mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula I, or a pharmaceutically acceptable salt thereof: wherein: ring A is a 3-8 membered aryl, heteroaryl, heterocyclic, or alicyclic group; X is CH or N; Y is CH or N-R 4, wherein R 4 is H or C 1-6 alkyl; L is -[C(R 5)(R 6)] q -, wherein: each of R 5 and R 6 is, independently, H or C 1-6 alkyl; and q is 0-4; each R 1, R 2, and R 3 is, independently, halo, cyano, optionally substituted C 1-6 alkoxy, hydroxy, oxo, amino, amido, alkyl urea, optionally substituted C 1-6 alkyl, or optionally substituted C 1-6 heterocyclyl; m is 0-3; n is 4; p is 0-2; and Warhead is selected from: wherein: X is a leaving group selected from halo and triflate; and each of R a, R b, and R c is, independently, H, substituted or unsubstituted C 1-4 alkyl, or substituted or unsubstituted C 3-4 cycloalkyl. ring A is a 3-8 membered aryl, heteroaryl, heterocyclic, or alicyclic group; X is CH or N; Y is CH or N-R 4, wherein R 4 is H or C 1-6 alkyl; L is -[C(R 5)(R 6)] q -, wherein: each of R 5 and R 6 is, independently, H or C 1-6 alkyl; and q is 0-4; each of R 5 and R 6 is, independently, H or C 1-6 alkyl; and q is 0-4; each R 1, R 2, and R 3 is, independently, halo, cyano, optionally substituted C 1-6 alkoxy, hydroxy, oxo, amino, amido, alkyl urea, optionally substituted C 1-6 alkyl, or optionally substituted C 1-6 heterocyclyl; m is 0-3; n is 4; p is 0-2; and Warhead is selected from: wherein: X is a leaving group selected from halo and triflate; and each of R a, R b, and R c is, independently, H, substituted or unsubstituted C 1-4 alkyl, or substituted or unsubstituted C 3-4 cycloalkyl. X is a leaving group selected from halo and triflate; and each of R a, R b, and R c is, independently, H, substituted or unsubstituted C 1-4 alkyl, or substituted or unsubstituted C 3-4 cycloalkyl.
A method for determination of one or more shift points for a gearbox in a motor vehicle, which vehicle comprises an engine connected to, in order to drive, said gearbox, where a shift point represents an engine speed at which said gearbox is adapted to effecting a downshift or upshift, characterised in that said one or more shift points are determined on the basis of an engine target speed ω T and a first engine speed difference Δω TT, where said target speed ω T is a desired speed for said engine, said first engine speed difference Δω TT is a difference between a first engine speed at a first time t 1 and said target speed ω T at a second time t 2, and said first and second times t 1 and t 2 are separated by a time period T.
An air bleed device for an aircraft engine, comprising a frame and a flap able to rotate around an axis in relation to the frame, the device further comprising a return system configured to bias the flap into a determined position around the axis and comprising a torsion spring, a first end of which is connected to the flap and a second end of which is connected to the frame, characterized in that said second end is connected to the frame by means for adjusting the preload of the spring by screwing when the flap is in said determined position; said means for adjusting comprise a connecting rod, a first end of which is articulated on said second end of the spring and an opposite second end of which is threaded and screwed into a tubular adjustment screw carried by said frame.
An apparatus to illuminate a sample, said apparatus comprising: a sample plane having an illumination region for receiving the sample thereon; an excitation unit having a light source configured to generate an excitation light; a lens unit, having a double sided lens array element (403, 601) with a first micro lens array in opposite orientation with a second micro lens array, where the first and the second micro lens arrays comprise a plurality of lenses arranged in two dimension arrangements, configured to receive the excitation light and generate an illumination light that is directed towards the illumination region; and a first focusing unit providing a fixed optical magnification of 40X or less and configured to project the illumination light onto the illumination region; wherein the lens unit is configured to produce a homogeneous illumination light to be projected on the illumination region of the sample plane with a high illumination efficiency; and wherein the illumination region is at least 0.5 mm 2 and/or wherein the illumination region is at least 2 times larger than the size of emittance area of the light source. a sample plane having an illumination region for receiving the sample thereon; an excitation unit having a light source configured to generate an excitation light; a lens unit, having a double sided lens array element (403, 601) with a first micro lens array in opposite orientation with a second micro lens array, where the first and the second micro lens arrays comprise a plurality of lenses arranged in two dimension arrangements, configured to receive the excitation light and generate an illumination light that is directed towards the illumination region; and a first focusing unit providing a fixed optical magnification of 40X or less and configured to project the illumination light onto the illumination region; wherein the lens unit is configured to produce a homogeneous illumination light to be projected on the illumination region of the sample plane with a high illumination efficiency; and wherein the illumination region is at least 0.5 mm 2 and/or wherein the illumination region is at least 2 times larger than the size of emittance area of the light source.
