mhurhangee/ep-ind-claims huggingface dataset:
A method for adapting a beam shape of a beam in a wireless communication system, said communication system having multiple nodes (31, 32), wherein each node is provided with an antenna system configured to provide radio coverage in a cell by a cell specific beam (38, 39), the method perfomed by at least one of the nodes comprising: - obtaining information of users to be served by a given cell, and obtaining information of users that said given cell should avoid interfering with and that are served by other cells; - obtaining information of a spatial channel characteristics for each of said users to be served by said given cell, - obtaining aggregated information of spatial channel characteristics for users that said given cell should avoid interfering with, to estimate a long term interference characteristics; - calculating a transmit weight vector for each of said users to be served by said given cell based on the information of spatial channel characteristics for said user to be served by said given cell and the estimated long term interference characteristics; - performing phase normalization of the calculated transmit weight vector for each of said users to be served by said given cell; and - aggregating all transmit weight vectors of the users to serve to establish a common transmit weight vector used to form the beam shape for the cell specific beam. - obtaining information of users to be served by a given cell, and obtaining information of users that said given cell should avoid interfering with and that are served by other cells; - obtaining information of a spatial channel characteristics for each of said users to be served by said given cell, - obtaining aggregated information of spatial channel characteristics for users that said given cell should avoid interfering with, to estimate a long term interference characteristics; - calculating a transmit weight vector for each of said users to be served by said given cell based on the information of spatial channel characteristics for said user to be served by said given cell and the estimated long term interference characteristics; - performing phase normalization of the calculated transmit weight vector for each of said users to be served by said given cell; and - aggregating all transmit weight vectors of the users to serve to establish a common transmit weight vector used to form the beam shape for the cell specific beam.
A method for preparing 2-(2-(4-fluorobenzoyl)phenylamino)-3-(4-(2-( 9H -carbazol-9-yl) ethoxy)phenyl)propanoic acid, comprising the following steps: (a) reacting compound with compound, to give compound; (b) hydrolyzing compound to give compound; (c) acidifying compound with an acid, to give 2-(2-(4-fluorobenzoyl)phenylamino)-3-(4-(2-( 9H -carbazol-9-yl)ethoxy)phenyl)propanoic acid (a) reacting compound with compound, to give compound; (b) hydrolyzing compound to give compound; (c) acidifying compound with an acid, to give 2-(2-(4-fluorobenzoyl)phenylamino)-3-(4-(2-( 9H -carbazol-9-yl)ethoxy)phenyl)propanoic acid
A set for producing a threaded connection, comprising a first and a second tubular component each with an axis of revolution, one of their ends (1, 2) being provided with a threaded zone (3; 4) formed on the external or internal peripheral surface of the component depending on whether the threaded end is of the male or female type, said ends (1, 2) finishing in a terminal surface (7, 8), said threaded zones (3; 4) comprising, over a portion defined as being in a self-locking make-up, threads (32; 42) comprising, viewed in longitudinal section passing through the axis of revolution of the tubular components, a thread crest (35, 45), a thread root (36, 46), a load flank (30; 40) and a stabbing flank (31; 41), the width of the thread crests (35, 45) of each tubular component reducing in the direction of the terminal surface (7; 8) of the tubular component under consideration, while the width of the thread roots (36, 46) increases, characterized in that the lead of the male stabbing flanks and/or load flanks is respectively different from the lead of the female stabbing flanks and/or load flanks, the leads of said flanks remaining constant over said portion defined as being in a self-locking make-up.
A linear drive mechanism for a compact lightweight tool with a linear actuated working implement (350; 380; 400; 410; 500), comprising: a. a tool housing; b. a roller screw disposed inside said tool housing and configured to convert rotary motion from an electric motor to linear movement; c. a working implement (350; 380; 400; 410; 500) linked to said linear movement of said roller screw; d. a primary motor with a pinion gear; e. a multiple speed, self-adjusting gearbox disposed between said primary motor and said roller screw, said multiple speed gearbox includes a carrier ring coaxially aligned with said pinion, said carrier ring includes three inner planet gears that mesh with said pinion gear, said gearbox also includes an outer ring gear that meshes with said inner planetary gears; f. a secondary motor coupled to said outer ring gear that causes said outer ring gear to rotate in a direction opposite said planet gears; g. a torque sensor coupled to said secondary motor arranged to cause activation of said secondary motor when excessive load is exerted on said working implement; and, h. an electricity source connected to said primary motor and said secondary motor. a. a tool housing; b. a roller screw disposed inside said tool housing and configured to convert rotary motion from an electric motor to linear movement; c. a working implement (350; 380; 400; 410; 500) linked to said linear movement of said roller screw; d. a primary motor with a pinion gear; e. a multiple speed, self-adjusting gearbox disposed between said primary motor and said roller screw, said multiple speed gearbox includes a carrier ring coaxially aligned with said pinion, said carrier ring includes three inner planet gears that mesh with said pinion gear, said gearbox also includes an outer ring gear that meshes with said inner planetary gears; f. a secondary motor coupled to said outer ring gear that causes said outer ring gear to rotate in a direction opposite said planet gears; g. a torque sensor coupled to said secondary motor arranged to cause activation of said secondary motor when excessive load is exerted on said working implement; and, h. an electricity source connected to said primary motor and said secondary motor.
