mhurhangee/ep-ind-claims huggingface dataset:
Building block for the construction of walls and partitions of a building or the like, which is provided with coupling means having a first coupling part protruding from a first surface of the building block and a complementary second coupling part on an opposite surface of the building block, whereby the first coupling part and the second coupling part are complementary and whereby, during the assembly of several such building blocks, the first coupling part of a first building block and the second coupling part of an adjacent building block can work in conjunction to couple the building blocks concerned, whereby the building block is provided with a body in which one or several insert pieces are inserted having a central axis (AA') whereby the aforesaid first and second coupling parts (28,29) are mainly formed of said one or several insert pieces, whereby the first coupling part and the second coupling part are complementary in such a way that, after adjacent building blocks have been coupled, the coupled building blocks concerned are coupled in an immobile manner by making the coupling means concerned work in conjunction with one another, characterised in that two insert pieces placed on top of one another can be coupled by snapping inward hook-shaped teeth of a foot of a first insert piece in a circumferential groove in a head of a second insert piece, thanks to a relative movement of the insert pieces towards one another in a direction at right angles to their central axis (AA').
A formulation which stabilizes a N. meningitidis 2086 protein composition, the formulation comprising a pH buffered saline solution, wherein the buffer has a pKa of 3.5 to 7.5, polysorbate 80, recombinant lipidated N. meningitidis 2086 protein, wherein the formulation further comprises aluminum phosphate as adjuvant and wherein the pH buffered saline solution of the formulation has a pH of 5.5 to 7.5.
A bending machine comprising: a die support shaft, at least two working arms: mounted to rotate about the die support shaft, and arranged to each support a counter die and to rotate about the die support shaft to move the counter dies to bend a work-piece in conjunction with a die on the die support shaft, a drive for the working arms, said drive comprising a translational drive driving link arms, said link arms being pivotally connected at their inner ends to the working arms by a pivot joint, and pivotally connected to each other at their outer ends by a pivot joint or pivot joints, and wherein the translational drive acts on a longitudinal axis extending through (2(c)) the axis of the die support shaft, characterized in that the die support shaft has a through-hole (2(c)) for the translational drive, and the translational drive passes through said through-hole (2(c)), to act on said pivot joint or joints interconnecting the link arms. a die support shaft, at least two working arms: mounted to rotate about the die support shaft, and arranged to each support a counter die and to rotate about the die support shaft to move the counter dies to bend a work-piece in conjunction with a die on the die support shaft, mounted to rotate about the die support shaft, and arranged to each support a counter die and to rotate about the die support shaft to move the counter dies to bend a work-piece in conjunction with a die on the die support shaft, a drive for the working arms, said drive comprising a translational drive driving link arms, said link arms being pivotally connected at their inner ends to the working arms by a pivot joint, and pivotally connected to each other at their outer ends by a pivot joint or pivot joints, and wherein the translational drive acts on a longitudinal axis extending through (2(c)) the axis of the die support shaft, characterized in that the die support shaft has a through-hole (2(c)) for the translational drive, and the translational drive passes through said through-hole (2(c)), to act on said pivot joint or joints interconnecting the link arms.
