mhurhangee/ep-ind-claims huggingface dataset:
A heat exchange element for building panels, comprising a thermally conductive heat conducting body, which is formed as a flexible foil made of copper or aluminum or an alloy thereof, and which has a wall thickness in the range from about 10 μm to about 100 μm, and comprising a heat transfer fluid line, which is formed from a capillary tube which is made of plastics and has an internal diameter in the range from about 2.5 mm to 3 mm, the heat transfer fluid line being connected to the heat conducting body in a thermally conductive manner, the heat transfer fluid line being embedded in thermally conductive contact in sections in preferably parallelly arranged channels made of thermally conductive material, the channels having a groove-shaped receiving portion and two tabs linked to the receiving portion, so that the channels are approximately Ω-shaped in cross-section, the tabs being connected across large areas to the heat conducting body in order to establish the thermally conductive connection of the heat transfer fluid line to the heat conducting body, and the distance between portions of the heat transfer fluid line being 1-5 cm. a thermally conductive heat conducting body, which is formed as a flexible foil made of copper or aluminum or an alloy thereof, and which has a wall thickness in the range from about 10 μm to about 100 μm, and comprising a heat transfer fluid line, which is formed from a capillary tube which is made of plastics and has an internal diameter in the range from about 2.5 mm to 3 mm, the heat transfer fluid line being connected to the heat conducting body in a thermally conductive manner, the heat transfer fluid line being embedded in thermally conductive contact in sections in preferably parallelly arranged channels made of thermally conductive material, the channels having a groove-shaped receiving portion and two tabs linked to the receiving portion, so that the channels are approximately Ω-shaped in cross-section, the tabs being connected across large areas to the heat conducting body in order to establish the thermally conductive connection of the heat transfer fluid line to the heat conducting body, and the distance between portions of the heat transfer fluid line being 1-5 cm.
A ground vehicle navigation system comprising: an inertial navigation system arranged to output an orientation estimate of the ground vehicle and a first position estimate of the ground vehicle; a terrain map comprising terrain data; a terrain gradient based navigation unit arranged to output a second position estimate of the ground vehicle based on a comparison between the orientation estimate and terrain gradient data extracted from the terrain map; and an iterative algorithm unit arranged to determine a system error state in each iteration; wherein in each iteration the iterative algorithm unit is arranged to: receive the first position estimate and the second position estimate; and update the system error state for the next iteration based on the system error state, the first position estimate and the second position estimate. an inertial navigation system arranged to output an orientation estimate of the ground vehicle and a first position estimate of the ground vehicle; a terrain map comprising terrain data; a terrain gradient based navigation unit arranged to output a second position estimate of the ground vehicle based on a comparison between the orientation estimate and terrain gradient data extracted from the terrain map; and an iterative algorithm unit arranged to determine a system error state in each iteration; wherein in each iteration the iterative algorithm unit is arranged to: receive the first position estimate and the second position estimate; and update the system error state for the next iteration based on the system error state, the first position estimate and the second position estimate. receive the first position estimate and the second position estimate; and update the system error state for the next iteration based on the system error state, the first position estimate and the second position estimate.
A method of controlling access of a user equipment, UE, performed by a mobility management entity, MME, in a wireless communication system, the method comprising: receiving, from the UE, a non access stratum, NAS, request for accessing a network; in response to the NAS request, transmitting, to a home subscriber server, HSS, a request for subscribed time control information of the UE; as a response to the request, receiving, from the HSS, the subscribed time control information including a first forbidden time interval, FTI, in which the UE is not allowed to access the network and a first granted time interval, GTI, in which the UE is allowed to access the network; determining an FTI corresponding to the first FTI or to a second FTI included in default time control information stored in the MME; determining a GTI corresponding to the first GTI or to a second GTI included in the default time control information stored in the MME; transmitting, to the UE, a NAS response including time control information including the determined FTI and the determined GTI; and providing a network service to the UE based on the determined FTI and the determined GTI. receiving, from the UE, a non access stratum, NAS, request for accessing a network; in response to the NAS request, transmitting, to a home subscriber server, HSS, a request for subscribed time control information of the UE; as a response to the request, receiving, from the HSS, the subscribed time control information including a first forbidden time interval, FTI, in which the UE is not allowed to access the network and a first granted time interval, GTI, in which the UE is allowed to access the network; determining an FTI corresponding to the first FTI or to a second FTI included in default time control information stored in the MME; determining a GTI corresponding to the first GTI or to a second GTI included in the default time control information stored in the MME; transmitting, to the UE, a NAS response including time control information including the determined FTI and the determined GTI; and providing a network service to the UE based on the determined FTI and the determined GTI.
