mhurhangee/ep-ind-claims huggingface dataset:
An antenna device for radio communications in a wearable device, comprising: - a ground plate having an arc shape and covering a circle sector, - a first antenna plate extending essentially parallel to the ground plate and connected thereto at a first end portion of the ground plate, the first antenna plate having a first feed terminal, and - a second antenna plate extending essentially parallel to a the ground plate and connected thereto at a second end portion of the ground plate opposite to the first end portion of the ground plate, the second antenna plate having a second feed terminal, wherein - a gap is provided between the first antenna plate and the second antenna plate, wherein the first and second antenna plates are arc shaped, each covering part of the circle sector covered by the ground plate. - a ground plate having an arc shape and covering a circle sector, - a first antenna plate extending essentially parallel to the ground plate and connected thereto at a first end portion of the ground plate, the first antenna plate having a first feed terminal, and - a second antenna plate extending essentially parallel to a the ground plate and connected thereto at a second end portion of the ground plate opposite to the first end portion of the ground plate, the second antenna plate having a second feed terminal, wherein - a gap is provided between the first antenna plate and the second antenna plate,
A method for preparing a 2-cyanoethyl group-containing polymer comprising the steps of: reacting acrylonitrile and a hydroxyl group-containing compound in the presence of a reaction medium comprising acetone to form a crude product including a 2-cyanoethyl group-containing polymer; and extracting the crude product with an extraction solvent including an organic solvent to form a purified 2-cyanoethyl group-containing polymer, wherein the organic solvent has a Hansen solubility parameter distance for the 2-cyanoethyl group-containing polymer of 7.0 to 10.0, wherein the organic solvent has a Hansen solubility parameter distance for acetone of 5.0 to 12.5, wherein the extraction step is performed two to five times, and wherein the extraction step is performed by the step using the extraction solvent including the organic solvent alone, and then the step of extracting with water once to three times. reacting acrylonitrile and a hydroxyl group-containing compound in the presence of a reaction medium comprising acetone to form a crude product including a 2-cyanoethyl group-containing polymer; and extracting the crude product with an extraction solvent including an organic solvent to form a purified 2-cyanoethyl group-containing polymer, wherein the organic solvent has a Hansen solubility parameter distance for the 2-cyanoethyl group-containing polymer of 7.0 to 10.0, wherein the organic solvent has a Hansen solubility parameter distance for acetone of 5.0 to 12.5, wherein the extraction step is performed two to five times, and wherein the extraction step is performed by the step using the extraction solvent including the organic solvent alone, and then the step of extracting with water once to three times.
A method for monitoring a blow-moulding device for producing a hollow body, wherein the blow-moulding device has at least one process valve unit for feeding a process fluid into a preform of the hollow body under process pressure, and wherein the process valve unit has at least one electrically operated valve, characterized in that at least one value of an electric current of the electrically operated valve is detected during a blowing process.
A method for creating in a display space an ambience lighting effect in support of moving images, wherein the display space comprises a screen configured to display the moving images and a display space light source configured to provide the ambience lighting effect, wherein the moving images are representative of a stage performance performed in a performance space, and wherein the method comprises the step of: displaying the moving images on the screen in the display space, while creating in the display space with the display space light source the ambience lighting effect at least based on ambience lighting effect input data, characterized in that the method further comprises the step of: deriving the ambience lighting effect input data from an analysis of a video shot at the time of the stage performance by a video camera configured to monitor at least a part of an audience present in the performance space at the time of the stage performance. displaying the moving images on the screen in the display space, while creating in the display space with the display space light source the ambience lighting effect at least based on ambience lighting effect input data, characterized in that the method further comprises the step of: deriving the ambience lighting effect input data from an analysis of a video shot at the time of the stage performance by a video camera configured to monitor at least a part of an audience present in the performance space at the time of the stage performance.
A method for identifying suspicious traffic, comprising the following steps: - Establishing a communication between a device under test and a network simulator; - Monitoring, by the network simulator, exchanged data between the device under test and the network simulator, wherein at least a portion of the data exchanged is encrypted; - Identifying the type of application that causes the data exchange by means of a deep packet inspection module, wherein the deep packet inspection module uses at least part of the header information of the data exchanged to identify the type of application that causes the data exchange; and - Using prerecorded data, by an artificial intelligence module connected with the network simulator, to identify malicious data within the data exchanged, wherein the artificial intelligence module uses signaling information, internet protocol information and deep packet inspection information to identify unexpected packets in the data exchanged and the traffic content type without decrypting the data exchanged by using information directly accessible. - Establishing a communication between a device under test and a network simulator; - Monitoring, by the network simulator, exchanged data between the device under test and the network simulator, wherein at least a portion of the data exchanged is encrypted; - Identifying the type of application that causes the data exchange by means of a deep packet inspection module, wherein the deep packet inspection module uses at least part of the header information of the data exchanged to identify the type of application that causes the data exchange; and - Using prerecorded data, by an artificial intelligence module connected with the network simulator, to identify malicious data within the data exchanged, wherein the artificial intelligence module uses signaling information, internet protocol information and deep packet inspection information to identify unexpected packets in the data exchanged and the traffic content type without decrypting the data exchanged by using information directly accessible.
