mhurhangee/patent-ind-claim-en huggingface dataset:
A package formed of flexible polymeric film, enclosing and wrapping a stack of folded disposable absorbent articles having an approximate rectangular cuboid shape, the package comprising: a) front , rear , first and second side walls and a top and bottom surface , defining an approximate rectangular cuboid shape; b) at least one seam extending from the top to the bottom surfaces of one of said side walls; c) a first perforation line extending from said seam partway along the front wall; d) a second perforation line extending from said seam partway along the rear wall; and characterised by e) a stress dispersion area between the first perforation line and said second perforation line, wherein said stress dispersion area extends over said seam and is at least 8 mm long. a) front , rear , first and second side walls and a top and bottom surface , defining an approximate rectangular cuboid shape; b) at least one seam extending from the top to the bottom surfaces of one of said side walls; c) a first perforation line extending from said seam partway along the front wall; d) a second perforation line extending from said seam partway along the rear wall; and characterised by e) a stress dispersion area between the first perforation line and said second perforation line, wherein said stress dispersion area extends over said seam and is at least 8 mm long.
A connecting rod , in particular for a turbomachine, comprising an intermediate body of generally elongated shape and connected at its longitudinal ends to connecting heads comprising orifices whose axes (A) are for example substantially parallel, said heads being assembled or integrally formed with at least one part of said body and at least one of them comprising, about the axis of its orifice, an alveolar annular part forming a vibratory filter and having a flexural and/or compressive deformation capacity greater than that of the rest of the connecting rod and in particular that of said body, characterized in that said annular part comprises a lattice-shaped structure.
A method performed by a performance recommender for a wireless network, the method comprising: obtaining input data for each of a plurality of cells in the wireless network, the input data comprising actual values for one or more cell configuration parameters and at least one of time-series data representing a plurality of key performance indicators, KPIs, at a plurality of time points and a root cause identity of a performance issue associated with the cell; applying a machine-learning model to the input data to generate, for at least a portion of the cells, one or more recommendations for changes to the cell configuration parameter values to improve an uplink, UL, performance in the respective cells; based on identifying conflicts between recommendations for different cells, partitioning the plurality of cells into a plurality of interaction areas of neighboring cells; resolving conflicts in recommendations for respective cells within each of the interaction areas and across different interaction areas; and for at least a portion of the cells, determining preferred values for the cell configuration parameters to improve the UL performance in the respective cells. obtaining input data for each of a plurality of cells in the wireless network, the input data comprising actual values for one or more cell configuration parameters and at least one of time-series data representing a plurality of key performance indicators, KPIs, at a plurality of time points and a root cause identity of a performance issue associated with the cell; applying a machine-learning model to the input data to generate, for at least a portion of the cells, one or more recommendations for changes to the cell configuration parameter values to improve an uplink, UL, performance in the respective cells; based on identifying conflicts between recommendations for different cells, partitioning the plurality of cells into a plurality of interaction areas of neighboring cells; resolving conflicts in recommendations for respective cells within each of the interaction areas and across different interaction areas; and for at least a portion of the cells, determining preferred values for the cell configuration parameters to improve the UL performance in the respective cells.
Joint for joining together drill string components in the form of drill rods or shank adapters for percussion drilling, wherein each drill string component extends along an axial direction (A), and wherein, in operation, impact shock waves and rotation torque are arranged to be transferred via the joint, the joint including a male part and a female part having meeting impact surfaces , characterized in - that the male part exhibits: i. first rotation torque transfer means , and ii. first axial coupling means , - that the female part exhibits: iii. second rotation torque transfer means , and iv. second axial coupling means , - wherein the first and second rotation torque transfer means extend on the respective male and female parts such, and - wherein the first and second axial coupling means are positioned such, that when the drill string is subjected to rotation torque for drilling, relative axial movement is allowed between the male and the female parts when being in an interconnected state of co-operation between the first and second rotation torque transfer means - that the first and second axial coupling means include axial engagement means formed by radially directed protrusions on one of the male and the female parts, and - that the first and second axial coupling means include axial security coupling means, and that the axial security coupling means includes a thread coupling or a bayonet coupling. - that the male part exhibits: i. first rotation torque transfer means , and ii. first axial coupling means , i. first rotation torque transfer means , and ii. first axial coupling means , - that the female part exhibits: iii. second rotation torque transfer means , and iv. second axial coupling means , iii. second rotation torque transfer means , and iv. second axial coupling means , - wherein the first and second rotation torque transfer means extend on the respective male and female parts such, and - wherein the first and second axial coupling means are positioned such, - that the first and second axial coupling means include axial engagement means formed by radially directed protrusions on one of the male and the female parts, and - that the first and second axial coupling means include axial security coupling means, and that the axial security coupling means includes a thread coupling or a bayonet coupling.