A calibration system comprising: an excitation module that introduces an excitation signal to a primary coil of a differential transformer; a measurement module that measures, at a first phase shift that is equal to a sum of a first phase and a time shift value, a positive value of an induced signal, the induced signal being created in a secondary coil (107, 109) of the differential transformer due to the excitation signal; a calculation module that compares the positive value to a stored positive value to form a compared positive value; and a calibration module that changes the first phase shift based on the compared positive value. an excitation module that introduces an excitation signal to a primary coil of a differential transformer; a measurement module that measures, at a first phase shift that is equal to a sum of a first phase and a time shift value, a positive value of an induced signal, the induced signal being created in a secondary coil (107, 109) of the differential transformer due to the excitation signal; a calculation module that compares the positive value to a stored positive value to form a compared positive value; and a calibration module that changes the first phase shift based on the compared positive value.
Composite wall (10; 50; 60; 100) for construction, comprising a rigid or semi-rigid insulating layer (13; 113) which is inserted between two substantially parallel and aligned facing panels (11, 12; 111, 112), as well as at least one load-bearing structural insert (16; 116) which extends lengthwise between the two opposite horizontal edges (10A, 10C; 100A, 100C) of the composite wall and which is so arranged in the insulating layer (13; 113) that the insulating layer is interposed between each of the two facing panels (11, 12; 111, 112) and at least the linear portion of the load-bearing insert (16; 116), characterised in that, along a first (10A; 100A) of the two opposite horizontal edges (10A, 10C; 100A, 100C) of the composite wall (10; 50; 60; 100), the insulating layer (13; 113) forms, in its portion facing a first (12; 112) of the two facing panels (11, 12; 111, 112), a projection (13A.1; 113A.1) which extends lengthwise on the first horizontal edge of the composite wall, while its portion facing the second facing panel (11; 111) forms a first tying cavity (13A.2; 113A.2) which extends along the projection (13A.1); in that, along the second horizontal edge (10C; 100C) of the composite wall (10; 50; 60; 100), the insulating layer (13; 113) forms, in its portion facing the first facing panel (12; 112), a raised joining element (13C.1; 113C.1) which is complementary to the projection (13A.1; 113A.1) and extends lengthwise on the second horizontal edge of the composite wall, while its portion facing the second facing panel (11; 111) forms a second tying cavity (13C.2; 113C.2) which extends along the raised joining element; and in that the or each load-bearing insert (16; 116) is provided, at each of its longitudinal ends, with means (16C, 16D; 116A, 116B, 116C, 116D) for connection to a separate tying element (31, 34, 35; 131, 132) arranged in the first tying cavity (13A.2; 113A.2) or in the second tying cavity (13C; 113C.2).
A measuring system intended to be immersed in a liquid, including at least one sensor (C1, C2, C3, C4) of at least one parameter, said sensor (C1, C2, C3, C4) including at least one sensitive surface (4, 4') allowing the sensor to measure said parameter, said sensitive surface (4, 4') being intended to be in contact with the liquid, and an anti-fouling device (DA1, DA2, DA3, DA4) including at least one element (8, 8') disposed near at least part of the sensitive surface (4, 4'), means for vibrating said element (8, 8') so as to generate an acoustic wave capable of at least limiting the attachment of microorganisms to the sensitive surface (4, 4') by repelling or detaching said microorganism by moving the liquid between the element (8, 8') and the sensitive surface (4, 4'), and a control unit configured to control the means for vibrating the element (8, 8').
A secondary battery comprising: a battery element comprising a positive electrode, a negative electrode, a separator, and an electrolytic solution; and a casing sealing the battery element, wherein the electrolytic solution comprises a gel component and an organic solvent having a boiling point of 125°C or less; and the separator comprises a fiber assembly or a microporous structure composed of one or more resins selected from aramid, polyimide, and polyphenylenesulfide, and has an average void size of 0.1 μm or more, determined according to the description, and characterized in that the gel component is provided by a gelling agent including an acrylic acid ester polymer or methacrylic acid ester polymer having a crosslinkable functional group. a battery element comprising a positive electrode, a negative electrode, a separator, and an electrolytic solution; and a casing sealing the battery element, wherein the electrolytic solution comprises a gel component and an organic solvent having a boiling point of 125°C or less; and the separator comprises a fiber assembly or a microporous structure composed of one or more resins selected from aramid, polyimide, and polyphenylenesulfide, and has an average void size of 0.1 μm or more, determined according to the description, and characterized in that the gel component is provided by a gelling agent including an acrylic acid ester polymer or methacrylic acid ester polymer having a crosslinkable functional group.
