mhurhangee/ep-ind-claims huggingface dataset:
A vehicular door structure comprising: a door outer panel that constitutes a door exterior panel; a door inner panel that constitutes a door interior panel and is made of a resin, the door inner panel having a first side provided to the door outer panel; and a door interior member located on a second side of the door inner panel, the door interior member facing to a vehicle interior, wherein the door inner panel includes a panel part that has a plurality fragile portions, the fragile portions having a linear shape or dotted line shape and being provided in parallel with each other while being spaced from each other in at least one direction of a door width direction and a door vertical direction, characterized in that the door inner panel has a high rigidity portion (26, 28, 30) provided between the fragile portions located next to each other, the fragile portions (24, 32) are provided in one surface of the door inner panel which is opposed to the door interior member, and wherein the fragile portions (24, 32) extend along a straight line in at least one of the door width direction and the door vertical direction. a door outer panel that constitutes a door exterior panel; a door inner panel that constitutes a door interior panel and is made of a resin, the door inner panel having a first side provided to the door outer panel; and a door interior member located on a second side of the door inner panel, the door interior member facing to a vehicle interior, wherein the door inner panel includes a panel part that has a plurality fragile portions, the fragile portions having a linear shape or dotted line shape and being provided in parallel with each other while being spaced from each other in at least one direction of a door width direction and a door vertical direction, characterized in that the door inner panel has a high rigidity portion (26, 28, 30) provided between the fragile portions located next to each other, the fragile portions (24, 32) are provided in one surface of the door inner panel which is opposed to the door interior member, and wherein the fragile portions (24, 32) extend along a straight line in at least one of the door width direction and the door vertical direction.
A method for performing a random access procedure by a user equipment, UE, in a wireless communication system supporting coverage enhancement, the method comprising: repeatedly transmitting a physical random access channel, PRACH, signal; and monitoring downlink control information masked by a random access radio network temporary identifier, RA-RNTI, corresponding to the PRACH signal, characterized in that: the RA-RNTI is determined according to time index information, frequency index information, and system frame number, SFN, information, and the time index information indicates a starting subframe of the repeated transmission of the PRACH signal, the frequency index information indicates a frequency index of the PRACH signal transmitted in the starting subframe, and the SFN information indicates a starting radio frame of the repeated transmission of the PRACH signal. repeatedly transmitting a physical random access channel, PRACH, signal; and monitoring downlink control information masked by a random access radio network temporary identifier, RA-RNTI, corresponding to the PRACH signal, characterized in that: the RA-RNTI is determined according to time index information, frequency index information, and system frame number, SFN, information, and the time index information indicates a starting subframe of the repeated transmission of the PRACH signal, the frequency index information indicates a frequency index of the PRACH signal transmitted in the starting subframe, and the SFN information indicates a starting radio frame of the repeated transmission of the PRACH signal. the RA-RNTI is determined according to time index information, frequency index information, and system frame number, SFN, information, and the time index information indicates a starting subframe of the repeated transmission of the PRACH signal, the frequency index information indicates a frequency index of the PRACH signal transmitted in the starting subframe, and the SFN information indicates a starting radio frame of the repeated transmission of the PRACH signal.
Screw, comprising the following functional sections which merge into one another or adjoin one another: - a threaded tip formed as a cone and carrying a double thread, wherein the double thread comprises a main thread and a secondary thread; - a substantially cylindrical milling section having a plurality of milling ribs designed as a steep thread, the outside diameter of which, measured over the ribs, is D F; - a substantially cylindrical shank section carrying only the main thread, in which the external thread diameter is D N; - a substantially cylindrical, smooth, thread-free shank section; - a head section with a force application, wherein - the main thread extends uninterruptedly and with a constant pitch from the tip section of the cone via the milling section to the head end of the thread-bearing shank section; and - the ribs of the milling section are arranged countersunk in the thread base of the main thread passing through in such a way that the thread tips of the main thread passing through with nominal external diameter D B project beyond the milling ribs so that D F < D B applies. - a threaded tip formed as a cone and carrying a double thread, wherein the double thread comprises a main thread and a secondary thread; - a substantially cylindrical milling section having a plurality of milling ribs designed as a steep thread, the outside diameter of which, measured over the ribs, is D F; - a substantially cylindrical shank section carrying only the main thread, in which the external thread diameter is D N; - a substantially cylindrical, smooth, thread-free shank section; - a head section with a force application, wherein - the main thread extends uninterruptedly and with a constant pitch from the tip section of the cone via the milling section to the head end of the thread-bearing shank section; and - the ribs of the milling section are arranged countersunk in the thread base of the main thread passing through in such a way that the thread tips of the main thread passing through with nominal external diameter D B project beyond the milling ribs so that D F < D B applies.
