mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a network controller unit (120A, 120B) of a wireless communication network comprising at least one user equipment UE (130A, 130B) capable of communicating with a network unit (110A, 110B), said UE (130A, 130B) and said network unit (110A, 110B) being configured to have one or several receive and/or transmit antennas, said method characterized in that it comprises: - receiving from said network unit (110A, 110B) at least one report indicating a recommendation on a transmission/reception mode to be used by said UE (130A, 130B) in said network, wherein the recommendation indicates a number of transmit/receive antennas to be used by said UE (130A, 130B); - deciding on a transmission/reception mode to be used by said UE (130A, 130B), by selecting between MIMO mode and non-MIMO mode, depending on the number of transmit/receive antennas indicated in the recommendation; - informing said network unit (110A, 110B), in a signalling message, a decision on a transmission/reception mode to be used by said UE (130A, 130B); and informing from said network unit (110A, 110B) to said UE (130A, 130B), in said signalling message, said decision made by said network controller unit (120A, 120B). - receiving from said network unit (110A, 110B) at least one report indicating a recommendation on a transmission/reception mode to be used by said UE (130A, 130B) in said network, wherein the recommendation indicates a number of transmit/receive antennas to be used by said UE (130A, 130B); - deciding on a transmission/reception mode to be used by said UE (130A, 130B), by selecting between MIMO mode and non-MIMO mode, depending on the number of transmit/receive antennas indicated in the recommendation; - informing said network unit (110A, 110B), in a signalling message, a decision on a transmission/reception mode to be used by said UE (130A, 130B); and informing from said network unit (110A, 110B) to said UE (130A, 130B), in said signalling message, said decision made by said network controller unit (120A, 120B).
Console device for a cockpit device, in particular for commercial vehicles, wherein the console device is arranged along a width axis Y' substantially centrally to the cockpit device and is displaceable along a longitudinal axis X' relative to the cockpit device, wherein a base body of the console device can be arranged on a vehicle body by means of a rail apparatus, wherein the rail apparatus comprises at least one arresting device which arrests a displacement of the console device in a standby state, characterised in that the rail apparatus comprises at least one rail device which has a substantially U-shaped slide rail and a substantially U-shaped stationary rail, wherein the slide rail at least partially engages around the stationary rail and is displaceable relative to the stationary rail, wherein at least one bearing element is arranged between the slide rail and the stationary rail, wherein at least one toothed rack is provided on the stationary rail, wherein the toothed rack has a plurality of teeth and outwardly open locking openings arranged between the teeth.
Device for protecting an electronic payment terminal comprising: - at least one capacitive detector 13 placed between a lower mechanical supporting element 12 of a keypad of said terminal and an upper mechanical supporting element 14 of said keypad of said terminal, said at least one detector being configured to deliver a reference capacitance; - a capacitive measurement microprocessor electrically connected to said at least one capacitive detector 13, configured to detect a variation of capacitance of said at least one capacitive measurement support; - means for transmitting a piece of information representing said capacitive variation, when an absolute value of a difference between said measured capacitance and said reference capacitance exceeds a predetermined threshold characterized in that said capacitive detector 13 is conformed so that it extends between the holes of said lower mechanical supporting element 12 and in that said capacitive detector has the general shape of a rake with a plurality of teeth (13-2 to 13-9). - at least one capacitive detector 13 placed between a lower mechanical supporting element 12 of a keypad of said terminal and an upper mechanical supporting element 14 of said keypad of said terminal, said at least one detector being configured to deliver a reference capacitance; - a capacitive measurement microprocessor electrically connected to said at least one capacitive detector 13, configured to detect a variation of capacitance of said at least one capacitive measurement support; - means for transmitting a piece of information representing said capacitive variation, when an absolute value of a difference between said measured capacitance and said reference capacitance exceeds a predetermined threshold characterized in that said capacitive detector 13 is conformed so that it extends between the holes of said lower mechanical supporting element 12 and in that said capacitive detector has the general shape of a rake with a plurality of teeth (13-2 to 13-9).
