mhurhangee/ep-ind-claims huggingface dataset:
An electronic device including one or more electronic components and a power supply, the electronic device further comprising: a metal casing surrounding the one or more electronic components and the power supply of the electronic device, the metal casing having a first aperture formed in an edge of the metal casing, the first aperture including at least two sub-apertures (108, 110) connected by a channel formed in the metal casing, the metal casing further including an exterior surface on a charging target side of the metal casing and an interior surface on a charging source side of the metal casing, wherein each aperture is shaped to provide access to at least two ports in the electronic device; and a wireless charging coil including at least two sub-loops located on the charging source side of the metal casing of the electronic device aligned with the at least two sub-apertures in the first aperture along an axis perpendicular to the edge of the metal casing, the wireless charging coil configured to be supplied with current by the power supply such that the current flowing through the wireless charging coil induces a surface current about the first aperture in the metal casing, the current flowing through the wireless charging coil and the surface current flowing in the same direction causes a combined magnetic field that exceeds the magnitude of a magnetic field caused by the current flowing through the wireless charging coil and exceeds the magnitude of a magnetic field caused by the surface current. a metal casing surrounding the one or more electronic components and the power supply of the electronic device, the metal casing having a first aperture formed in an edge of the metal casing, the first aperture including at least two sub-apertures (108, 110) connected by a channel formed in the metal casing, the metal casing further including an exterior surface on a charging target side of the metal casing and an interior surface on a charging source side of the metal casing, wherein each aperture is shaped to provide access to at least two ports in the electronic device; and a wireless charging coil including at least two sub-loops located on the charging source side of the metal casing of the electronic device aligned with the at least two sub-apertures in the first aperture along an axis perpendicular to the edge of the metal casing, the wireless charging coil configured to be supplied with current by the power supply such that the current flowing through the wireless charging coil induces a surface current about the first aperture in the metal casing, the current flowing through the wireless charging coil and the surface current flowing in the same direction causes a combined magnetic field that exceeds the magnitude of a magnetic field caused by the current flowing through the wireless charging coil and exceeds the magnitude of a magnetic field caused by the surface current.
A vinyl silane compound represented by the following formula: wherein A independently represents a divalent hydrocarbon group having 1 to 6 carbon atoms; Y independently represents a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms.
A computer implemented method for identifying wireless link interferences, the method comprising: measuring an amount of performance loss for each wireless link (SWL1-SWL3) of a set of wireless links due to interferences; measuring a use of a wireless medium by each wireless link of the set of wireless links; allocating each measurement to at least a given time interval of a set of time intervals to generate a set of data, wherein the allocation is performed in a weighted manner based on a time overlap between a time during which the measurements are performed and each time interval of the set of time intervals, wherein the allocation of at least one measurement is performed in a weighted manner with two time intervals of the set of time intervals; and identifying, based on the set of data, at least a first wireless link within the set of wireless links that is causing interference. measuring an amount of performance loss for each wireless link (SWL1-SWL3) of a set of wireless links due to interferences; measuring a use of a wireless medium by each wireless link of the set of wireless links; allocating each measurement to at least a given time interval of a set of time intervals to generate a set of data, wherein the allocation is performed in a weighted manner based on a time overlap between a time during which the measurements are performed and each time interval of the set of time intervals, wherein the allocation of at least one measurement is performed in a weighted manner with two time intervals of the set of time intervals; and identifying, based on the set of data, at least a first wireless link within the set of wireless links that is causing interference.
A mobile station comprising: a plurality of antennas; and a controller configured to determine a first characteristic based on a downlink characteristic for each of the antennas from signals received from a base station, to determine long-term information and short-term information based on the first characteristic, to generate a feedback signal based on the long-term information and short-term information, and to transmit the feedback signal to the base station, wherein the long-term information includes long-term eigenvectors and long-term eigenvalues, and the short-term information includes short-term eigenvectors and short-term eigenvalues, and wherein the long-term eigenvectors and long-term eigenvalues, and the short-term eigenvectors and short-term eigenvalues are determined based on at least one predetermined threshold value. a plurality of antennas; and a controller configured to determine a first characteristic based on a downlink characteristic for each of the antennas from signals received from a base station, to determine long-term information and short-term information based on the first characteristic, to generate a feedback signal based on the long-term information and short-term information, and to transmit the feedback signal to the base station, wherein the long-term information includes long-term eigenvectors and long-term eigenvalues, and the short-term information includes short-term eigenvectors and short-term eigenvalues, and wherein the long-term eigenvectors and long-term eigenvalues, and the short-term eigenvectors and short-term eigenvalues are determined based on at least one predetermined threshold value.