A joint connector (3a, 3b; 13a, 13b) for connecting a main communication line to a plurality branch lines respectively connected to nodes (1-1,..., 1-8), comprising: a plurality of terminals (T1,..., T8) each for connecting one branch line to the joint connector (3a, 3b; 13a, 13b); circuits (11; 14) respectively having a characteristic impedance; wherein each pair of adjacent terminals (T1,..., T8) is respectively connected by one circuit (11; 14) for a decentralized connection of the nodes (1-1,..., 1-8) to a corresponding branching point (P1,..., P6) in the joint connector (3a, 3b; 13a, 13b), and wherein the branching points (P1,..., P6) in the joint connector (3a, 3b; 13a, 13b) have a dispersed disposition and are present for all terminals (T2,..., T6) except for one the first or the last node (1-1, 1-8) of the joint connector (3a, 3b; 13a, 13b). a plurality of terminals (T1,..., T8) each for connecting one branch line to the joint connector (3a, 3b; 13a, 13b); circuits (11; 14) respectively having a characteristic impedance; wherein each pair of adjacent terminals (T1,..., T8) is respectively connected by one circuit (11; 14) for a decentralized connection of the nodes (1-1,..., 1-8) to a corresponding branching point (P1,..., P6) in the joint connector (3a, 3b; 13a, 13b), and wherein the branching points (P1,..., P6) in the joint connector (3a, 3b; 13a, 13b) have a dispersed disposition and are present for all terminals (T2,..., T6) except for one the first or the last node (1-1, 1-8) of the joint connector (3a, 3b; 13a, 13b).
An in vitro process for co-operatively removing mono-, di-, and tri-methyl substituents from lysine residues of a histone, said process comprising the step of contacting at least one histone comprising mono-, di-, and tri-methyl substituents on lysine residues with an effective amount of a multiple-specificity demethylase complex comprising JMJD2C and lysine-specific demethylase 1.
A method for reconstructing an image of an object based on received signals and prior knowledge signals using ultrasonic equipment, the method comprising: removing information within the received signals, that are contained by the received signals and the prior knowledge signals to obtain a residual signal ΔX; and reconstructing an image Δf of the object based on the residual signal wherein the reconstructing is performed based on the following formula: arg min Δ f g Δ X, ForwardModel A, Δ f + λ ⋅ h Δ f, wherein Forward Model ( A,Δf) is a function that simulates the measured signal we would obtain if we excited a volume described by the image Δf with the excitation signal described by A, the function g X 1, X 2 ∈ R quantifies the difference between the two measured signals X 1 and X 2, and the function h Δ f ∈ R + quantifies the sparsity of the residual image Δf; wherein prior knowledge comprises signals belonging to one or more measurements of a reference object, signals belonging to one or more measurements of the object to be reconstructed and serving as reference, to one or more images of a reference object, to one or more images of a set of reference objects and/or to one or more simulated images of a reference object. removing information within the received signals, that are contained by the received signals and the prior knowledge signals to obtain a residual signal ΔX; and reconstructing an image Δf of the object based on the residual signal wherein the reconstructing is performed based on the following formula: arg min Δ f g Δ X, ForwardModel A, Δ f + λ ⋅ h Δ f, wherein Forward Model ( A,Δf) is a function that simulates the measured signal we would obtain if we excited a volume described by the image Δf with the excitation signal described by A, the function g X 1, X 2 ∈ R quantifies the difference between the two measured signals X 1 and X 2, and the function h Δ f ∈ R + quantifies the sparsity of the residual image Δf; wherein prior knowledge comprises signals belonging to one or more measurements of a reference object, signals belonging to one or more measurements of the object to be reconstructed and serving as reference, to one or more images of a reference object, to one or more images of a set of reference objects and/or to one or more simulated images of a reference object.
A bus bar system for loads, in particular for lamps, having a support bar, and a current conducting profile arranged inside the support bar, which has wires or lines, which extend in the longitudinal direction of the support bar and can be contacted by the loads, for the power supply and/or transmission of control signals, wherein the support bar is formed toward a first side (u) in such a manner that the arranging of the loads is made possible, wherein a portion (6.2) of the wires or lines of the current conducting profile for a further load can be contacted from a second side (o) of the support bar facing away from the first side ( u), wherein the support bar has a cross section, which has a first opening on the first side ( u), wherein the support bar has a U-shaped cross section at least in first approximation, wherein the support bar is furthermore formed towards the first side (u) in such a manner that the contacting of the wires or lines of the current conducting profile is made possible by the loads, characterized in that the support bar has several second openings on the second side (o), wherein the wires or lines of the current conducting profile - relative to the first side (u) - are arranged at different ranges of height within the support bar.