A method of routing a control plane message, the method comprising: a serving node receiving the control plane message from a device; the serving node sending a subscription information request to a home subscriber server, HSS, wherein the subscription information request is associated with the control plane message; the serving node receiving a subscription information reply from the HSS, wherein the subscription information reply comprises identity of a core networking node; and the serving node, using the identity of the core networking node, sending the control plane message to the core networking node for delivery to a service capability server, SCS. a serving node receiving the control plane message from a device; the serving node sending a subscription information request to a home subscriber server, HSS, wherein the subscription information request is associated with the control plane message; the serving node receiving a subscription information reply from the HSS, wherein the subscription information reply comprises identity of a core networking node; and the serving node, using the identity of the core networking node, sending the control plane message to the core networking node for delivery to a service capability server, SCS.
A composition comprising the admixture or reaction product resulting from combining: a first olefin polymerization catalyst, a second olefin polymerization catalyst capable of preparing polymers differing in chemical or physical properties from the polymer prepared by catalyst under equivalent polymerization conditions, at least one of catalyst or catalyst being capable of forming a branched polymer by means of chain walking or reincorporation of in situ formed olefinic polymer chains, and a chain shuttling agent, wherein catalyst correspond to the formula: wherein R 20 is an aromatic or inertly substituted aromatic group containing from 5 to 20 atoms not counting hydrogen, or a polyvalent derivative thereof; T 3 is a hydrocarbylene or silane group having from 1 to 20 atoms not counting hydrogen, or an inertly substituted derivative thereof; M 3 is a Group 4 metal, preferably zirconium or hafnium; G is an anionic, neutral or dianionic ligand group; preferably a halide, hydrocarbyl or dehydrocarbylamide group having up to 20 atoms not counting hydrogen; g is a number from 1 to 5 indicating the number of such G groups; and bonds and electron donative interactions are represented by lines and arrows respectively. a first olefin polymerization catalyst, a second olefin polymerization catalyst capable of preparing polymers differing in chemical or physical properties from the polymer prepared by catalyst under equivalent polymerization conditions, at least one of catalyst or catalyst being capable of forming a branched polymer by means of chain walking or reincorporation of in situ formed olefinic polymer chains, and a chain shuttling agent, wherein catalyst correspond to the formula: wherein R 20 is an aromatic or inertly substituted aromatic group containing from 5 to 20 atoms not counting hydrogen, or a polyvalent derivative thereof; T 3 is a hydrocarbylene or silane group having from 1 to 20 atoms not counting hydrogen, or an inertly substituted derivative thereof; M 3 is a Group 4 metal, preferably zirconium or hafnium; G is an anionic, neutral or dianionic ligand group; preferably a halide, hydrocarbyl or dehydrocarbylamide group having up to 20 atoms not counting hydrogen; g is a number from 1 to 5 indicating the number of such G groups; and bonds and electron donative interactions are represented by lines and arrows respectively. R 20 is an aromatic or inertly substituted aromatic group containing from 5 to 20 atoms not counting hydrogen, or a polyvalent derivative thereof; T 3 is a hydrocarbylene or silane group having from 1 to 20 atoms not counting hydrogen, or an inertly substituted derivative thereof; M 3 is a Group 4 metal, preferably zirconium or hafnium; G is an anionic, neutral or dianionic ligand group; preferably a halide, hydrocarbyl or dehydrocarbylamide group having up to 20 atoms not counting hydrogen; g is a number from 1 to 5 indicating the number of such G groups; and bonds and electron donative interactions are represented by lines and arrows respectively.