A lighting data network, comprising: a first luminaire (102 1), comprising: a processor; a first wireless communication interface configured to receive data from a machine (104 1) and transmit the data to a second luminaire (102 n); a lighting communication interface configured to transmit and receive lighting control signals; a plurality of first light emitting diodes; and a memory storing rules for determining if the data received from the machine (104 1) should be processed locally or remotely; and the second luminaire (102 n), comprising: a second wireless communication interface configured to receive the data from the first luminaire (102 1); a second lighting communication interface configured to transmit and receive the lighting control signals; and a third communication interface configured to transmit the data to a third party control system, wherein the processor of the first luminaire (102 1) is configured to determine if the data is to be processed locally by the first luminaire (102 1) or remotely by the third party control system based on the rules stored in the memory, wherein when the data is to be processed locally, the first luminaire (102 1) is configured to generate a response to the data or when the data is to be processed remotely, the first luminaire (102 1) is configured to transmit the data to the second luminaire (102 n) for transmission to the third party control system. a first luminaire (102 1), comprising: a processor; a first wireless communication interface configured to receive data from a machine (104 1) and transmit the data to a second luminaire (102 n); a lighting communication interface configured to transmit and receive lighting control signals; a plurality of first light emitting diodes; and a memory storing rules for determining if the data received from the machine (104 1) should be processed locally or remotely; and a processor; a first wireless communication interface configured to receive data from a machine (104 1) and transmit the data to a second luminaire (102 n); a lighting communication interface configured to transmit and receive lighting control signals; a plurality of first light emitting diodes; and a memory storing rules for determining if the data received from the machine (104 1) should be processed locally or remotely; and the second luminaire (102 n), comprising: a second wireless communication interface configured to receive the data from the first luminaire (102 1); a second lighting communication interface configured to transmit and receive the lighting control signals; and a third communication interface configured to transmit the data to a third a second wireless communication interface configured to receive the data from the first luminaire (102 1); a second lighting communication interface configured to transmit and receive the lighting control signals; and a third communication interface configured to transmit the data to a third party control system,
Medical device for detecting and generating resonance frequencies comprising the following modules: - a module for recording electrophysiological measurements on human or animal patients, - a storage module comprising a database with already known resonance frequency patterns, - a module for generating electromagnetic frequencies and - at least one electrode that is used both for detecting electrophysiological measurements and for imprinting the electromagnetic frequencies on the patient, wherein the device is configured for a control comprising the following steps: a) determining electrophysiological data points of the patient depending on electromagnetic frequencies imprinted on the patient, b) comparing these electrophysiological data points with a standard value for these electrophysiological data points, c) identifying at least one of the frequencies from step a), in which the electrophysiological data point deviates from the standard value, as a resonance frequency, and d) matching the at least one resonance frequency of the patient with the database of already known resonance frequency patterns. - a module for recording electrophysiological measurements on human or animal patients, - a storage module comprising a database with already known resonance frequency patterns, - a module for generating electromagnetic frequencies and - at least one electrode that is used both for detecting electrophysiological measurements and for imprinting the electromagnetic frequencies on the patient, a) determining electrophysiological data points of the patient depending on electromagnetic frequencies imprinted on the patient, b) comparing these electrophysiological data points with a standard value for these electrophysiological data points, c) identifying at least one of the frequencies from step a), in which the electrophysiological data point deviates from the standard value, as a resonance frequency, and d) matching the at least one resonance frequency of the patient with the database of already known resonance frequency patterns.
Amorphous, ductile brazing foil having a composition consisting of Ni Rest Cr a B b P c Si d C e X f Y g with 2 atomic % ≤ a ≤ 30 atomic %; 0.5 atomic % ≤ by ≤ 14 atomic %; 2 atomic % ≤ c ≤ 20 atomic %; 0 atomic % ≤ d ≤ 14 atomic %; 0 atomic % ≤ e ≤ 5 atomic %; 0 atomic % ≤ f ≤ 5 atomic %; 0 atomic % ≤ g ≤ 20 atomic %, incidental impurities ≤ 0.5 atomic %; rest Ni, wherein c > b > c/15 and 10 atomic % ≤ b + c + d ≤ 25 atomic %, and wherein X is one or more of the elements Mo, Nb, Ta, W and Cu and Y is one or both of the elements Fe and Co.
A control station (20; 120; 220) for a work platform of an aerial work platform, comprising: - a control console whereon control members are arranged; - a cover (40; 140; 240) for protecting the control console moveably mounted between: ∘ a first position in which the cover is closed to cover the control console, and ∘ a second position in which the cover is open to make it possible to manipulate the control members from the front side of the console; characterized in that the control console further comprises: - a longitudinal member (42; 142; 242) linked to the cover to simultaneously move between the first position and the second position, which longitudinal member extends at a distance along the front side of the console and protrudes with respect to the front side of the console when the cover is in the second position; and - means (35, 45) for detecting an external action (F 4) pushing the longitudinal member toward the console when the cover is in the second position. - a control console whereon control members are arranged; - a cover (40; 140; 240) for protecting the control console moveably mounted between: ∘ a first position in which the cover is closed to cover the control console, and ∘ a second position in which the cover is open to make it possible to manipulate the control members from the front side of the console; ∘ a first position in which the cover is closed to cover the control console, and ∘ a second position in which the cover is open to make it possible to manipulate the control members from the front side of the console; - a longitudinal member (42; 142; 242) linked to the cover to simultaneously move between the first position and the second position, which longitudinal member extends at a distance along the front side of the console and protrudes with respect to the front side of the console when the cover is in the second position; and - means (35, 45) for detecting an external action (F 4) pushing the longitudinal member toward the console when the cover is in the second position.