Plate device for a grinding machine, in particular for a single-disc floor grinding machine, for working a jointing material into parquet floors, wood floors or the like, comprising: a disc-shaped carrier plate, which has a rotating shaft and a surface facing the floor; and a plurality of wing elements in the form of sheet metal strips, which each have a fastening portion for fastening the plurality of wing elements to the surface of the carrier plate facing the floor and each have a scraper edge which during operation lies at least in part on the floor to be machined; the plurality of wing elements being arranged around the rotating shaft of the carrier plate in the circumferential direction to form an internal jointing material region, in such a way that, during a rotation of the carrier plate during operation, the plurality of wing elements bring about a scraper movement for working the jointing material located within the jointing material region into the floor to be machine, characterised in that the plurality of wing elements are arranged so as to exert a force component on the jointing material located within the jointing material region in such a way that the plurality of wing elements convey the jointing material towards the inner face of the carrier plate, counter to centrifugal force, to enclose the jointing material within the jointing material region. a disc-shaped carrier plate, which has a rotating shaft and a surface facing the floor; and a plurality of wing elements in the form of sheet metal strips, which each have a fastening portion for fastening the plurality of wing elements to the surface of the carrier plate facing the floor and each have a scraper edge which during operation lies at least in part on the floor to be machined; the plurality of wing elements being arranged around the rotating shaft of the carrier plate in the circumferential direction to form an internal jointing material region, in such a way that, during a rotation of the carrier plate during operation, the plurality of wing elements bring about a scraper movement for working the jointing material located within the jointing material region into the floor to be machine, characterised in that the plurality of wing elements are arranged so as to exert a force component on the jointing material located within the jointing material region in such a way that the plurality of wing elements convey the jointing material towards the inner face of the carrier plate, counter to centrifugal force, to enclose the jointing material within the jointing material region.
A method for specifically detecting a Herpes Simplex Virus-1 (HSV-1) target nucleic acid in a sample comprising the steps of: (a) providing a sample suspected of containing at least a HSV-1 target nucleic acid; (b) contacting said sample with at least two amplification oligomers, wherein a first amplification oligomer comprises a target hybridizing sequence of 15 to 45 nucleotides in length and is configured to target a sequence in a region of the HSV-1 US8.5 ORF corresponding to nucleotides 124 to 156 of SEQ ID NO:1 and wherein a second amplification oligomer comprises a target hybridizing sequence of 15 to 45 nucleotides in length and is configured to target a sequence in a region of the HSV-1 US8.5 ORF corresponding to nucleotides 208 to 230 of SEQ ID NO:1, wherein said second amplification oligomer further comprises a 5' promoter sequence; (c) performing an isothermal transcription mediated amplification reaction; and (d) performing a nucleic acid detection reaction that detects an amplification product to determine whether a HSV-1 target nucleic acid is present in said sample. (a) providing a sample suspected of containing at least a HSV-1 target nucleic acid; (b) contacting said sample with at least two amplification oligomers, wherein a first amplification oligomer comprises a target hybridizing sequence of 15 to 45 nucleotides in length and is configured to target a sequence in a region of the HSV-1 US8.5 ORF corresponding to nucleotides 124 to 156 of SEQ ID NO:1 and wherein a second amplification oligomer comprises a target hybridizing sequence of 15 to 45 nucleotides in length and is configured to target a sequence in a region of the HSV-1 US8.5 ORF corresponding to nucleotides 208 to 230 of SEQ ID NO:1, wherein said second amplification oligomer further comprises a 5' promoter sequence; (c) performing an isothermal transcription mediated amplification reaction; and (d) performing a nucleic acid detection reaction that detects an amplification product to determine whether a HSV-1 target nucleic acid is present in said sample.
Bracing system for the reinforcement of excavation pits with minimal hindrance in the excavation area of the excavation pit due to the reinforcement, whereby a large contiguous opening of the excavation pit can be produced for the vertical transport of loads, wherein the bracing system comprises at least one bracing in the form of a convex polygon or polygon segment with sides and corners, at least one polygon side element made of steel and at least one other steel element, characterized in that the bracing system also comprises at least one steel pressure element in the form of a connecting element made of steel with an assembly table, wherein the assembly table is a planar surface, onto which elements of the bracing system can be placed.