A method for reducing camera-projection system latency effects for objects with semi-predictable paths, the method comprising: analyzing a plurality of recorded frames of one or more moving objects to determine their paths; creating a movement store and storing at least one movement of the moving objects in the movement store, wherein the at least one movement stored in the movement store comprises portions of object paths that are repeated; processing the object paths to determine any correlations between object paths that intersect to generate a semi-predicted path for a target moving object based on the paths of one or more other objects with which the target moving object interacts; and, causing an image to be projected onto a surface of the target moving object, or onto a semi-transparent surface of an augmented reality device, using the semi-predicted path of the target moving object, comprising performing a lookup in the movement store for the semi-predicted path, the method further comprising: recording a plurality of frames of the target moving object and the image; determining an offset between the paths of the target moving object and the image; and, adjusting the projection of the image for the offset. analyzing a plurality of recorded frames of one or more moving objects to determine their paths; creating a movement store and storing at least one movement of the moving objects in the movement store, wherein the at least one movement stored in the movement store comprises portions of object paths that are repeated; processing the object paths to determine any correlations between object paths that intersect to generate a semi-predicted path for a target moving object based on the paths of one or more other objects with which the target moving object interacts; and, causing an image to be projected onto a surface of the target moving object, or onto a semi-transparent surface of an augmented reality device, using the semi-predicted path of the target moving object, comprising performing a lookup in the movement store for the semi-predicted path, the method further comprising: recording a plurality of frames of the target moving object and the image; determining an offset between the paths of the target moving object and the image; and, adjusting the projection of the image for the offset. recording a plurality of frames of the target moving object and the image; determining an offset between the paths of the target moving object and the image; and, adjusting the projection of the image for the offset.
Method for cleaning soil contaminated with calcium sulfate, - in which soil contaminated with calcium sulfate is treated in a soil washing plant and sodium carbonate is added to at least part of the soil, and - in which sodium sulfate, which is formed according to the chemical reaction CaSO 4 + Na 2 CO 3 → CaCO 3 + Na 2 SO 4 formed during an exposure time, is separated by rinsing and dewatering the sodium carbonate-treated soil, characterized in that the sodium carbonate-treated soil is introduced into at least one shaft-like storage, preferably silo, having a lower opening (18.1) with closure (18.2), and is collected there up to a predetermined or predeterminable filling quantity, wherein the storage has a dewatering device (30, 31) which is connected to a collecting device for collecting rinsing water separated by means of the dewatering device (30, 31), wherein rinsing water is added to the sodium carbonate-treated soil collected in the storage, wherein at least a part of the rinsing water with sodium sulfate dissolved therein is separated from the soil collected in the storage by means of the dewatering means (30, 31) and discharged into the collecting device, and wherein the rinsed and dewatered soil is removed from the storage at the lower opening (18.1) thereof. - in which soil contaminated with calcium sulfate is treated in a soil washing plant and sodium carbonate is added to at least part of the soil, and - in which sodium sulfate, which is formed according to the chemical reaction CaSO 4 + Na 2 CO 3 → CaCO 3 + Na 2 SO 4 formed during an exposure time, is separated by rinsing and dewatering the sodium carbonate-treated soil, characterized in that the sodium carbonate-treated soil is introduced into at least one shaft-like storage, preferably silo, having a lower opening (18.1) with closure (18.2), and is collected there up to a predetermined or predeterminable filling quantity, wherein the storage has a dewatering device (30, 31) which is connected to a collecting device for collecting rinsing water separated by means of the dewatering device (30, 31), wherein rinsing water is added to the sodium carbonate-treated soil collected in the storage, wherein at least a part of the rinsing water with sodium sulfate dissolved therein is separated from the soil collected in the storage by means of the dewatering means (30, 31) and discharged into the collecting device, and wherein the rinsed and dewatered soil is removed from the storage at the lower opening (18.1) thereof.
A light field image capturing apparatus comprising: an objective lens to focus light incident from an external object; an image sensor, including a plurality of pixels, to output an image signal by detecting incident light, the image sensor comprising a plurality of non-overlapping image capturing regions (131,132,133,134) for capturing partial images (I1,I2,I3,I4,I5) having different viewing points; and a microlens array disposed between the objective lens and the image sensor and including a plurality of partial microlens array regions (121,122,123,124,125) arranged in a two-dimensional manner, each of the plurality of partial microlens array regions corresponding respectively to an image capturing region of the image sensor, wherein at least one partial microlens array region of the plurality of partial microlens array regions is shifted with respect to its corresponding image capture region of the image sensor, wherein each of the plurality of partial microlens array regions is configured to focus a partial image in its corresponding image capturing region so that the image capture regions are adapted to simultaneously capture partial images having different viewing points, and wherein a one-to-one correspondence exists between the plurality of microlenses of the microlens array and the plurality of pixels of the image sensor. an objective lens to focus light incident from an external object; an image sensor, including a plurality of pixels, to output an image signal by detecting incident light, the image sensor comprising a plurality of non-overlapping image capturing regions (131,132,133,134) for capturing partial images (I1,I2,I3,I4,I5) having different viewing points; and a microlens array disposed between the objective lens and the image sensor and including a plurality of partial microlens array regions (121,122,123,124,125) arranged in a two-dimensional manner, each of the plurality of partial microlens array regions corresponding respectively to an image capturing region of the image sensor, wherein at least one partial microlens array region of the plurality of partial microlens array regions is shifted with respect to its corresponding image capture region of the image sensor, wherein each of the plurality of partial microlens array regions is configured to focus a partial image in its corresponding image capturing region so that the image capture regions are adapted to simultaneously capture partial images having different viewing points, and wherein a one-to-one correspondence exists between the plurality of microlenses of the microlens array and the plurality of pixels of the image sensor.