Gripper for gripping an annular tire component, wherein the gripper comprises a plurality of gripper members distributed in a circumferential direction about a gripper axis and movable with at least a vector component in a radial direction perpendicular to the gripper axis over a main range with a radially inner endpoint and a radially outer endpoint, wherein the gripper further comprises a limiter for limiting the movement of the plurality of gripper members in the radial direction to a subrange (s) within the main range, wherein the subrange has an adjustable subrange position relative to the main range, characterized in that the gripper comprises a synchronization member for synchronizing the movements of the plurality of gripper members in the radial direction, wherein the synchronization member defines the main range, wherein the limiter is arranged for limiting the synchronization member to define the subrange (s). component, wherein the gripper comprises a plurality of gripper members distributed in a circumferential direction about a gripper axis and movable with at least a vector component in a radial direction perpendicular to the gripper axis over a main range with a radially inner endpoint and a radially outer endpoint, wherein the gripper further comprises a limiter for limiting the movement of the plurality of gripper members in the radial direction to a subrange (s) within the main range, wherein the subrange has an adjustable subrange position relative to the main range, characterized in that the gripper comprises a synchronization member for synchronizing the movements of the plurality of gripper members in the radial direction, wherein the synchronization member defines the main range, wherein the limiter is arranged for limiting the synchronization member to define the subrange (s).
Microfluidic unit (1; 101) for isolating and culturing yeast cells, comprising: - a medium inlet (3; 103), a medium outlet (5; 105) and a passage (7; 107) interconnecting said inlet (3; 103) and outlet (5; 105); - one single cell trapping chamber (9; 109) in the passage (7; 107), said trapping chamber (9; 109) being a mother cell trapping chamber (9; 109); characterized in that the microfluidic unit (1; 101) further comprises: - a daughter cells trapping chamber (11; 111) in the passage (7; 107), downstream of the one single cell trapping chamber (9; 109), and configured for retaining the daughter cells of a single cell trapped in the one single cell trapping chamber (9; 109) while allowing offspring of said daughter cells to escape with a flow of the medium in said passage (7; 107). - a medium inlet (3; 103), a medium outlet (5; 105) and a passage (7; 107) interconnecting said inlet (3; 103) and outlet (5; 105); - one single cell trapping chamber (9; 109) in the passage (7; 107), said trapping chamber (9; 109) being a mother cell trapping chamber (9; 109); - a daughter cells trapping chamber (11; 111) in the passage (7; 107), downstream of the one single cell trapping chamber (9; 109), and configured for retaining the daughter cells of a single cell trapped in the one single cell trapping chamber (9; 109) while allowing offspring of said daughter cells to escape with a flow of the medium in said passage (7; 107).
A toilet for inhibiting an occupant from exiting the toilet, the toilet comprising: a seat having an opening therein; a pair of spaced apart arms positioned above the seat and connected to a seat back; the back extending upwardly from a rear portion of the toilet; an actuator that lowers a rear portion of the seat relative to a front portion of the seat upon the actuator receiving a signal; a first pressure sensor positioned in a first arm of the pair of spaced apart arms; and a second pressure sensor positioned in a second arm of the pair of spaced apart arms; wherein, in use, pressure applied to the first pressure sensor or the second pressure sensor transmits a signal to the actuator, whereupon the actuator lowers a rear portion of the seat relative to a front portion of the seat. a seat having an opening therein; a pair of spaced apart arms positioned above the seat and connected to a seat back; the back extending upwardly from a rear portion of the toilet; an actuator that lowers a rear portion of the seat relative to a front portion of the seat upon the actuator receiving a signal; a first pressure sensor positioned in a first arm of the pair of spaced apart arms; and a second pressure sensor positioned in a second arm of the pair of spaced apart arms; wherein, in use, pressure applied to the first pressure sensor or the second pressure sensor transmits a signal to the actuator, whereupon the actuator lowers a rear portion of the seat relative to a front portion of the seat.
A method for optimizing a microfluidic flow-focusing device with rectangular microchannels using a vacuum system by targeting certain droplet formation rates that best suit the needs of an experiment in, comprising: 1) providing, a microfluidic flow-focusing device with rectangular microchannels, comprising a structure wherein two continuous phase channels consisting of continuous phase inlet and adapter are respectively connected perpendicularly to the end of a dispersed phase channel consisting of dispersed phase inlet and adapter, and the droplets produced in the connecting region of the dispersed phase channel and the two continuous phase channels are discharged to a collection channel; 2) determining, in order to produce droplets of a desired rate, based on the connecting region of the dispersed phase channel and the two continuous phase channels, the heights of the dispersed phase channel and the continuous phase channels and the width of the dispersed phase channel; 3) injecting, an aqueous solution into the dispersed phase channel, and an oil into the continuous phase channels; and 4) applying, vacuum pressure into the collection channel. 1) providing, a microfluidic flow-focusing device with rectangular microchannels, comprising a structure wherein two continuous phase channels consisting of continuous phase inlet and adapter are respectively connected perpendicularly to the end of a dispersed phase channel consisting of dispersed phase inlet and adapter, and the droplets produced in the connecting region of the dispersed phase channel and the two continuous phase channels are discharged to a collection channel; 2) determining, in order to produce droplets of a desired rate, based on the connecting region of the dispersed phase channel and the two continuous phase channels, the heights of the dispersed phase channel and the continuous phase channels and the width of the dispersed phase channel; 3) injecting, an aqueous solution into the dispersed phase channel, and an oil into the continuous phase channels; and 4) applying, vacuum pressure into the collection channel.