Process for producing an oxygen-consuming electrode, comprising the steps of: a) precipitating silver oxide by adding a silver salt solution, preferably a silver nitrate solution, to an initial charge of an alkaline solution, especially of an aqueous NaOH solution, the metering time here being less than 10 min, preferably less than 1 min, then stirring the suspension over a period of at most 10 min, preferably at most 5 min, in the course of which the temperature of the suspension is kept within a range from 10°C to 50°C, preferably from 25°C to 30°C, b) removing the precipitated silver oxide from step a) from the suspension, more particularly by once or more than once filtering the suspension and washing the silver oxide, c) drying the silver oxide at a temperature in the range from 80°C to 200°C, optionally under reduced pressure, wherein the silver oxide after the drying in step c) has a BET surface area, measured to DIN ISO 9277, in the range from 0.4 to 0.7 m 2 /g, d) further processing the resulting silver oxide with an electrically conductive support material, a catalyst comprising silver particles, and a finely divided fluorinated polymer to give a flat oxygen-consuming electrode. a) precipitating silver oxide by adding a silver salt solution, preferably a silver nitrate solution, to an initial charge of an alkaline solution, especially of an aqueous NaOH solution, the metering time here being less than 10 min, preferably less than 1 min, then stirring the suspension over a period of at most 10 min, preferably at most 5 min, in the course of which the temperature of the suspension is kept within a range from 10°C to 50°C, preferably from 25°C to 30°C, b) removing the precipitated silver oxide from step a) from the suspension, more particularly by once or more than once filtering the suspension and washing the silver oxide, c) drying the silver oxide at a temperature in the range from 80°C to 200°C, optionally under reduced pressure, wherein the silver oxide after the drying in step c) has a BET surface area, measured to DIN ISO 9277, in the range from 0.4 to 0.7 m 2 /g, d) further processing the resulting silver oxide with an electrically conductive support material, a catalyst comprising silver particles, and a finely divided fluorinated polymer to give a flat oxygen-consuming electrode.
A concrete-reinforcing shaped body suitable to be fed into a mixing machine to make fiber reinforced concrete comprising concrete-reinforcing fibers and having a plate-like shape, wherein the concrete-reinforcing shaped body has a first end face continuous with a first major face and with a second major face that is opposite the first major face, and a second end face continuous with the first major face and with the second major face and that is opposite the first end, and characterized in that the second end face is thinner than the first end face, and wherein the second end face has a thickness that is 5% to 50%, inclusive, of a thickness of the first end face.
A video alignment system comprising: a light source for illuminating a spot in a scene, the light source being temporally modulated in cycles according to a pseudorandom noise code having a corresponding correlator function; a video camera that captures digital images of the scene; and a processor configured to receive frames of digital image data from the video camera, form correlation sums that are sums of products of video pixel intensities and correlator function values for each frame, normalize the correlation sums of a cycle to +1 vote for positive correlation sums and -1 vote for negative correlation sums, and identify a pixel in the digital images as a location of the spot on the basis of pixel vote totals accumulated during at least two cycles. a light source for illuminating a spot in a scene, the light source being temporally modulated in cycles according to a pseudorandom noise code having a corresponding correlator function; a video camera that captures digital images of the scene; and a processor configured to receive frames of digital image data from the video camera, form correlation sums that are sums of products of video pixel intensities and correlator function values for each frame, normalize the correlation sums of a cycle to +1 vote for positive correlation sums and -1 vote for negative correlation sums, and identify a pixel in the digital images as a location of the spot on the basis of pixel vote totals accumulated during at least two cycles. receive frames of digital image data from the video camera, form correlation sums that are sums of products of video pixel intensities and correlator function values for each frame, normalize the correlation sums of a cycle to +1 vote for positive correlation sums and -1 vote for negative correlation sums, and identify a pixel in the digital images as a location of the spot on the basis of pixel vote totals accumulated during at least two cycles.
A modified bituminous mixture suitable for use in asphalt pavements on roads, characterized by comprising bitumen with a penetration value from 40 to 100 dmm, a styrene-conjugated diene triblock copolymer as a first additive by weight of 3 to 7%, a viscosity-lowering agent as a second additive by weight of 0.1 to 1%, and a carbon-based solid Petroleum coke as a third additive with a particle size between 0.3 mm to 1.18 mm by weight of 5 to 25%, which is a product of delayed coking units of refineries.