A securing device for securing a decoupling device relative to a hole edge of a hole socket of a shielding part; the decoupling device has at least one bridging element, which is for the vibration-decoupling connection of a sleeve to the shielding part and which at its radial outer edge has connecting means for the secured connection of the bridging element to the hole edge of the shielding part; the connecting means have at least four tabs (10a, 10b; 11a, 11b; 10, 11) that protrude radially outward from the bridging element; and a subset of at least two tabs (10, 10a, 10b) of the bridging element is provided for contacting a first outside of the shielding part, characterized in that a remainder of at least two tabs (11, 11a, 11b) is provided for contacting an opposite second outside of the shielding part and by means of the tabs (10, 10a, 10b) of the subset and the tabs (11, 11a, 11b) of the remainder, it is possible to immobilize the hole edge relative to the decoupling device by means of a force fit.
A method of configuring a user equipment for establishing an emergency session, the user equipment being wirelessly connected to a communications network, the method comprising: sending a request to the communications network; receiving, via the communications network, configuration information indicative of two or more networks available (102, 122, 124, 610, 612) for the establishing of the emergency session, wherein the configuration information indicates a rank for each of the two or more available networks (102, 122, 124, 610, 612), the rank indicating the order in which the two or more available networks are to be tried for establishing the emergency session, wherein the configuration information includes an indicator of a geographical area (604, 606) in association with each of the two or more available networks (102, 122, 124, 610, 612), and wherein the configuration information is received inserted into a response (810; 1008) to the request; maintaining a list of networks available for the establishing of the emergency session based on the received configuration information; and initiating the establishment of the emergency session on at least one of the two or more networks (102, 122, 124, 610, 612) in the list, wherein the at least one network on which the emergency session is initiated is selected from the list based on the associated rank and the associated geographical area (604, 606). sending a request to the communications network; receiving, via the communications network, configuration information indicative of two or more networks available (102, 122, 124, 610, 612) for the establishing of the emergency session, wherein the configuration information indicates a rank for each of the two or more available networks (102, 122, 124, 610, 612), the rank indicating the order in which the two or more available networks are to be tried for establishing the emergency session, wherein the configuration information includes an indicator of a geographical area (604, 606) in association with each of the two or more available networks (102, 122, 124, 610, 612), and wherein the configuration information is received inserted into a response (810; 1008) to the request; maintaining a list of networks available for the establishing of the emergency session based on the received configuration information; and initiating the establishment of the emergency session on at least one of the two or more networks (102, 122, 124, 610, 612) in the list, wherein the at least one network on which the emergency session is initiated is selected from the list based on the associated rank and the associated geographical area (604, 606).
System for ascertaining the energy consumption of an individual load that is connected to a power supply system in a building, wherein the system comprises a bus-based building automation system, having sensors outputting information to the bus and/or transmitting switching commands and actuators receiving switching commands in order to control and/or switch the load, and having a consumption ascertainment device for ascertaining information regarding the power consumption in the power supply system, wherein the building automation system is configured to combine information regarding the time characteristic of the power consumption in the power supply system with information from switching commands associated with the individual load in order to obtain therefrom information regarding the energy consumption of the individual load and an analysis apparatus is integrated in the building automation system, characterized in that the analysis apparatus is configured so as, in response to a switching command being transmitted to an actuator, to combine the information regarding a change in the overall power consumption in the power supply system with information from the transmitted switching command in order to obtain therefrom information regarding the type of load associated with the actuator, the location of the load and the power consumption of the load, and to derive information regarding the switched-on period of the load from information from switching commands transmitted to the actuator, and to combine said information with the information regarding the power consumption of the load in order to ascertain the energy consumption of the load.
An aircraft control surface actuation system (4; 204) comprising: a rotary driver; and three or more actuator modules (16; 216a-d), wherein each actuator module comprises an electromechanical linear actuator (18; 218), characterised in that each actuator module comprises a lever arm (20; 220) connected between the electromechanical linear actuator and the rotary driver, and wherein each actuator module is connected to the rotary driver such that the three or more actuator modules are configured to drive rotation of the rotary driver in combination using the sum of the output of the three or more actuator modules to provide the total torque output required to move a control surface against a load acting thereon. a rotary driver; and three or more actuator modules (16; 216a-d), wherein each actuator module comprises an electromechanical linear actuator (18; 218), characterised in that each actuator module comprises a lever arm (20; 220) connected between the electromechanical linear actuator and the rotary driver, and wherein each actuator module is connected to the rotary driver such that the three or more actuator modules are configured to drive rotation of the rotary driver in combination using the sum of the output of the three or more actuator modules to provide the total torque output required to move a control surface against a load acting thereon.