A device intended to be fixed on the skin of a user, the device being substantially planar and characterized in that it comprise: - at least one flexible zone in which the device can be bent relative to two axes situated in the plane of the device and in which flexure-sensitive components are situated, - at least two flexure limiting means (31, 32; 41, 42; 51 to 54, 61 to 64; 71 to 76) to determined curve radius, extending along different directions, said flexure limiting means being configured to limit the flexure of said at least one flexible zone of the device relative to said at least two axes situated in the plane of the device. - at least one flexible zone in which the device can be bent relative to two axes situated in the plane of the device and in which flexure-sensitive components are situated, - at least two flexure limiting means (31, 32; 41, 42; 51 to 54, 61 to 64; 71 to 76) to determined curve radius, extending along different directions, said flexure limiting means being configured to limit the flexure of said at least one flexible zone of the device relative to said at least two axes situated in the plane of the device.
Method for testing the whole of the protection chain in a gas-insulation medium-voltage electrical protection appliance, said appliance comprising a circuit breaker, characterized in that it consists in placing upstream and downstream of the circuit breaker an upstream disconnector and a downstream disconnector respectively, said disconnectors being mounted in series with the circuit breaker , said circuit breaker including, downstream, a protection current sensor , then in a first step, after having opened the three devices, in connecting injecting means of a source of current at a so-called first electrical connection point (p) of the electrical circuit of the so-called upstream disconnector , then in a second step, after having closed the circuit breaker, in injecting a current at this first connection point (p), this current being intended to flow through the main circuit of the circuit breaker, then in a third step, at the same time as the current is injected in measuring the current flowing between this first connection point and a second connection point (q) situated on the electrical circuit of the second, so-called downstream, disconnector , the current during this test, flowing directly through this protection current sensor over its primary circuit, and finally in ensuring that the circuit breaker does indeed open at the desired value.
A ruthenium complex dye having a water content of 0.2% to 4.0% by mass, wherein the ruthenium complex dye is represented by Formula , in Formula , M represents a hydrogen ion or a cation; X 1 represents a nitrogen atom or CR 2 , in a case where X 1 is a nitrogen atom, X 2 represents a nitrogen atom, and in a case where X 1 is CR 2 , X 2 represents nitrogen atom or CR 3 ; R 1 to R 3 each represent a hydrogen atom, an alkyl group, a heteroaryl group, an aryl group, or a halogen atom; and G 1 represents an alkenyl group or a group having a structure represented by Formula (G1), in Formula (G1), R 4 represents an alkyl group, an alkynyl group, an alkenyl group, an alkoxy group, an alkylthio group, an amino group, a heteroaryl group, or an aryl group; R 5 represents a hydrogen atom, an alkyl group, an alkynyl group, an alkenyl group, an alkoxy group, an alkylthio group, an amino group, a heteroaryl group, or an aryl group; m represents an integer of 1 to 3; n represents an integer of 0 to 2; Y 1 represents an oxygen atom, a sulfur atom, NR f , a Se atom, CR f 2 , or SiR f 2 ; R f represents a hydrogen atom or an alkyl group; and ∗ represents a bonding moiety to the pyridine ring in Formula . wherein the ruthenium complex dye is represented by Formula , in Formula , M represents a hydrogen ion or a cation; X 1 represents a nitrogen atom or CR 2 , in a case where X 1 is a nitrogen atom, X 2 represents a nitrogen atom, and in a case where X 1 is CR 2 , X 2 represents nitrogen atom or CR 3 ; R 1 to R 3 each represent a hydrogen atom, an alkyl group, a heteroaryl group, an aryl group, or a halogen atom; and G 1 represents an alkenyl group or a group having a structure represented by Formula (G1), in Formula (G1), R 4 represents an alkyl group, an alkynyl group, an alkenyl group, an alkoxy group, an alkylthio group, an amino group, a heteroaryl group, or an aryl group; R 5 represents a hydrogen atom, an alkyl group, an alkynyl group, an alkenyl group, an alkoxy group, an alkylthio group, an amino group, a heteroaryl group, or an aryl group; m represents an integer of 1 to 3; n represents an integer of 0 to 2; Y 1 represents an oxygen atom, a sulfur atom, NR f , a Se atom, CR f 2 , or SiR f 2 ; R f represents a hydrogen atom or an alkyl group; and ∗ represents a bonding moiety to the pyridine ring in Formula .