A method for determining a new key server in a network segment, the method comprising: receiving, at a first key receiver, a first secure key (SAK, SAK2) from a first key server, the first secure key used by the first key receiver in encrypting data communications sent in the network segment; determining, at the first key receiver, that a new key server needs to be elected in response to the first key server becoming unavailable; if a new key server needs to be elected, determining device information previously received from one or more further key receivers in the network segment; and automatically electing the new key server from a group of the first key receiver and the one or more further key receivers based on the device information from the one or more key receivers, the election automatically performed separately at the first key receiver, wherein the elected new key server is configured to provide a second secure key to key receivers that are not elected the new key server in the group of the first key receiver and the one or more further key receivers. receiving, at a first key receiver, a first secure key (SAK, SAK2) from a first key server, the first secure key used by the first key receiver in encrypting data communications sent in the network segment; determining, at the first key receiver, that a new key server needs to be elected in response to the first key server becoming unavailable; if a new key server needs to be elected, determining device information previously received from one or more further key receivers in the network segment; and automatically electing the new key server from a group of the first key receiver and the one or more further key receivers based on the device information from the one or more key receivers, the election automatically performed separately at the first key receiver, wherein the elected new key server is configured to provide a second secure key to key receivers that are not elected the new key server in the group of the first key receiver and the one or more further key receivers.
A location system comprising: a location network comprising a plurality of reference nodes, each operable to transmit a respective beaconing signal from which a respective measurement can be taken by a mobile device for use in determining a location of the mobile device; and characterized by comprising: at least one controller, configured to control whether and/or how often the beaconing signals emitted from the reference nodes are transmitted to be used in determining the location of the mobile device based on feedback from at least one determination of the location of the mobile device relative to the reference nodes; wherein said controlling of the beaconing signals comprises, for each of one or more of the reference nodes: activating the respective beaconing signal on condition that the location of the mobile device is within a proximity of the respective reference node, and/or deactivating the respective beaconing signal on condition that the location of the mobile device is outside a proximity of the respective reference node; wherein the at least one controller is configured to receive said feedback from the mobile device, the feedback being based on said location as determined at the mobile device using said measurements. at least one controller, configured to control whether and/or how often the beaconing signals emitted from the reference nodes are transmitted to be used in determining the location of the mobile device based on feedback from at least one determination of the location of the mobile device relative to the reference nodes; wherein said controlling of the beaconing signals comprises, for each of one or more of the reference nodes: activating the respective beaconing signal on condition that the location of the mobile device is within a proximity of the respective reference node, and/or deactivating the respective beaconing signal on condition that the location of the mobile device is outside a proximity of the respective reference node; wherein the at least one controller is configured to receive said feedback from the mobile device, the feedback being based on said location as determined at the mobile device using said measurements.
Method for controlling a circuit for the thermal regulation of a vehicle, said circuit comprising a first and a second heat exchanger which are situated in series in a direction in which an air flow intended to pass through them in this order circulates, said circuit further comprising an additional heat exchanger situated upstream of the first heat exchanger according to the direction of circulation of the air flow, said circuit being configured to allow a refrigerant fluid to circulate through the first exchanger and a heat-transfer fluid to circulate through the second exchanger and through the additional exchanger, said method comprising a step in which a flow of the heat-transfer fluid in the additional exchanger is generated or increased according to the mode of operation of the circuit, characterized in that the circuit comprises at least one valve making it possible, depending on the direction of circulation of said heat-transfer fluid, to direct the heat-transfer fluid downstream of the second exchanger selectively toward said additional exchanger or toward the rest of the circuit.
A method comprising: receiving an identifier containing at least one encrypted part at a first network entity; determining a second network entity based on the identifier; requesting for assistance in decryption of the identifier from the second network entity; and characterized by subsequent to requesting for assistance, receiving at the first network entity the identifier in a decrypted format and a public key and secret key pair along with a key identifier from the second network entity. receiving an identifier containing at least one encrypted part at a first network entity; determining a second network entity based on the identifier; requesting for assistance in decryption of the identifier from the second network entity; and characterized by subsequent to requesting for assistance, receiving at the first network entity the identifier in a decrypted format and a public key and secret key pair along with a key identifier from the second network entity.