An optical alignment system for a dual-optical displacement sensor, the optical alignment system including a scanner comprising a first scanner head including a first optical displacement sensor for providing a first beam having a first optical axis and a second scanner head including a second optical displacement sensor for providing a second beam having a second optical axis, comprising: at least one alignment target comprising at least one knife edge pair including a first knife edge and a spaced apart second knife edge oriented along lines in a first plane of the alignment target that is essentially perpendicular to the first and the second optical axis positioned between the first scanner head and the second scanner head for interacting with the first beam and the second beam; a photodetector (140a5, 140b5) in at least one of the first and second scanner head for collecting time versus position data comprising from measurements involving the alignment target in a path of the first beam and measurements involving the alignment target in a path of the second beam path, and a computing device (140a1) or a programmed circuit implementing at least one equation coupled to receive and analyze the time versus position data for determining a degree of alignment of the first optical axis relative to the second optical axis. at least one alignment target comprising at least one knife edge pair including a first knife edge and a spaced apart second knife edge oriented along lines in a first plane of the alignment target that is essentially perpendicular to the first and the second optical axis positioned between the first scanner head and the second scanner head for interacting with the first beam and the second beam; a photodetector (140a5, 140b5) in at least one of the first and second scanner head for collecting time versus position data comprising from measurements involving the alignment target in a path of the first beam and measurements involving the alignment target in a path of the second beam path, and a computing device (140a1) or a programmed circuit implementing at least one equation coupled to receive and analyze the time versus position data for determining a degree of alignment of the first optical axis relative to the second optical axis.
A method comprising: receiving a query from a particular endpoint device identifying a particular wireless access point encountered by the particular endpoint device with regard to the riskiness of the wireless access point; determining whether pre-existing risk assessment data exists for the identified particular wireless access point; characterized in that the method further comprises sending query result data to the particular endpoint device; and participating in a risk assessment of the particular wireless access point with the particular endpoint device, wherein the risk assessment includes: the particular endpoint device attempting to communicate with a trusted endpoint over the particular wireless access point; and monitoring the attempted communication with the trusted endpoint over the particular wireless access point to assess risk associated with the particular wireless access. receiving a query from a particular endpoint device identifying a particular wireless access point encountered by the particular endpoint device with regard to the riskiness of the wireless access point; determining whether pre-existing risk assessment data exists for the identified particular wireless access point; characterized in that the method further comprises sending query result data to the particular endpoint device; and participating in a risk assessment of the particular wireless access point with the particular endpoint device, wherein the risk assessment includes: the particular endpoint device attempting to communicate with a trusted endpoint over the particular wireless access point; and monitoring the attempted communication with the trusted endpoint over the particular wireless access point to assess risk associated with the particular wireless access. the particular endpoint device attempting to communicate with a trusted endpoint over the particular wireless access point; and monitoring the attempted communication with the trusted endpoint over the particular wireless access point to assess risk associated with the particular wireless access.
A deformable aircraft window assembly, comprising: an outer first panel having an outwardly-facing first surface and an inwardly-facing second surface, and an inner second panel spaced from the first panel and having an outwardly-facing third surface and an inwardly-facing fourth surface, wherein in a first state in which there is no pressure difference between the first surface and the second surface the first panel has a first cross-sectional shape, and wherein in a second state in which there is a pressure difference between first surface and the second surface, the first panel has an outwardly convex shape, wherein the first cross-sectional shape of the first panel is selected from the group consisting of planar, outwardly convex, and inwardly convex, characterized in that the deformable aircraft window assembly includes a gradient coating having a thickness variation across a length or width thereof, located on one of said surfaces of the first panel and/or on one of said surfaces of the second panel, and having a peripheral thickness greater than a center thickness or a peripheral thickness less than a center thickness. an outer first panel having an outwardly-facing first surface and an inwardly-facing second surface, and an inner second panel spaced from the first panel and having an outwardly-facing third surface and an inwardly-facing fourth surface, wherein in a first state in which there is no pressure difference between the first surface and the second surface the first panel has a first cross-sectional shape, and wherein in a second state in which there is a pressure difference between first surface and the second surface, the first panel has an outwardly convex shape, wherein the first cross-sectional shape of the first panel is selected from the group consisting of planar, outwardly convex, and inwardly convex,
A self-retaining suture comprising a plurality of sections (140; 142; 144; 146; 148) and a plurality of retainers wherein: at least one section has features different from the features of at least one other section, wherein the features are fixed properties of the suture, such as material, retainer configuration, nominal diameter, or needle configuration, and said at least one section has a plurality of markers (152; 154; 156) which allows it to be distinguished from said at least one other section, wherein the markers are non-visible and are configured to be read, scanned and decoded by a machine. at least one section has features different from the features of at least one other section, wherein the features are fixed properties of the suture, such as material, retainer configuration, nominal diameter, or needle configuration, and said at least one section has a plurality of markers (152; 154; 156) which allows it to be distinguished from said at least one other section, wherein the markers are non-visible and are configured to be read, scanned and decoded by a machine.