A method for joint transmission, which is applied in a wireless local area network system comprising an initiating access point, AP, a coordinated AP pre-determined to participate in the joint transmission and a station, STA, wherein the method comprises: sending , by the initiating AP to the STA, a request to send message used for the joint transmission, wherein the request to send message comprises a joint transmission indication and address information of the coordinated AP; receiving, by the initiating AP, a clear to send message from the STA; sending , by the initiating AP, data to the STA after an interval of a first fixed time from receiving the clear to send message, wherein the first fixed time is same as a second fixed time, and where the second fixed time is a time interval between receiving the clear to send message and sending the data to the STA by the coordinated AP. sending , by the initiating AP to the STA, a request to send message used for the joint transmission, wherein the request to send message comprises a joint transmission indication and address information of the coordinated AP; receiving, by the initiating AP, a clear to send message from the STA; sending , by the initiating AP, data to the STA after an interval of a first fixed time from receiving the clear to send message, wherein the first fixed time is same as a second fixed time, and where the second fixed time is a time interval between receiving the clear to send message and sending the data to the STA by the coordinated AP.
A method for transmitting data in a communication system using beamforming, the method comprising: generating one or more control channel elements for scheduling data bursts in a subframe and determining a first transmission beam to be used for transmission of the control channel elements ; generating the data bursts corresponding to the control channel elements ; determining a second transmission beam based on a time gap between an encoding unit including a first control channel element among the control channel elements and a first data burst corresponding to the first control channel element among the data bursts; transmitting a control signal including the control channel elements in a control channel region of the subframe through the first transmission beam; and transmitting a first data signal carrying the first data burst in a first portion of a data region following the control channel region in the subframe through the second transmission beam, wherein each of the first, and second transmission beams is one of a plurality of transmission beams having different beam directions. generating one or more control channel elements for scheduling data bursts in a subframe and determining a first transmission beam to be used for transmission of the control channel elements ; generating the data bursts corresponding to the control channel elements ; determining a second transmission beam based on a time gap between an encoding unit including a first control channel element among the control channel elements and a first data burst corresponding to the first control channel element among the data bursts; transmitting a control signal including the control channel elements in a control channel region of the subframe through the first transmission beam; and transmitting a first data signal carrying the first data burst in a first portion of a data region following the control channel region in the subframe through the second transmission beam, wherein each of the first, and second transmission beams is one of a plurality of transmission beams having different beam directions.
A hydraulic system (H) for a motor vehicle, in particular commercial vehicle, with a pump and at least one functional device , which is fluidically connected to the pump , wherein the hydraulic system (H) has a protective configuration (S) which serves to protect the functional device from the effect of damage to and/or in the pump , characterized in that the protective configuration (S) ensures that the functional device is deactivated, is blocked in the deactivated state and/or is decoupled from the pump when a predefined safety criterion is met, and the safety criterion comprises the rotational speed of the pump reaching or exceeding a rotational speed limit.
A conveyor system , comprising - two frame profiles which run such that they are spaced apart from one another, - a plurality of motorized conveyor rollers arranged in between, - an insulator which runs along the at least one frame profile and - a plurality of electric conductors which are arranged in the insulator and are electrically connected to drive electronics of the conveyor rollers , wherein the form factor f of an electric conductor , which is defined as a quotient of the circumference of a circle which is equivalent in area to the cross section of the electric conductor and of the circumference of said cross section of the electric conductor , is in the range of from f= 0.88 to f=1.00, and - a connection box which is disposed separately from the conveyor roller , characterized in that the insulator comprises a plurality of receptacles which are open on the longitudinal side and one electric conductor is mounted in each receptacle, and the connection box is equipped with contacts which lie on the electric conductors in a spring-loaded and punctiform, linear or flat manner to establish an electrical connection to the drive electronics of the conveyor roller . - two frame profiles which run such that they are spaced apart from one another, - a plurality of motorized conveyor rollers arranged in between, - an insulator which runs along the at least one frame profile and - a plurality of electric conductors which are arranged in the insulator and are electrically connected to drive electronics of the conveyor rollers , wherein the form factor f of an electric conductor , which is defined as a quotient of the circumference of a circle which is equivalent in area to the cross section of the electric conductor and of the circumference of said cross section of the electric conductor , is in the range of from f= 0.88 to f=1.00, and - a connection box which is disposed separately from the conveyor roller , characterized in that