Insertion-extraction-mechanism for inserting/extracting a switching-device in/from a switchgear, comprising: - displacing-means (4, 14) configured to be arranged within the switchgear and configured for exerting on said switching-device a force so as to move in a first direction movable contacts of said switching-device with respect to stationary contacts of said switchgear, - hand operated driving-lever-means configured for operating, through an external-driving-force, said displacing-means (4, 14), - said driving-lever-means being further configured for exerting on said switching-device, upon an external-motion-force, a respective force so as to move in a second direction, opposite said first direction, said movable contacts with respect to said stationary contacts, said driving-lever-means being adapted for operating according to a first-use-configuration in which they engage with a portion of said insertion-extraction-mechanism and drive said displacing-means (4, 14) for extracting said switching-device from the switchgear, characterised in that said driving-lever-means are furthermore adapted for a second-use-configuration, in which they engage with a further portion (32, 33) of said insertion-extraction-mechanism and operate for inserting said switching-device into said switchgear acting as a second class lever. - displacing-means (4, 14) configured to be arranged within the switchgear and configured for exerting on said switching-device a force so as to move in a first direction movable contacts of said switching-device with respect to stationary contacts of said switchgear, - hand operated driving-lever-means configured for operating, through an external-driving-force, said displacing-means (4, 14), - said driving-lever-means being further configured for exerting on said switching-device, upon an external-motion-force, a respective force so as to move in a second direction, opposite said first direction, said movable contacts with respect to said stationary contacts, said driving-lever-means being adapted for operating according to a first-use-configuration in which they engage with a portion of said insertion-extraction-mechanism and drive said displacing-means (4, 14) for extracting said switching-device from the switchgear,
A method of predicting distortion in a workpiece resulting from a peening process, said method comprising the steps of: providing a coupon comprising residual stress induced in a coupon surface by said peening process; measuring induced residual stress in said coupon surface of said coupon; fitting said induced residual stress measurements to a curve shape function; and calculating a moment coefficient being the resultant moment of residual stress distribution at a given depth induced in said coupon surface based on the fitted induced residual stress measurements; calibrating a stress function of residual stress in said coupon to said moment coefficient; applying said calibrated stress function to a workpiece model of said workpiece; and computing a predicted distortion of said workpiece resulting from application of said calibrated stress function to said workpiece model; and wherein said step of calibrating said stress function to said moment coefficient comprises: fixing a depth term of said stress function to be less than a depth at which said induced residual stress measurements diminish to zero in said coupon; equating a moment of said stress function to said moment coefficient; and solving for a stress magnitude term of said stress function. providing a coupon comprising residual stress induced in a coupon surface by said peening process; measuring induced residual stress in said coupon surface of said coupon; fitting said induced residual stress measurements to a curve shape function; and calculating a moment coefficient being the resultant moment of residual stress distribution at a given depth induced in said coupon surface based on the fitted induced residual stress measurements; calibrating a stress function of residual stress in said coupon to said moment coefficient; applying said calibrated stress function to a workpiece model of said workpiece; and computing a predicted distortion of said workpiece resulting from application of said calibrated stress function to said workpiece model; and wherein said step of calibrating said stress function to said moment coefficient comprises: fixing a depth term of said stress function to be less than a depth at which said induced residual stress measurements diminish to zero in said coupon; equating a moment of said stress function to said moment coefficient; and solving for a stress magnitude term of said stress function. fixing a depth term of said stress function to be less than a depth at which said induced residual stress measurements diminish to zero in said coupon; equating a moment of said stress function to said moment coefficient; and solving for a stress magnitude term of said stress function.
A heat exchanger, wherein an outer boundary of the heat exchanger (1, 11, 12) is formed by an inflow surface and by an outflow surface such that for the exchange of heat between a transport fluid and a refrigerant flowing through the heat exchanger (1, 11, 12) in the operating state, the transport fluid can be supplied to the heat exchanger (1, 11, 12) via the inflow surface, can be brought into flow contact with the heat exchanger (1, 11, 12) and can be led off from the heat exchanger (1, 11, 12) again via the outflow surface, wherein the heat exchanger (1, 11, 12) comprises a desuperheater and a condenser, characterized in that the heat exchanger (1, 11, 12) comprises a separating element, with the separating element being configured and being arranged at a separating point such that the inflow surface is divided into a desuperheater region and into a condenser region.