Portable object comprising a control stem, the actuation of which in rotation can control at least one electronic or mechanical function of the portable object, a magnetized ring being driven in rotation by the control stem, two inductive sensors being arranged to detect the rotation of the control stem and the position of the latter, the two inductive sensors being arranged to be sensitive to a variation in magnetic induction produced by rotation of the magnetized ring in only two directions in space, which are parallel to each other, the portable object being characterized in that it includes a frame arranged to serve as a cradle for the control stem, the inductive sensors being disposed inside at least one housing arranged in the frame inside which said sensors are held by elastic means.
A method of processing a positioning reference signal, the method comprising: receiving, by a narrow-band, NB, user equipment, UE, (11, 12; 100) NB positioning reference signal, PRS, configuration information configured for the NB UE, the NB PRS configuration information comprising: an NB PRS bitmap indicating a pattern for selecting NB PRS subframes, wherein each NB PRS subframe comprises an NB PRS for positioning the NB UE (11, 12; 100), and wherein the NB PRS bitmap is configured to indicate a plurality of nonconsecutive NB PRS subframes in each radio frame of one or more radio frames corresponding to one repetition of the NB PRS bitmap; determining, by the NB UE (11, 12; 100) and based on a plurality of repetitions of the NB PRS bitmap, a first NB PRS mapped in NB PRS subframes of an NB PRS reference cell; determining, by the NB UE (11, 12; 100) and based on a plurality of repetitions of the NB PRS bitmap, a second NB PRS mapped in NB PRS subframes of an NB PRS neighbor cell; generating, based on the first NB PRS and the second NB PRS, a reference signal time difference, RSTD, measurement; and transmitting, by the NB UE (11, 12; 100), the RSTD measurement. an NB PRS bitmap indicating a pattern for selecting NB PRS subframes, wherein each NB PRS subframe comprises an NB PRS for positioning the NB UE (11, 12; 100), and wherein the NB PRS bitmap is configured to indicate a plurality of nonconsecutive NB PRS subframes in each radio frame of one or more radio frames corresponding to one repetition of the NB PRS bitmap; wherein each NB PRS subframe comprises an NB PRS for positioning the NB UE (11, 12; 100), and wherein the NB PRS bitmap is configured to indicate a plurality of nonconsecutive NB PRS subframes in each radio frame of one or more radio frames corresponding to one repetition of the NB PRS bitmap; determining, by the NB UE (11, 12; 100) and based on a plurality of repetitions of the NB PRS bitmap, a first NB PRS mapped in NB PRS subframes of an NB PRS reference cell; determining, by the NB UE (11, 12; 100) and based on a plurality of repetitions of the NB PRS bitmap, a second NB PRS mapped in NB PRS subframes of an NB PRS neighbor cell; generating, based on the first NB PRS and the second NB PRS, a reference signal time difference, RSTD, measurement; and transmitting, by the NB UE (11, 12; 100), the RSTD measurement.
A method for controlling access to a network through a router by a first terminal device serving as a visitor, the method comprising the steps of: receiving a first connection request for establishing a connection using a visitor identity, which is transmitted from a first terminal device, and in response to the receiving establishing a connection with limited access bandwidth and access permission to the first terminal device with the visitor identity, wherein the first connection request comprises a user identification of the first terminal device; transmitting an access request for access to the router to a second terminal device with access control permissions, wherein the access request comprises the user identification of the first terminal device; receiving feedback information which is transmitted from the second terminal device and indicates whether to permit the first terminal device to access the router; and determining whether the first terminal device is permitted to access the router using a host identity, according to the received feedback information, wherein the feedback information (1106; 1206) is generated at the second terminal device according to an outputted prompt information comprising the user identification if the user identification is not recorded at the second terminal and wherein the feedback information is directly generated from the second terminal device if the user identification is recorded at the second terminal device. receiving a first connection request for establishing a connection using a visitor identity, which is transmitted from a first terminal device, and in response to the receiving establishing a connection with limited access bandwidth and access permission to the first terminal device with the visitor identity, wherein the first connection request comprises a user identification of the first terminal device; transmitting an access request for access to the router to a second terminal device with access control permissions, wherein the access request comprises the user identification of the first terminal device; receiving feedback information which is transmitted from the second terminal device and indicates whether to permit the first terminal device to access the router; and determining whether the first terminal device is permitted to access the router using a host identity, according to the received feedback information, wherein the feedback information (1106; 1206) is generated at the second terminal device according to an outputted prompt information comprising the user identification if the user identification is not recorded at the second terminal and wherein the feedback information is directly generated from the second terminal device if the user identification is recorded at the second terminal device.
