mhurhangee/ep-ind-claims huggingface dataset:
An airbag system for a vehicle table, comprising: a table to be disposed in front of a passenger; an airbag cushion disposed inside the table, that expands while being deployed in a state in which a first end portion of the airbag cushion is fixed to an internal portion of an edge of the table to allow a second end portion of the airbag cushion to protrude above the table and to cover an upper surface of the table, and includes a bottom surface portion facing the table, which is positioned at an interval from the upper surface of the table while the airbag cushion is deployed; and an inflator configured to supply gas to the airbag cushion, wherein the table includes a first edge at a passenger side, a second edge at an opposite side to the first edge, and a pair of opposite edges (131, 132) for connecting the first edge and the second edge to each other and the airbag cushion is fixed into the second edge and the opposite edges (131, 132) of the table. a table to be disposed in front of a passenger; an airbag cushion disposed inside the table, that expands while being deployed in a state in which a first end portion of the airbag cushion is fixed to an internal portion of an edge of the table to allow a second end portion of the airbag cushion to protrude above the table and to cover an upper surface of the table, and includes a bottom surface portion facing the table, which is positioned at an interval from the upper surface of the table while the airbag cushion is deployed; and an inflator configured to supply gas to the airbag cushion, wherein the table includes a first edge at a passenger side, a second edge at an opposite side to the first edge, and a pair of opposite edges (131, 132) for connecting the first edge and the second edge to each other and the airbag cushion is fixed into the second edge and the opposite edges (131, 132) of the table.
A wireless communication system, the system comprising: a terminal having an array antenna and searching for neighbor base stations; a controller for determining an active set for multi-cooperative transmission/reception with respect to the terminal among the searched neighbor base stations, and scheduling beam transmission of each of a plurality of base stations included in the active set so that the plurality of base stations transmit data to the terminal during different time slots; and the plurality of base stations for transmitting the data to the terminal using beam-forming during the different time slots, wherein at least one base station among the plurality of base stations transmits resource information regarding each of the plurality of the base stations to the terminal. a terminal having an array antenna and searching for neighbor base stations; a controller for determining an active set for multi-cooperative transmission/reception with respect to the terminal among the searched neighbor base stations, and scheduling beam transmission of each of a plurality of base stations included in the active set so that the plurality of base stations transmit data to the terminal during different time slots; and the plurality of base stations for transmitting the data to the terminal using beam-forming during the different time slots, wherein at least one base station among the plurality of base stations transmits resource information regarding each of the plurality of the base stations to the terminal.
A method for security capability negotiation, which is applicable to perform security capability negotiation during a mobile network handover, comprising: A. receiving (202, 203), by a second network, a handover request sent by a first network; B. selecting, by an access network entity of the second network, a corresponding security capability; and C. sending (210, 211), by the second network, the selected security capabilities to a UE via the first network; wherein the first network is a 2G or 3G network; the second network is a long term evolution, LTE, network, the access network entity of the second network is an evolved node B, eNodeB; wherein the step B comprises: B1. sending, by a mobility management entity, MME, a handover preparation request message to the eNodeB, the handover preparation request message carrying a radio resource control, RRC, algorithm, and a user plane, UP, algorithm which are supported by the UE, wherein the RRC algorithm comprises an encryption algorithm and an integrity protection algorithm; and B2. selecting, by the eNodeB, a RRC algorithm and an UP algorithm which are supported by the UE and the eNodeB according to the RRC algorithm and the UP algorithm which are supported by the UE and a RRC algorithm and an UP algorithm which are supported by the eNodeB; A. receiving (202, 203), by a second network, a handover request sent by a first network; B. selecting, by an access network entity of the second network, a corresponding security capability; and C. sending (210, 211), by the second network, the selected security capabilities to a UE via the first network; B1. sending, by a mobility management entity, MME, a handover preparation request message to the eNodeB, the handover preparation request message carrying a radio resource control, RRC, algorithm, and a user plane, UP, algorithm which are supported by the UE, wherein the RRC algorithm comprises an encryption algorithm and an integrity protection algorithm; and B2. selecting, by the eNodeB, a RRC algorithm and an UP algorithm which are supported by the UE and the eNodeB according to the RRC algorithm and the UP algorithm which are supported by the UE and a RRC algorithm and an UP algorithm which are supported by the eNodeB;
A system for determining a working range of a self-propelled equipment, comprising a signal generating device, a closed-loop wire for enclosing the working range, such that by galvanizing the wire, magnetic field signals will be produced in areas inside and outside the working range delimited by the closed-loop wire, and the self-propelled equipment, the self-propelled equipment comprises a drive unit, a control unit and at least one magnetic field signal detection unit provided on its body, wherein the at least one magnetic field signal detection unit outputs a detection signal according to the intensity and direction of a detected magnetic field, wherein the control unit receives the detection signal and controls the self-propelled equipment to act according to the detection signal; the signal generating device comprises a pulse signal generator, wherein the pulse signal generator provides pulse signals to the wire to produce pulse magnetic fields in the range enclosed by the wire; the pulse signals are pseudo-random pulse signals; characterized in that the pulse signal generator provides pulse signals of fixed pulse width, the pulse width of the pulse signals being less than a time interval between two of them, wherein the pseudo-random pulse signals are unipolar pulse signals.