Network device for joint decoding of received signals in a cellular wireless communication system comprising a radio network controller and a plurality of spatially distributed base stations, the base stations are interconnected to said network device by means of at least one backhaul interface having a round-trip delay being larger than a transmission interval for a Hybrid Automatic Repeat Request, HARQ, cycle of a HARQ algorithm employed by the cellular wireless communication system, wherein the round-trip delay is a time period to send received bits at baseband from one of base stations to the network device, perform joint decoding and send the result of joint decoding to said one of the base stations, and wherein the base stations are interconnected to the radio network controller, said network device comprising a processor adapted to: receive a plurality of baseband signals,BBSs, corresponding to uplink signals received by said plurality of base stations in uplink radio links, said uplink signals being associated with an uplink transmission, ULT, from a user device; and decode said uplink transmission, ULT, from said user device by combining said plurality of baseband signals, BBSs; wherein said network device is a base station, or an integrated part thereof; characterized in that said base station is a base station having a lowest computational load among said plurality of base stations, wherein said base station is determined by the radio network controller based on load measurements taken by each of said plurality of base stations and signalled to the radio network controller. receive a plurality of baseband signals,BBSs, corresponding to uplink signals received by said plurality of base stations in uplink radio links, said uplink signals being associated with an uplink transmission, ULT, from a user device; and decode said uplink transmission, ULT, from said user device by combining said plurality of baseband signals, BBSs; wherein said network device is a base station, or an integrated part thereof; characterized in that said base station is a base station having a lowest computational load among said plurality of base stations, wherein said base station is determined by the radio network controller based on load measurements taken by each of said plurality of base stations and signalled to the radio network controller.
A radiography system comprising: a plurality of patient beds (109a, 109b) each comprising a DR detector (112a, 112b) positioned therein; a remote control system; and an x-ray source (115, 116; 306) configured to be selectively positioned relative to each of the patient beds (109a, 109b) via the remote control system and configured to be fired via the remote control system; characterized by further comprising: a video camera attached adjacent to the x-ray source (115, 116; 306) and aimed at one of the patient beds (109a, 109b), and a digital display (202; 404) configured to display a video captured by the video camera; and at least one fiducial marker placed on or proximate to each of the patient beds (109a, 109b), each of the at least one fiducial marker positioned at a known position and distance relative to a corresponding DR detector (112a, 112b), the fiducial markers each configured to be visible on the digital display (202; 404) when the corresponding patient bed (109a, 109b) is displayed thereon. a plurality of patient beds (109a, 109b) each comprising a DR detector (112a, 112b) positioned therein; a remote control system; and an x-ray source (115, 116; 306) configured to be selectively positioned relative to each of the patient beds (109a, 109b) via the remote control system and configured to be fired via the remote control system; characterized by further comprising: a video camera attached adjacent to the x-ray source (115, 116; 306) and aimed at one of the patient beds (109a, 109b), and a digital display (202; 404) configured to display a video captured by the video camera; and at least one fiducial marker placed on or proximate to each of the patient beds (109a, 109b), each of the at least one fiducial marker positioned at a known position and distance relative to a corresponding DR detector (112a, 112b), the fiducial markers each configured to be visible on the digital display (202; 404) when the corresponding patient bed (109a, 109b) is displayed thereon. a video camera attached adjacent to the x-ray source (115, 116; 306) and aimed at one of the patient beds (109a, 109b), and a digital display (202; 404) configured to display a video captured by the video camera; and at least one fiducial marker placed on or proximate to each of the patient beds (109a, 109b), each of the at least one fiducial marker positioned at a known position and distance relative to a corresponding DR detector (112a, 112b), the fiducial markers each configured to be visible on the digital display (202; 404) when the corresponding patient bed (109a, 109b) is displayed thereon.
A line trimmer head including a rotatable spool assembly of at least one feedable line, at least one primary wall member adjacent a periphery of said spool assembly, a guide passage extending generally radially away from said primary wall member, said guide passage being partly defined by a substantially radially extending first guide passage formation, said first guide passage formation is generally straight and radially disposed with respect to the axis of rotation of said spool assembly and arranged to bear upon said line extending through said guide passage, such that in use such line located within said guide passage is restricted to a substantially radial orientation, characterized in that said guide passage is further partly defined by a second formation (12, 13) generally opposite the first guide passage formation and extending generally radially away from another primary wall member, wherein said second formation (12, 13) has a different profile than the first guide passage formation and has at least one generally radially extending portion that partly defines the guide passage, and a curved portion extending away from said generally radially extending portion.