Apparatus for handling coins, having sorting unit for optionally feeding coins to a first receptacle and at least one second receptacle, wherein the sorting unit comprises a transporting element for transporting the coins in a transporting direction, the sorting unit comprises a first ejecting element, by means of which coins which are to be fed to the first receptacle are ejected from the transporting element, wherein the sorting unit comprises a second ejecting element, by means of which coins which are to be fed to the second receptacle are ejected from the transporting element, wherein the first ejecting element and the second ejecting element are arranged one beside the other, as seen in the transporting direction, wherein the first ejecting element comprises a first lifting magnet with a first armature and the second ejecting element comprises a second lifting magnet with a second armature, and wherein the first armature and the second armature established eccentric contact with the coins for ejecting purposes, characterized in that the coins are received in receiving compartments of the transporting element such that a respective radial centre axis of the coins lies on a common centre axis, which runs in the transporting direction, in that the first ejecting element is arranged on a first side of the common centre axis, and in that the second ejecting element is arranged on a second side of the common centre axis, said second side being located opposite the first side.
Intra-ocular artificial lens with variable optical strength, comprising at least two optical elements (1,2; 4,5; 6,7,8; 21,22; 26,27; 29-21; 34-36; 50,52,53,54), which are movable relative to each other in a direction extending transversely of the optical axis, wherein the optical elements (1,2; 4,5; 6,7,8; 21,22; 26,27; 29-21; 34-36; 50,52,53,54) have a form such that in different positions of the movable optical elements the artificial lens has a different optical strength, characterized in that both movable optical elements (1,2; 4,5; 7,8; 21,22; 26,27; 29,30; 34,35; 52,52) comprise at least a surface with a component which satisfies the formula z = U (axy 2 + bx 3 /3), wherein at least one of the optical elements (1,2; 4,5; 21,22; 26,27) has a surface with a component which satisfies a formula for a lens with a fixed strength.
A method for controlling power cooperatively among two or more base stations, BSs, in a cooperative unit, the method comprising: receiving, at a specific BS in the cooperative unit from a specific user equipment, UE, located on a cell edge of the specific BS, an average transmission rate of the specific UE and a token value that indicates a level of satisfaction of a minimum average transmission rate of the specific UE; receiving, at the specific BS, information including average transmission rates of UEs located on cell edges of one or more other BSs in the cooperative unit, token values of the UEs located on the cell edges, and current power levels of the one or more other BSs from the one or more other BSs; calculating, at the specific BS, a first power level vector of each of the BSs in the cooperative unit, which guarantees minimum average transmission rates of UEs located on cell edges of the BSs, using the minimum average transmission rates and token values of the specific UE and the UEs located on the cell edges of the one or more other BSs in the cooperative unit; and calculating, at the specific BS, a second power level vector corresponding to an updated power level of each of the BSs in the cooperative unit based on current power levels of the BSs and the first power level. receiving, at a specific BS in the cooperative unit from a specific user equipment, UE, located on a cell edge of the specific BS, an average transmission rate of the specific UE and a token value that indicates a level of satisfaction of a minimum average transmission rate of the specific UE; receiving, at the specific BS, information including average transmission rates of UEs located on cell edges of one or more other BSs in the cooperative unit, token values of the UEs located on the cell edges, and current power levels of the one or more other BSs from the one or more other BSs; calculating, at the specific BS, a first power level vector of each of the BSs in the cooperative unit, which guarantees minimum average transmission rates of UEs located on cell edges of the BSs, using the minimum average transmission rates and token values of the specific UE and the UEs located on the cell edges of the one or more other BSs in the cooperative unit; and calculating, at the specific BS, a second power level vector corresponding to an updated power level of each of the BSs in the cooperative unit based on current power levels of the BSs and the first power level.
A catalyst system comprising a solid support material having, on its surface, one or more catalytic transition metal complex having olefin polymerisation catalytic activity, wherein the solid support material comprises SiO 2@ AMO-LDH microspheres having the formula I (SiO 2) p @{[M z+ (1-x) M' y+ x 2] a+ (X n-) a/n •bH 2 O•c(AMO-solvent)} q I) wherein, M z+ and M' y+ are two different charged metal cations; z = 1 or 2; y = 3 or 4; 0 < x < 0.9; b is 0 to 10; c is 0.01 to 10, preferably > 0.01 and < 10; p > 0; q > 0; x n- is an anion with n > 0, preferably 1-5; a = z(1-x) + xy-2; and the AMO-solvent is acetone, ethanol and/or methanol. M z+ and M' y+ are two different charged metal cations; z = 1 or 2; y = 3 or 4; 0 < x < 0.9; b is 0 to 10; c is 0.01 to 10, preferably > 0.01 and < 10; p > 0; q > 0; x n- is an anion with n > 0, preferably 1-5; a = z(1-x) + xy-2; and the AMO-solvent is acetone, ethanol and/or methanol.