A method for preparing metal difluoroborates of the general formula wherein M + is a monovalent cation selected from the group lithium, sodium, potassium, or ammonium NR 4 +, wherein R = H, alkyl (C1 to C8), and L is a chelating agent having two terminal oxygen atoms with the general formula wherein: when m = 1 and Y 1 and Y 2 together with C 1 stand for a carbonyl group, n = 0 or 1 and o = 0 or 1, and R 1 and R 2 are each independently H or alkyl with one to eight carbon atoms (C1-C8), and Y 3, Y 4 are each independently OR 3 (R 3 = C1-C8 alkyl), then when n or o ≠ 1: p = 0 or 1, and when n and o = 0, p = 1; or Y 1, Y 2, Y 3, Y 4 are each independently OR 3 (R 3 = C1-C8 alkyl), m = 1, n = 0 or 1, o = 1, and p = 0; or C 2 and C 3 are members of a 5- or 6-membered aromatic or heteroaromatic ring (with N, O, or S as heteroelement) which may optionally be substituted with alkyl, alkoxy, carboxy, or nitrile, wherein R 1, R 2, Y 3, and Y 4 are absent, m = 0, or in the case of 1, Y 1 and Y 2 together with C 1 stand for a carbonyl group, and p is 0 or 1, by reaction of a metal bis(chelato)borate of the formula M[BL 2] with boron trifluoride and a metal fluoride and/or a metal salt of the chelate ligand (M 2 L) in an organic, aprotic solvent. when m = 1 and Y 1 and Y 2 together with C 1 stand for a carbonyl group, n = 0 or 1 and o = 0 or 1, and R 1 and R 2 are each independently H or alkyl with one to eight carbon atoms (C1-C8), and Y 3, Y 4 are each independently OR 3 (R 3 = C1-C8 alkyl), then when n or o ≠ 1: p = 0 or 1, and when n and o = 0, p = 1; or Y 1, Y 2, Y 3, Y 4 are each independently OR 3 (R 3 = C1-C8 alkyl), m = 1, n = 0 or 1, o = 1, and p = 0; or C 2 and C 3 are members of a 5- or 6-membered aromatic or heteroaromatic ring (with N, O, or S as heteroelement) which may optionally be substituted with alkyl, alkoxy, carboxy, or nitrile, wherein R 1, R 2, Y 3, and Y 4 are absent, m = 0, or in the case of 1, Y 1 and Y 2 together with C 1 stand for a carbonyl group, and p is 0 or 1, by reaction of a metal bis(chelato)borate of the formula M[BL 2] with boron trifluoride and a metal fluoride and/or a metal salt of the chelate ligand (M 2 L) in an organic, aprotic solvent.
A method for transmitting data in a wireless communication system including a core network, a serving network cell serving a user equipment, UE,, and an auxiliary network cell, wherein the serving network cell and the auxiliary network cell are connected via a backhaul interface over which control information is routed from the serving cell to the network cell, the method comprising: receiving, by the UE, control signaling from the serving network cell; and receiving, by the UE, data in at least one transmission from the serving network cell and the auxiliary network cell in accordance with the control signaling, the at least one transmission being cooperatively conducted by the serving network cell and the auxiliary network cell, wherein the data received from the serving network cell is routed from the core network to the serving network cell and the data received from the auxiliary network cell is routed from the core network to the auxiliary network cell without being routed over the backhaul interface. receiving, by the UE, control signaling from the serving network cell; and receiving, by the UE, data in at least one transmission from the serving network cell and the auxiliary network cell in accordance with the control signaling, the at least one transmission being cooperatively conducted by the serving network cell and the auxiliary network cell, wherein the data received from the serving network cell is routed from the core network to the serving network cell and the data received from the auxiliary network cell is routed from the core network to the auxiliary network cell without being routed over the backhaul interface.
An apparatus for managing performance of a random number generator which comprises at least one light source and an image sensor including at least one pixel, the apparatus comprising: an output identification unit configured to, when a light signal radiated from the at least one light source is input into the image sensor, identify an output value of each pixel corresponding to a light intensity value of a light signal input into the each pixel; a performance analysis unit configured to analyze performance of each pixel using the output value of each pixel and a preset statistical characteristic reference area which is a range of the light intensity value; and a setting change unit configured to change a setting value for at least one of the light source and the image sensor based on a result of analysis of the performance of each pixel. an output identification unit configured to, when a light signal radiated from the at least one light source is input into the image sensor, identify an output value of each pixel corresponding to a light intensity value of a light signal input into the each pixel; a performance analysis unit configured to analyze performance of each pixel using the output value of each pixel and a preset statistical characteristic reference area which is a range of the light intensity value; and a setting change unit configured to change a setting value for at least one of the light source and the image sensor based on a result of analysis of the performance of each pixel.