A loading arm of a drafting system of a spinning machine, with a top intake roller, a top middle roller, and a top discharge roller of the drafting system and a clamping roller of a condensing device, - having a guide rail, and - at least one bridge (3; 4) - on which at least one of the top rollers of the drafting system is mounted, and - a drive device being disposed on the bridge, in which ∘ the top discharge roller of the drafting system and ∘ the clamping roller of a condensing device are disposed and connected to each other for driving, and - the top discharge roller being disposed on the bridge (3; 4) particularly by means of a load unit and - the clamping roller is loaded by means of a pressure spring (20 in the working position thereof, characterized in that - the bridge (3; 4) is rotatably supported about a rotary axis disposed in the guide rail, - the guide rail and/or the bridge (3; 4) comprising at least one opening (6; 8), in which the rotary axis (5; 7) is received in the guide rail and - the pressure spring is disposed in the opening (6; 8) of the guide rail and/or of the bridge (3; 4), preferably on the rotary axis (5; 7). - having a guide rail, and - at least one bridge (3; 4) - on which at least one of the top rollers of the drafting system is mounted, and - a drive device being disposed on the bridge, in which ∘ the top discharge roller of the drafting system and ∘ the clamping roller of a condensing device are disposed and connected to each other for driving, and ∘ the top discharge roller of the drafting system and ∘ the clamping roller of a condensing device are disposed and connected to each other for driving, and - the top discharge roller being disposed on the bridge (3; 4) particularly by means of a load unit and - the clamping roller is loaded by means of a pressure spring (20 in the working position thereof, characterized in that - the bridge (3; 4) is rotatably supported about a rotary axis disposed in the guide rail, - the guide rail and/or the bridge (3; 4) comprising at least one opening (6; 8), in which the rotary axis (5; 7) is received in the guide rail and - the pressure spring is disposed in the opening (6; 8) of the guide rail and/or of the bridge (3; 4), preferably on the rotary axis (5; 7).
An ink-jet recording device comprising: a conveying section which conveys a recording medium in a conveying direction; a head section which is equipped with a plurality of full line type ink-jet heads arranged in the conveying direction of the recording medium, each ink-j et head jetting an active energy ray curable ink having a different color with each other to the recording medium; and a semi-curing light source which is located between the ink-jet heads and semi-cures a first ink jetted from the ink-jet head located in an upper stream of the conveying direction of the recording medium and landed on the recording medium before a second ink jetted from the ink-jet head located in a downstream of the conveying direction of the recording medium is landed on the first ink, wherein the following conditional expression is satisfied; 0.6 ≤ R / R ⁢ 0 ≤ 0.9, provided that: R is a dot radius of the second ink jetted on the first ink which is jetted on the recording medium and semi-cured; and R0 is a dot radius of the second ink directly jetted on the recording medium. a conveying section which conveys a recording medium in a conveying direction; a head section which is equipped with a plurality of full line type ink-jet heads arranged in the conveying direction of the recording medium, each ink-j et head jetting an active energy ray curable ink having a different color with each other to the recording medium; and a semi-curing light source which is located between the ink-jet heads and semi-cures a first ink jetted from the ink-jet head located in an upper stream of the conveying direction of the recording medium and landed on the recording medium before a second ink jetted from the ink-jet head located in a downstream of the conveying direction of the recording medium is landed on the first ink, wherein the following conditional expression is satisfied; 0.6 ≤ R / R ⁢ 0 ≤ 0.9, provided that: R is a dot radius of the second ink jetted on the first ink which is jetted on the recording medium and semi-cured; and R0 is a dot radius of the second ink directly jetted on the recording medium.
An aerosol generating apparatus comprising: a heater (20, 120) configured to generate aerosol by using electricity; a processor configured to detect a puff based on a temperature variation amount per unit time of the heater (20, 120), and control the heater (20, 120) to generate the aerosol based on detecting the puff; a battery configured to supply electric power to the heater (20, 120) and the processor; and a temperature sensor (21, 122) configured to determine the temperature variation amount per unit time of the heater, characterized in that the apparatus further comprises: an inhalation sensor (22, 91) configured to sense air introduced into the aerosol generating apparatus, wherein based on the inhalation sensor (22, 91) sensing the air introduced to the aerosol generating apparatus, the processor obtains information indicating the temperature variation amount per unit time of the heater (20, 120) from the temperature sensor (21, 122) and determines whether the puff has occurred based on the information. a heater (20, 120) configured to generate aerosol by using electricity; a processor configured to detect a puff based on a temperature variation amount per unit time of the heater (20, 120), and control the heater (20, 120) to generate the aerosol based on detecting the puff; a battery configured to supply electric power to the heater (20, 120) and the processor; and a temperature sensor (21, 122) configured to determine the temperature variation amount per unit time of the heater, characterized in that the apparatus further comprises: an inhalation sensor (22, 91) configured to sense air introduced into the aerosol generating apparatus, wherein based on the inhalation sensor (22, 91) sensing the air introduced to the aerosol generating apparatus, the processor obtains information indicating the temperature variation amount per unit time of the heater (20, 120) from the temperature sensor (21, 122) and determines whether the puff has occurred based on the information. an inhalation sensor (22, 91) configured to sense air introduced into the aerosol generating apparatus, wherein based on the inhalation sensor (22, 91) sensing the air introduced to the aerosol generating apparatus, the processor obtains information indicating the temperature variation amount per unit time of the heater (20, 120) from the temperature sensor (21, 122) and determines whether the puff has occurred based on the information.