Attachment system for attaching an energy-absorbing and/or redirective initial structure to a protective device along a road, comprising the initial structure, the protective device, a connecting element and a deflector element, wherein the connecting element and the deflector element are arranged between the initial structure and the protective device, and wherein the connecting element is attached to the initial structure and the protective device on the road side and the deflector element has a first attachment section and a first guide section, wherein the deflector element in the first attachment section is attached to the protective device at the bottom and the first guide section extends angled from the first attachment section in the direction of a central axis X of the protective device to the initial structure, characterized in that the protective device has a redirecting surface in a base region and a deflecting surface above the base region, the connecting element has at least four surface sections (11, 12, 13, 14) which are each separated from one another by a bending line along which they are formed, the connecting element is connected to the deflecting surface of the protective device in a first surface section of the four surface sections, the connecting element is connected to the initial structure in a fourth surface section of the four surface sections, and the second and third surface sections (12, 13) of the four surface sections lie along the central axis X between the first and fourth surface sections (11, 14) and form a transition between the first and fourth surface sections (11, 14).
A method for controlling a luminaire of an illumination network comprising a plurality of luminaries, said method comprising: monitoring a primary communication network; monitoring an alternative communication network (220, 270); receiving a command from the primary communication network and another command from the alternative communication network; prioritizing the received commands using a priority setting; and executing an application in response to the prioritized received command, said application controlling the operation of the luminaire and wherein the primary communication network and the alternative communication network (220, 270) are independent the method characterized in that: the primary communication network is either a wired network or wireless network and the alternative communication network is a wireless network and the priority setting involves a setting whereby a first command from the alternative communication network (220, 270) is maintained for at least a predetermined period of time and second commands received from the primary communication network are ignored if received within the predetermined period of time after the first command was received from the alternative communication network. monitoring a primary communication network; monitoring an alternative communication network (220, 270); receiving a command from the primary communication network and another command from the alternative communication network; prioritizing the received commands using a priority setting; and executing an application in response to the prioritized received command, said application controlling the operation of the luminaire and wherein the primary communication network and the alternative communication network (220, 270) are independent the primary communication network is either a wired network or wireless network and the alternative communication network is a wireless network and the priority setting involves a setting whereby a first command from the alternative communication network (220, 270) is maintained for at least a predetermined period of time and second commands received from the primary communication network are ignored if received within the predetermined period of time after the first command was received from the alternative communication network.
A compound which is a benzimidazole of formula: wherein: - A is 5- to 12-membered aryl or 5- to 12-membered heteroaryl, each of which is unsubstituted or substituted; - Y is a single bond, -(CH 2) p -, -X-, -CH 2 -X-, or -X-CH 2 -; - X is -O-, -S-, -N(R 2)-, >C=O, >S(=O), >S(=O) 2, -O-C(=O)-, -C(=O)-O-, -N(R 2)-C(=O)-, or -C(=O)-N(R 2)-; - each L is independently a single bond, C 1-3 alkylene, C 2-3 alkenylene or C 2-3 alkynylene; - R 1 is C 1-6 alkyl, C 2-6 alkenyl or C 2-6 alkynyl, each of which is unsubstituted or substituted; - each Z is independently -N(R 2) 2, -OR 2, -SR 2, -S(=O)R 2, -S(=O) 2 R 2; - each R 2 is independently hydrogen, C 1-6 alkyl, C 2-6 alkenyl or C 2-6 alkynyl, wherein said alkyl, alkenyl and alkynyl groups are unsubstituted or substituted; - m is 0, 1, 2, or 3; - n is 1, 2, or 3; and - p is 1, 2, or 3; or a pharmaceutically acceptable salt thereof. - A is 5- to 12-membered aryl or 5- to 12-membered heteroaryl, each of which is unsubstituted or substituted; - Y is a single bond, -(CH 2) p -, -X-, -CH 2 -X-, or -X-CH 2 -; - X is -O-, -S-, -N(R 2)-, >C=O, >S(=O), >S(=O) 2, -O-C(=O)-, -C(=O)-O-, -N(R 2)-C(=O)-, or -C(=O)-N(R 2)-; - each L is independently a single bond, C 1-3 alkylene, C 2-3 alkenylene or C 2-3 alkynylene; - R 1 is C 1-6 alkyl, C 2-6 alkenyl or C 2-6 alkynyl, each of which is unsubstituted or substituted; - each Z is independently -N(R 2) 2, -OR 2, -SR 2, -S(=O)R 2, -S(=O) 2 R 2; - each R 2 is independently hydrogen, C 1-6 alkyl, C 2-6 alkenyl or C 2-6 alkynyl, wherein said alkyl, alkenyl and alkynyl groups are unsubstituted or substituted; - m is 0, 1, 2, or 3; - n is 1, 2, or 3; and - p is 1, 2, or 3;