A connector, wherein the connector comprises: a volt current condenser terminal, a ground terminal, a D+ data transmission terminal, a D- data transmission terminal, and an enclosure, wherein the enclosure is provided with a first positioning hole for fastening the volt current condenser terminal, a second positioning hole for fastening the ground terminal, a third positioning hole for fastening the D+ data transmission terminal, and a fourth positioning hole for fastening the D- data transmission terminal; at least one of a hole depth of the first positioning hole or a hole depth of the second positioning hole is different from a hole depth of the third positioning hole and is different from a hole depth of the fourth positioning hole; at least one of a length of the volt current condenser terminal or a length of the ground terminal is different from a length of the D+ data transmission terminal and is different from a length of the D- data transmission terminal; and the hole depth of the first positioning hole is set corresponding to the length of the volt current condenser terminal, and the hole depth of the second positioning hole is set corresponding to the length of the ground terminal, characterized in that the third positioning hole is staggered from the first positioning hole, the third positioning hole is staggered from the second positioning hole, the fourth positioning hole is staggered from the first positioning hole, and the fourth positioning hole is staggered from the second positioning hole, so that a height difference is formed between their respective terminals (11, 12,13,14). a volt current condenser terminal, a ground terminal, a D+ data transmission terminal, a D- data transmission terminal, and an enclosure, wherein the enclosure is provided with a first positioning hole for fastening the volt current condenser terminal, a second positioning hole for fastening the ground terminal, a third positioning hole for fastening the D+ data transmission terminal, and a fourth positioning hole for fastening the D- data transmission terminal; at least one of a hole depth of the first positioning hole or a hole depth of the second positioning hole is different from a hole depth of the third positioning hole and is different from a hole depth of the fourth positioning hole; at least one of a length of the volt current condenser terminal or a length of the ground terminal is different from a length of the D+ data transmission terminal and is different from a length of the D- data transmission terminal; and the hole depth of the first positioning hole is set corresponding to the length of the volt current condenser terminal, and the hole depth of the second positioning hole is set corresponding to the length of the ground terminal, characterized in that the third positioning hole is staggered from the first positioning hole, the third positioning hole is staggered from the second positioning hole, the fourth positioning hole is staggered from the first positioning hole, and the fourth positioning hole is staggered from the second positioning hole, so that a height difference is formed between their respective terminals (11, 12,13,14).
A power meter device comprising: a body comprising a torque input section and a torque output section, the body configured to transmit power between the torque input section and the torque output section, the -Etorque input section adapted to be coupled to a crank arm, wherein the body is rotatable about a rotation axis, characterized in that, the torque output section comprising an outer periphery comprising threads (304, 1304) adapted to be coupled to a chainring structure (320; 1320; 2320; 3320), wherein the threads (304; 1304) skip at least one thread; and a plurality of strain measurement devices coupled to the body, the plurality of strain measurement devices configured to provide a signal indicative of strain detected in the body; and circuitry interpreting the signal and determining a corresponding power transmitted between the torque input section and the torque output section. a body comprising a torque input section and a torque output section, the body configured to transmit power between the torque input section and the torque output section, the -Etorque input section adapted to be coupled to a crank arm, wherein the body is rotatable about a rotation axis, characterized in that, the torque output section comprising an outer periphery comprising threads (304, 1304) adapted to be coupled to a chainring structure (320; 1320; 2320; 3320), wherein the threads (304; 1304) skip at least one thread; and a plurality of strain measurement devices coupled to the body, the plurality of strain measurement devices configured to provide a signal indicative of strain detected in the body; and circuitry interpreting the signal and determining a corresponding power transmitted between the torque input section and the torque output section.
A method of configuring a monitoring node having a processor to monitor monitored nodes executing at least one process, the method comprising: upon receiving a request to monitor a monitored node, register at least one process of the monitored node for monitoring; receive a logic from the monitored node, the logic to be performed when a process of the monitored node reports a particular state, wherein said logic regards an invocation of a function or a set of instructions; upon receiving the logic from the monitored node, store the logic; receive a report of the particular state from the process of the monitored node; upon receiving the state from the process of the monitored node, record the state of the process; and perform the logic resulting in a request to the monitored node to restart the process on the monitored node. upon receiving a request to monitor a monitored node, register at least one process of the monitored node for monitoring; receive a logic from the monitored node, the logic to be performed when a process of the monitored node reports a particular state, wherein said logic regards an invocation of a function or a set of instructions; upon receiving the logic from the monitored node, store the logic; receive a report of the particular state from the process of the monitored node; upon receiving the state from the process of the monitored node, record the state of the process; and perform the logic resulting in a request to the monitored node to restart the process on the monitored node.