A rubber composition for a tire tread comprising a diene rubber, silica, and a sulfur-containing silane coupling agent; a nitrogen adsorption specific surface area of the silica being from 194 to 240 m 2 /g, determined in accordance with JIS K6217-2; a CTAB specific surface area of the silica being from 180 to 215 m 2 /g, determined in accordance with JIS K6217-3:2001; a content of the silica being from 60 to 200 parts by mass per 100 parts by mass of the diene rubber; the sulfur-containing silane coupling agent being a polysiloxane represented by the following formula; and a content of the sulfur-containing silane coupling agent being from 1 to 20 mass% with respect to the content of the silica; a b c d (R 1) e SiO (4-2a-b-c-d-e)/2 formula being an average composition formula, wherein A is a divalent organic group containing a sulfide group represented by formula below; B is a monovalent hydrocarbon group selected from the group consisting of hexyl groups, octyl groups, and decyl groups; C is a hydrolyzable group selected from the group consisting of an alkoxy group, a phenoxy group, a carboxyl group, and an alkenyloxy group; D is an organic group containing a mercapto group; R 1 is a monovalent hydrocarbon group having from 1 to 4 carbon atoms; and a to e satisfy the relational expressions 0 ≤ a < 1, 0 < b < 1, 0 < c < 3, 0 < d < 1, 0 ≤ e < 2, and 0 < 2a + b + c + d + e < 4, *-(CH 2) n -S x -(CH 2) n -* wherein, n is an integer from 1 to 10, x is an integer from 1 to 6, and * represents a binding position.
A rooftop mount device for connecting to a roof of a container and attaching exercise equipment thereto, the rooftop mount device comprising: at least two connection members that are attachable to a roof of a container; and at least one horizontal stabilization member for connecting between two opposing connection members of the at least two connection members when the rooftop mount device is attached to the roof of the container; wherein exercise equipment is connectable to the rooftop mount device at the connection members, at the horizontal stabilization member, or at both; wherein the exercise equipment is adjustably attachable both horizontally and vertically at a plurality of connection points on the connection members and the horizontal stabilization member; and wherein the at least two connection members each comprise a vertical portion at and a tab protruding from one side, wherein the tab is sized and shaped to fit into an aperture of a corner casting of the container to permit installation of the at least two connection members without tools. at least two connection members that are attachable to a roof of a container; and at least one horizontal stabilization member for connecting between two opposing connection members of the at least two connection members when the rooftop mount device is attached to the roof of the container; wherein exercise equipment is connectable to the rooftop mount device at the connection members, at the horizontal stabilization member, or at both; wherein the exercise equipment is adjustably attachable both horizontally and vertically at a plurality of connection points on the connection members and the horizontal stabilization member; and wherein the at least two connection members each comprise a vertical portion at and a tab protruding from one side, wherein the tab is sized and shaped to fit into an aperture of a corner casting of the container to permit installation of the at least two connection members without tools.
A method of automatically diagnosing operation of a communication network, the method comprising: collecting, during a plurality of time periods, a plurality of Layer-4 protocol statistics for Layer-4 network connections each having a first endpoint at one of one or more client devices (110a.. 110n, 190, 192), wherein data transmitted for each of the Layer-4 network connections traverses the communication network; determining a first network performance indicator, based on the Layer-4 statistics collected during a first time period included in the time periods and the Layer-4 statistics collected during a second time period included in the time periods and neither overlapping nor consecutive with the first time period; determining whether the communication network has experienced a performance issue based on the first network performance indicator; and causing a diagnostic action, a corrective action, or a maintenance action to be performed based on the determination whether the communication network has experienced a performance issue. collecting, during a plurality of time periods, a plurality of Layer-4 protocol statistics for Layer-4 network connections each having a first endpoint at one of one or more client devices (110a.. 110n, 190, 192), wherein data transmitted for each of the Layer-4 network connections traverses the communication network; determining a first network performance indicator, based on the Layer-4 statistics collected during a first time period included in the time periods and the Layer-4 statistics collected during a second time period included in the time periods and neither overlapping nor consecutive with the first time period; determining whether the communication network has experienced a performance issue based on the first network performance indicator; and causing a diagnostic action, a corrective action, or a maintenance action to be performed based on the determination whether the communication network has experienced a performance issue.