A communications method utilizing a mobile device and a remote call taker server, the method comprising the mobile device: detecting an available wireless telecommunication network; registering with the detected carrier; detecting an emergency event; capturing and storing data descriptive of the emergency event; and initiating a wireless voice call session on the wireless telecommunication network to a selected call taker service; characterised by, after the voice call session is established: the call taker server listening for a predetermined control signal in the voice channel to start a data session; the mobile device automatically transmitting the predetermined control signal in the voice channel, wherein the control signal comprises at least one audio frequency tone selected within the range of human voice to avoid corruption by voice coding elements of the wireless telecommunication network; after transmission of the predetermined control signal, the mobile device initiating the data transfer and transmitting the stored data in the voice channel session by using an in-band signaling modem technique to avoid corruption by voice coding elements of the digital wireless telecommunication network, and responsive to receipt and recognition of the predetermined control signal, the call taker server receiving and capturing the stored data transmitted on the voice channel. detecting an available wireless telecommunication network; registering with the detected carrier; detecting an emergency event; capturing and storing data descriptive of the emergency event; and initiating a wireless voice call session on the wireless telecommunication network to a selected call taker service; the call taker server listening for a predetermined control signal in the voice channel to start a data session; the mobile device automatically transmitting the predetermined control signal in the voice channel, wherein the control signal comprises at least one audio frequency tone selected within the range of human voice to avoid corruption by voice coding elements of the wireless telecommunication network; after transmission of the predetermined control signal, the mobile device initiating the data transfer and transmitting the stored data in the voice channel session by using an in-band signaling modem technique to avoid corruption by voice coding elements of the digital wireless telecommunication network, and responsive to receipt and recognition of the predetermined control signal, the call taker server receiving and capturing the stored data transmitted on the voice channel.
Circular loom for weaving a weaving core along a weaving axis with at least one shuttle, which has a weft thread spool and is movable along a circular orbit path around the weaving core, where the orbit path is formed of first track segments arranged one after the other along its circumference and at least one movably arranged or designed guide device is provided, which guides at least one warp thread provided from a warp thread spool of a warp spool device and on which at least one first track segment of the orbit path and at least one second track segment that is alternatively assignable to the orbit path are arranged and guided, where in the guided absence of the first and second track segment (5, 18) from the orbit path the guided warp thread, crossing the track plane, passes through the orbit path.
A converter control arrangement (18, 48) for regulating the output voltage of a dc source power converter, the converter control arrangement comprising:- a dynamic droop control device including first and second droop controllers (30, 32) each having an associated droop rate, the droop rate of the second droop controller being greater than the droop rate of the first droop controller; a voltage regulator for regulating the output voltage of the dc source power converter based on a comparison of an output voltage value (V out) of the power converter with a target voltage value (V tgt), the target voltage value (V tgt) being derived by combining a reference voltage value (V ref; V" ref) and a droop voltage value (V dr) provided by the dynamic droop control device, wherein: the first droop controller is operable to control the droop voltage value (V dr) provided by the dynamic droop control device when an output current value (I out) of the dc source power converter is less than a reference current value (I ref) and; the second droop controller is operable to control the droop voltage value (V dr) provided by the dynamic droop control device when the output current value (I out) of the dc source power converter is greater than the reference current value (I ref); wherein the reference current value (I ref) is a desired output current value of the dc source power converter and defines, in combination with the reference voltage value (V ref; V" ref), a target operating point. the first droop controller is operable to control the droop voltage value (V dr) provided by the dynamic droop control device when an output current value (I out) of the dc source power converter is less than a reference current value (I ref) and; the second droop controller is operable to control the droop voltage value (V dr) provided by the dynamic droop control device when the output current value (I out) of the dc source power converter is greater than the reference current value (I ref); wherein the reference current value (I ref) is a desired output current value of the dc source power converter and defines, in combination with the reference voltage value (V ref; V" ref), a target operating point.
Pressure compensator configured to compensate volume variations of an insulation medium or other liquid of a subsea installation, comprising a first bellows chamber comprising a first bellows part, the first bellows chamber being connectable to the subsea installation so that it is in flow connection with an insulation medium or liquid chamber of the subsea installation and the walls of the first bellows chamber being configured to separate the insulating medium from surroundings, wherein the first bellows chamber is surrounded by a second bellows chamber comprising an end wall, a side wall and a second bellows part formed by a diaphragm, the second bellows chamber being configured to form a closed intermediate space around the first bellows chamber, the walls of the second bellows chamber being configured to separate at least the bellows parts of the first bellows chamber from the surrounding water, the second bellows chamber being further filled with an intermediate medium.