A movable electrical generation system comprising: a generator operable to produce a supply of electrical energy; a prime mover operable to drive the generator; a first fuel; a second fuel different from the first fuel; a control system is operable to deliver one of the first fuel and the second fuel to the prime mover characterised in that: the control system is configured to control an electrical load applied to the generator based on one of a first current protection limit associated with the first fuel and a second current protection limit associated with the second fuel, wherein in response to the delivery of the first fuel to the prime mover, the control system implements the first current protection limit and controls the electrical load applied to the generator based on the first current protection limit to avoid exceeding a power rating limit of the prime mover, and wherein in response to the delivery of the second fuel to the prime mover, the control system implements the second current protection limit and controls the electrical load applied to the generator based on the second current protection limit to avoid exceeding the power rating limit of the prime mover. a generator operable to produce a supply of electrical energy; a prime mover operable to drive the generator; a first fuel; a second fuel different from the first fuel; a control system is operable to deliver one of the first fuel and the second fuel to the prime mover characterised in that: the control system is configured to control an electrical load applied to the generator based on one of a first current protection limit associated with the first fuel and a second current protection limit associated with the second fuel, wherein in response to the delivery of the first fuel to the prime mover, the control system implements the first current protection limit and controls the electrical load applied to the generator based on the first current protection limit to avoid exceeding a power rating limit of the prime mover, and wherein in response to the delivery of the second fuel to the prime mover, the control system implements the second current protection limit and controls the electrical load applied to the generator based on the second current protection limit to avoid exceeding the power rating limit of the prime mover. the control system is configured to control an electrical load applied to the generator based on one of a first current protection limit associated with the first fuel and a second current protection limit associated with the second fuel, wherein in response to the delivery of the first fuel to the prime mover, the control system implements the first current protection limit and controls the electrical load applied to the generator based on the first current protection limit to avoid exceeding a power rating limit of the prime mover, and wherein in response to the delivery of the second fuel to the prime mover, the control system implements the second current protection limit and controls the electrical load applied to the generator based on the second current protection limit to avoid exceeding the power rating limit of the prime mover.
A method for determining the thickness of a cover or support glass in a microscope (10, 78) having an objective facing a sample chamber, wherein in the sample chamber two optical media (26, 28) are adjacent to two opposite surfaces (64, 68) of the cover or support glass thereby forming two partially reflecting interfaces located at different distances from the objective, a measuring light beam is directed through the objective under oblique incidence onto the cover or support glass, two spatially separated reflection light beams (54a, 54b) are generated by partially reflecting the measuring light beam on each of the two interfaces, the two reflection light beams (54a, 54b) are received by the objective and directed to a position-sensitive detector, the incidence locations of the two reflection light beams (54a, 54b) are detected on the position-sensitive detector, and the thickness of the cover or support glass is determined on the basis of the detected incidence locations of the two reflection light beams (54a, 54b), characterized in that the two reflection light beams (54a, 54b) are simultaneously directed onto the position-sensitive detector and the thickness of the cover or support glass is determined on the basis of the mutual spacing of the different incidence locations of the two reflection light beams (54a, 54b). wherein in the sample chamber two optical media (26, 28) are adjacent to two opposite surfaces (64, 68) of the cover or support glass thereby forming two partially reflecting interfaces located at different distances from the objective, a measuring light beam is directed through the objective under oblique incidence onto the cover or support glass, two spatially separated reflection light beams (54a, 54b) are generated by partially reflecting the measuring light beam on each of the two interfaces, the two reflection light beams (54a, 54b) are received by the objective and directed to a position-sensitive detector, the incidence locations of the two reflection light beams (54a, 54b) are detected on the position-sensitive detector, and the thickness of the cover or support glass is determined on the basis of the detected incidence locations of the two reflection light beams (54a, 54b), characterized in that the two reflection light beams (54a, 54b) are simultaneously directed onto the position-sensitive detector and the thickness of the cover or support glass is determined on the basis of the mutual spacing of the different incidence locations of the two reflection light beams (54a, 54b).