An image capturing apparatus for generating an omni-directional spherical image, comprising: two image capturing units (109, 110) that face in opposite directions; two wide-angle lenses with different image capturing directions, said wide angle lenses being the lenses of the image capturing units (109, 110), wherein the two wide-angle lenses face in opposite directions; a sensor configured to detect a tilt of the image capturing apparatus in a vertical direction; a conversion table including data sets of coordinates of pixel values of a post-conversion image and corresponding coordinates of pixel values of a pre-conversion image, for every coordinates of the post- conversion image, said data sets being conversion data; wherein a plurality of conversion data is provided in advance, wherein each conversion data provides different values depending on the tilt parameter of the image capturing apparatus, and wherein the conversion data corresponding to the tilt parameter closest to the tilt parameter detected is extracted out of the conversion data provided in advance; a transformation unit configured to transform images captured through the two wide-angle lenses, based on the detected tilt, wherein the transformation unit transforms plane coordinates of the images captured by the image capturing apparatus into spherical coordinates, based on the detected tilt, by using the conversion table; and a combining unit configured to combine the transformed images and generate an omni-directional spherical image. two image capturing units (109, 110) that face in opposite directions; two wide-angle lenses with different image capturing directions, said wide angle lenses being the lenses of the image capturing units (109, 110), wherein the two wide-angle lenses face in opposite directions; a sensor configured to detect a tilt of the image capturing apparatus in a vertical direction; a conversion table including data sets of coordinates of pixel values of a post-conversion image and corresponding coordinates of pixel values of a pre-conversion image, for every coordinates of the post- conversion image, said data sets being conversion data; wherein a plurality of conversion data is provided in advance, wherein each conversion data provides different values depending on the tilt parameter of the image capturing apparatus, and wherein the conversion data corresponding to the tilt parameter closest to the tilt parameter detected is extracted out of the conversion data provided in advance; a transformation unit configured to transform images captured through the two wide-angle lenses, based on the detected tilt, wherein the transformation unit transforms plane coordinates of the images captured by the image capturing apparatus into spherical coordinates, based on the detected tilt, by using the conversion table; and a combining unit configured to combine the transformed images and generate an omni-directional spherical image.
Composition obtainable by blending at least: (a) a polyamide 66, the amount of terminal amine groups being greater than the amount of terminal acid groups; (b) a polyamide selected from the group consisting of: polyamide 610, polyamide 1010 and polyamide 1012; and (c) reinforcing or bulking fillers. (a) a polyamide 66, the amount of terminal amine groups being greater than the amount of terminal acid groups; (b) a polyamide selected from the group consisting of: polyamide 610, polyamide 1010 and polyamide 1012; and (c) reinforcing or bulking fillers.
A luminaire comprising: a housing configured to be installed in a recess in a ceiling, the housing comprising an inner top surface to which a light source is mounted; a frame attached to the housing, the frame comprising: a first side rail; a second side rail; a third side rail; a fourth side rail; and a film stack comprising a plurality of films, the film stack supported by the first side rail, the second side rail, the third side rail, and the fourth side rail, characterised in that the plurality of films comprises a photopolymer film with optical structures that provide a holographic three-dimensional pattern, a diffuser film, and a textured acrylic film, wherein the diffuser film is stacked on top of the photopolymer film, and the photopolymer film is stacked on top of the textured acrylic film such that the diffuser film is the closest of the plurality of films to the light source. a housing configured to be installed in a recess in a ceiling, the housing comprising an inner top surface to which a light source is mounted; a frame attached to the housing, the frame comprising: a first side rail; a second side rail; a third side rail; a fourth side rail; and a film stack comprising a plurality of films, the film stack supported by the first side rail, the second side rail, the third side rail, and the fourth side rail, characterised in that the plurality of films comprises a photopolymer film with optical structures that provide a holographic three-dimensional pattern, a diffuser film, and a textured acrylic film, wherein the diffuser film is stacked on top of the photopolymer film, and the photopolymer film is stacked on top of the textured acrylic film such that the diffuser film is the closest of the plurality of films to the light source. a first side rail; a second side rail; a third side rail; a fourth side rail; and a film stack comprising a plurality of films, the film stack supported by the first side rail, the second side rail, the third side rail, and the fourth side rail, characterised in that the plurality of films comprises a photopolymer film with optical structures that provide a holographic three-dimensional pattern, a diffuser film, and a textured acrylic film, wherein the diffuser film is stacked on top of the photopolymer film, and the photopolymer film is stacked on top of the textured acrylic film such that the diffuser film is the closest of the plurality of films to the light source.