Method for determining the position of at least one object in the environment of a movement aid by means of at least one emitted acoustic pulse which is reflected at the object, referred to as an echo pulse below, having a predefined pulse duration, the echo pulse propagation time (τ Oneu) of the echo pulse and therefore also the position of the object being determined on the basis of the time at which at least one predefined threshold value is first exceeded (t E) or is last exceeded (t EEnd) by the amplitude of the received echo pulse and the period (Δτ E) for which the threshold value is exceeded, characterized in that, in order to calculate the echo pulse propagation time (τ Oneu), half of the period (Δτ E) for which the threshold value is exceeded is added to the time at which the threshold value is first exceeded (t E) or is subtracted from the time at which the threshold value is last exceeded (t EEnd), and a correction factor (Δτ Korr) calculated as the difference between the period of the pulse response of a receive filter for the echo pulse (Δτ F) and the pulse duration of the transmitted pulse (Δτ P) is subtracted from the expression of the echo pulse propagation time (τ Oneu) obtained thereby.
A pulley unit including: a hub configured to be connected to a crankshaft of a motor vehicle and having an axis; a pulley coaxial to the hub and supported in a rotationally free manner with respect to the hub; a clutch interposed between the hub and the pulley; and an actuator for controlling the clutch, characterized in that the clutch includes an inner disc rotationally coupled to the hub and having an engagement portion (18; 67) housed inside the pulley, and a mobile member (24, 63) movable axially between an engagement position in which the pulley is rotationally coupled to the engagement portion (18; 64) of the inner disc and a disengagement position in which the pulley is rotationally free with respect to the inner disc, and in that the engagement portion includes a toothing. a hub configured to be connected to a crankshaft of a motor vehicle and having an axis; a pulley coaxial to the hub and supported in a rotationally free manner with respect to the hub; a clutch interposed between the hub and the pulley; and an actuator for controlling the clutch, characterized in that the clutch includes an inner disc rotationally coupled to the hub and having an engagement portion (18; 67) housed inside the pulley, and a mobile member (24, 63) movable axially between an engagement position in which the pulley is rotationally coupled to the engagement portion (18; 64) of the inner disc and a disengagement position in which the pulley is rotationally free with respect to the inner disc, and in that the engagement portion includes a toothing.
Cooling system for cooling dosing valves (56, 58) of a reducing-agent-dosing system for dosing a reducing agent into an exhaust-gas system of an internal combustion engine, wherein the cooling system comprises a first coolant circuit, which supplies coolant to an engine block of the internal combustion engine, and a second coolant circuit, which supplies coolant to a charge-air cooler of the internal combustion engine, wherein the first coolant circuit comprises a first coolant pump (116, 132) and the second coolant circuit comprises a second coolant pump, characterized in that a first dosing valve which, in the flow direction of an exhaust-gas stream of the internal combustion engine through an exhaust-gas system of the internal combustion engine, is close to the engine is connected to the second coolant circuit and a second dosing valve which is remote from the engine is connected to the first coolant circuit.
A capacitor (515, 730), comprising: a first conductive layer (205, 305); an insulating layer (215, 310), on the first conductive layer (205, 305); and a second conductive layer (220, 315) on the insulating layer (215, 310), the first conductive layer (205, 305) being composed of one or more layers of a first van der Waals material, the insulating layer (215, 310) being composed of one or more layers of a second van der Waals material, and the second conductive layer (220, 315) being composed of one or more layers of a third van der Waals material. a first conductive layer (205, 305); an insulating layer (215, 310), on the first conductive layer (205, 305); and a second conductive layer (220, 315) on the insulating layer (215, 310), the first conductive layer (205, 305) being composed of one or more layers of a first van der Waals material, the insulating layer (215, 310) being composed of one or more layers of a second van der Waals material, and the second conductive layer (220, 315) being composed of one or more layers of a third van der Waals material.