A method for producing a conductive ink for offset printing, characterized in that the method comprises: a) the preparation of an oily dispersion medium, in a percentage of 20 to 45% by total weight, formed by the mixture of: I. a solvent, in a percentage of 1 to 4% by total weight; II. an anti-drying additive, in a percentage of 7 to 17% by total weight, and III. a resin, in a percentage of 10 to 25% by total weight; b) adding, to the oily dispersion medium, metal particles with a size smaller than 3 microns, in a percentage of 55 to 80% by total weight, these particles being: IV. in a percentage of 55 to 80%, copper particles coated with silver, and V. in a percentage of 0 to 25%, silver particles; c) introducing the assembly into a three-cylinder mill for 15 to 60 minutes, until attaining finenesses smaller than 3 microns. a) the preparation of an oily dispersion medium, in a percentage of 20 to 45% by total weight, formed by the mixture of: I. a solvent, in a percentage of 1 to 4% by total weight; II. an anti-drying additive, in a percentage of 7 to 17% by total weight, and III. a resin, in a percentage of 10 to 25% by total weight; I. a solvent, in a percentage of 1 to 4% by total weight; II. an anti-drying additive, in a percentage of 7 to 17% by total weight, and III. a resin, in a percentage of 10 to 25% by total weight; b) adding, to the oily dispersion medium, metal particles with a size smaller than 3 microns, in a percentage of 55 to 80% by total weight, these particles being: IV. in a percentage of 55 to 80%, copper particles coated with silver, and V. in a percentage of 0 to 25%, silver particles; IV. in a percentage of 55 to 80%, copper particles coated with silver, and V. in a percentage of 0 to 25%, silver particles; c) introducing the assembly into a three-cylinder mill for 15 to 60 minutes, until attaining finenesses smaller than 3 microns.
A glass fiber-reinforced resin molded article, wherein glass fiber included in the glass fiber-reinforced resin molded article comprises a flat cross-sectional shape having a minor axis D1 in a range of 3.0 to 6.4 μm and a major axis D2 in a range of 11.0 to 26.0 μm, a number average fiber length L (μm) of the glass fiber included in the glass fiber-reinforced resin molded article is in a range of 150 to 300 μm, a glass fiber content C (wt%) in the glass fiber-reinforced resin molded article is in a range of 40.0 to 65.0 wt%, and the D1, D2, L, and C satisfy following formula : 260.0 ≤ C 2 × L / D 1 × D 2 2 ≤ 400.0 glass fiber included in the glass fiber-reinforced resin molded article comprises a flat cross-sectional shape having a minor axis D1 in a range of 3.0 to 6.4 μm and a major axis D2 in a range of 11.0 to 26.0 μm, a number average fiber length L (μm) of the glass fiber included in the glass fiber-reinforced resin molded article is in a range of 150 to 300 μm, a glass fiber content C (wt%) in the glass fiber-reinforced resin molded article is in a range of 40.0 to 65.0 wt%, and the D1, D2, L, and C satisfy following formula : 260.0 ≤ C 2 × L / D 1 × D 2 2 ≤ 400.0
A vehicle comprising: a multichannel light detection and ranging, LiDAR, sensor using a plurality of lasers with different frequencies for respective channels configured to acquire point cloud information for each of the channels on a surface of a surrounding ground of the vehicle; a communicator configured to communicate with an external server ; and a processor configured to: control the communicator to receive map data which is a single-channel map data (323-3) obtained by synthesizing reflectivity information for each channel of the multichannel laser, from the external server , multiply reflectivity information included in the point cloud information for each channel through the LiDAR sensor by a weight for each channel, synthesize the point cloud information into single-channel point cloud information by summing up the reflectivity information which is multiplied by the weight for each channel, and determine a position of the vehicle in the map data by matching the synthesized single-channel point cloud information and the single-channel map data (323-3). a multichannel light detection and ranging, LiDAR, sensor using a plurality of lasers with different frequencies for respective channels configured to acquire point cloud information for each of the channels on a surface of a surrounding ground of the vehicle; a communicator configured to communicate with an external server ; and a processor configured to: control the communicator to receive map data which is a single-channel map data (323-3) obtained by synthesizing reflectivity information for each channel of the multichannel laser, from the external server , multiply reflectivity information included in the point cloud information for each channel through the LiDAR sensor by a weight for each channel, synthesize the point cloud information into single-channel point cloud information by summing up the reflectivity information which is multiplied by the weight for each channel, and determine a position of the vehicle in the map data by matching the synthesized single-channel point cloud information and the single-channel map data (323-3). control the communicator to receive map data which is a single-channel map data (323-3) obtained by synthesizing reflectivity information for each channel of the multichannel laser, from the external server , multiply reflectivity information included in the point cloud information for each channel through the LiDAR sensor by a weight for each channel, synthesize the point cloud information into single-channel point cloud information by summing up the reflectivity information which is multiplied by the weight for each channel, and determine a position of the vehicle in the map data by matching the synthesized single-channel point cloud information and the single-channel map data (323-3).