, and the mass (m 2 ) of the other vehicle is estimated on the basis of the determined external dimensions of the other vehicle , in that the other vehicle is assigned to a predetermined vehicle class on the basis of the sensor data, and the mass (m 2 ) of the other vehicle is determined on the basis of the assigned vehicle class, and in that a maximum steering lock (s l , s r ) of the other vehicle is determined on the basis of the sensor data, and the severity of the possible collision is determined on the basis of the determined steering lock (s l , s r ).
A system, comprising: a linear synchronous motor (LSM) including a rotor comprising alternating pole permanent magnets , with each permanent magnet being secured to rotor panels of a roller coaster track , wherein the rotor panels form an articulated spine, such that each portion that contains a permanent magnet forms a vertebra of the spine and the vertebrae are separated by a flexible substrate that allows the spine to bend around a helix's arc of a compound curve, wherein the rotor is installed on two sides of a compound curved portion of the roller coaster track , and a stator comprising linear coil windings secured to the bottom of a ride vehicle disposed on the track , the ride vehicle comprising: a power source ; and a processor configured to determine how much power to supply to the linear coil windings and when to supply the power to maintain sufficient air gaps between the stator and the rotor panels and to cause the power source to supply the power as determined throughout the compound curved portion of the roller coaster track . a power source ; and a processor configured to determine how much power to supply to the linear coil windings and when to supply the power to maintain sufficient air gaps between the stator and the rotor panels and to cause the power source to supply the power as determined throughout the compound curved portion of the roller coaster track .
A recyclable composite packaging structure including a fiber-containing layer and a mineral-containing layer, obtainable by the method comprising: extrusion coating the mineral-containing layer onto the fiber-containing layer using a mineral-containing resin having mineral particles interspersed within a polyolefin bonding agent, wherein the mineral-containing layer has a density from 1.22 g/cm 3 to 1.41 g/cm 3 , measured according to ASTM D1501-03; wherein the extrusion process is carried out under the following conditions: the resin having a melt flow index from 4 g/10 min. to 16 g/10 min., measured according to ASTM D1238-04; a melt temperature from 226.7 °C to 337.8 °C (440° F to 640° F); an extruder screw or tube barrel pressure from 8,274 - 17,237 kPa (1,200 psi to 2,500 psi); an air gap from 10.16 cm (4") to 40.64 cm (16"); a die gap from 0.51 mm (0.020") to 1.27 mm (0.050"); barrel and die zone temperatures from 204.5 °C to 337.8 °C (400° F to 640° F); an extrusion line speed from 0.51 m/s (100 FPM) to 17.78 m/s (3,500 FPM); and an extrusion lamination line speed from 0.51 m/s (100 FPM) to 17.78 m/s (3,500 FPM). extrusion coating the mineral-containing layer onto the fiber-containing layer using a mineral-containing resin having mineral particles interspersed within a polyolefin bonding agent, wherein the mineral-containing layer has a density from 1.22 g/cm 3 to 1.41 g/cm 3 , measured according to ASTM D1501-03; wherein the extrusion process is carried out under the following conditions: the resin having a melt flow index from 4 g/10 min. to 16 g/10 min., measured according to ASTM D1238-04; a melt temperature from 226.7 °C to 337.8 °C (440° F to 640° F); an extruder screw or tube barrel pressure from 8,274 - 17,237 kPa (1,200 psi to 2,500 psi); an air gap from 10.16 cm (4") to 40.64 cm (16"); a die gap from 0.51 mm (0.020") to 1.27 mm (0.050"); barrel and die zone temperatures from 204.5 °C to 337.8 °C (400° F to 640° F); an extrusion line speed from 0.51 m/s (100 FPM) to 17.78 m/s (3,500 FPM); and an extrusion lamination line speed from 0.51 m/s (100 FPM) to 17.78 m/s (3,500 FPM). the resin having a melt flow index from 4 g/10 min. to 16 g/10 min., measured according to ASTM D1238-04; a melt temperature from 226.7 °C to 337.8 °C (440° F to 640° F); an extruder screw or tube barrel pressure from 8,274 - 17,237 kPa (1,200 psi to 2,500 psi); an air gap from 10.16 cm (4") to 40.64 cm (16"); a die gap from 0.51 mm (0.020") to 1.27 mm (0.050"); barrel and die zone temperatures from 204.5 °C to 337.8 °C (400° F to 640° F); an extrusion line speed from 0.51 m/s (100 FPM) to 17.78 m/s (3,500 FPM); and an extrusion lamination line speed from 0.51 m/s (100 FPM) to 17.78 m/s (3,500 FPM).