A method for generating a multi-band signal, comprising: transforming multiple base-band envelope signals into a sequence of symbols representing a signal including a plurality of disjoint frequency bands, wherein each frequency band corresponds to a single base-band envelope signal, and wherein each symbol corresponds to an amplitude of the signal and is a number selected from a finite set of numbers; characterized by encoding the sequence of symbols as a plurality of pulse width modulation, PWM, signals, wherein each PWM signal includes a plurality of codes for encoding each symbol, wherein a sum of values of the codes of the plurality of PWM signals encoding a symbol is proportional to a value of the symbol; amplifying the PWM signals to produce a plurality of amplified signals; and combining the plurality of amplified signals to produce the multi-band signal. transforming multiple base-band envelope signals into a sequence of symbols representing a signal including a plurality of disjoint frequency bands, wherein each frequency band corresponds to a single base-band envelope signal, and wherein each symbol corresponds to an amplitude of the signal and is a number selected from a finite set of numbers; characterized by encoding the sequence of symbols as a plurality of pulse width modulation, PWM, signals, wherein each PWM signal includes a plurality of codes for encoding each symbol, wherein a sum of values of the codes of the plurality of PWM signals encoding a symbol is proportional to a value of the symbol; amplifying the PWM signals to produce a plurality of amplified signals; and combining the plurality of amplified signals to produce the multi-band signal.
A medical catheter comprising an inner catheter tube and an outer catheter tube, wherein the inner catheter tube has at least one outlet port for a medical liquid at its distal end and the outer catheter tube comprises two parts of differing rigidities, namely a flexible part and a rigid part, wherein the flexible part is located at the distal end of the outer catheter tube and the distal end of the flexible part is connected to the inner catheter tube, and wherein the medical catheter also comprises a drive means for generating a relative movement between the inner catheter tube and the rigid part of the outer catheter tube, characterised in that the flexible part comprises a circular cut around its outer circumference.
Filtering device of the venous blood comprising: - at least a rigid box-shaped casing defining a filtering chamber (3, 4); - at least an internally hollow filtering element arranged within said filtering chamber (3, 4) to delimit a pre-filtering chamber and a post-filtering chamber; - at least a supply pipe of the blood to be filtered communicating with said pre-filtering chamber; characterized in that said box-shaped casing is of the monolithic type and defines said supply pipe, the latter being arranged externally to said filtering chamber (3, 4) and comprising a first area defined at the upper portion of said casing and connectable to a conveying line of the venous blood and a second area associated with the lower portion of said casing and communicating with said pre-filtering chamber, and in that it comprises fractionation means of the air bubbles arranged within said supply pipe, said fractionation means being formed so as to divide the passage section of said supply pipe into two or more separate channels. - at least a rigid box-shaped casing defining a filtering chamber (3, 4); - at least an internally hollow filtering element arranged within said filtering chamber (3, 4) to delimit a pre-filtering chamber and a post-filtering chamber; - at least a supply pipe of the blood to be filtered communicating with said pre-filtering chamber;
A cord-lock assembly (34, 56) comprising: a cord lock having a first portion, a second portion, and a biasing element coupled between the first portion and the second portion, the first portion including a first through-channel; the second portion including a second through-channel that is alignable with the first through-channel; and the biasing element providing a force in a first direction to misalign the first through-channel and the second through-channel; and an article layer having a first aperture, the first aperture bounded by an aperture collar that forms a perimeter around the first aperture, wherein at least part of the first portion is positioned in the first aperture and is circumscribed by the aperture collar, and wherein the first direction of the force is axially aligned with the first aperture, wherein the article layer forms a tubular encasing that at least partially encloses a space, wherein the first portion is seated with the second portion in the space and extends through the first aperture to a position that is external from the space and is not enclosed within the tubular encasing, and either wherein the first portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space, the one or more sidewalls including the first through-channel, and wherein the second portion includes a plunger having the second through-channel that is alignable with the first through-channel when the plunger is at least partially received in the plunger-receiving space; or wherein the second portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space, the one or more sidewalls including the second through-channel, and wherein the first portion includes a plunger having the first through-channel that is alignable with the second through-channel when the plunger is at least partially received in the plunger-receiving space. wherein the article layer forms a tubular encasing that at least partially encloses a space, wherein the first portion is seated with the second portion in the space and extends through the first aperture to a position that is external from the space and is not enclosed within the tubular encasing, and either wherein the first portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space, the one or more sidewalls including the first through-channel, and wherein the second portion includes a plunger having the second through-channel that is alignable with the first through-channel when the plunger is at least partially received in the plunger-receiving space; or wherein the second portion includes a housing having one or more sidewalls at least partially enclosing a plunger-receiving space, the one or more sidewalls including the second through-channel, and wherein the first portion includes a plunger having the first through-channel that is alignable with the second through-channel when the plunger is at least partially received in the plunger-receiving space.