Method of operating a base station for a cellular communications network, wherein said base station comprises at least one antenna, said method comprising a step of adjusting a tilt angle of the antenna and/or a tilt angle of a beam pattern of said antenna, wherein said step of adjusting is performed depending on a quality measure which characterizes the quality of a signal transmission associated with said antenna,the method comprising the following steps: - adjusting the tilt angle by increasing or decreasing it by an amount (Δθ), - determining a value of said quality measure after said adjustment, - evaluating, whether said quality measure has increased, characterized in that the amount the current tilt angle is to be adjusted is determined before the step of adjusting, wherein the steps of determining the amount, adjusting, determining the value and evaluating are repeated if the adjustment of the tilt angle performed did not yield an improvement regarding the quality measure. - adjusting the tilt angle by increasing or decreasing it by an amount (Δθ), - determining a value of said quality measure after said adjustment, - evaluating, whether said quality measure has increased,
A method performed by a terminal in a communication system, the method comprising: transmitting, to a mobility management entity, MME, a request message for a packet data network, PDN, connection; receiving, from the MME, a response message including an indication indicating whether traffic related to the PDN connection is allowed to be offloaded to a wireless local area network, WLAN; receiving system information including public land mobile network, PLMN, information and control information for a wireless local area network, WLAN, offload; and determining a traffic offload based on the indication and the control information for the WLAN offload, wherein the indication is generated based on a locally configured policy. transmitting, to a mobility management entity, MME, a request message for a packet data network, PDN, connection; receiving, from the MME, a response message including an indication indicating whether traffic related to the PDN connection is allowed to be offloaded to a wireless local area network, WLAN; receiving system information including public land mobile network, PLMN, information and control information for a wireless local area network, WLAN, offload; and determining a traffic offload based on the indication and the control information for the WLAN offload, wherein the indication is generated based on a locally configured policy.
An antibody, or antigen-binding fragment thereof, that binds the sequence VATSPSSPQPAETHPTTLQGAIRREPTSSPLYSYTT of human KIM-1 (amino acids 200-235 of SEQ ID NO:1) for use in the treatment of a mammal having a Th1-mediated disorder selected from an inflammatory disorder and an autoimmune disorder.
A heat dissipation sheet comprising fibrous carbon and a polymer, wherein the fibrous carbon has an average effective fiber length of 5 to 120 μm, an average fiber diameter of 200 to 900 nm, and an average aspect ratio of 30 to 10000, wherein the average effective fiber length of the fibrous carbon is determined by measuring effective fiber length at 300 spots randomly selected in an electron micrograph and calculating the average value of all the measurement results thereof, and wherein the average fiber diameter of the fibrous carbon is determined by measuring fiber diameter at 300 spots randomly selected in an electron micrograph and calculating the average value of all the measurement results thereof, and the content rate of the fibrous carbon is 5 to 85% by mass with respect to the total amount of the fibrous carbon and the polymer; characterized in that the fibrous carbon has a linear structure with substantially no branching, wherein the linear structure with substantially no branching means that the degree of branching of the fibrous carbon is 0.01 pieces/micrometer or less when measured as specified in the description. the fibrous carbon has an average effective fiber length of 5 to 120 μm, an average fiber diameter of 200 to 900 nm, and an average aspect ratio of 30 to 10000, wherein the average effective fiber length of the fibrous carbon is determined by measuring effective fiber length at 300 spots randomly selected in an electron micrograph and calculating the average value of all the measurement results thereof, and wherein the average fiber diameter of the fibrous carbon is determined by measuring fiber diameter at 300 spots randomly selected in an electron micrograph and calculating the average value of all the measurement results thereof, and the content rate of the fibrous carbon is 5 to 85% by mass with respect to the total amount of the fibrous carbon and the polymer; characterized in that the fibrous carbon has a linear structure with substantially no branching, wherein the linear structure with substantially no branching means that the degree of branching of the fibrous carbon is 0.01 pieces/micrometer or less when measured as specified in the description.
A variable resistance memory device, comprising: a stack including insulating sheets and conductive sheets, which are alternatingly stacked on a substrate, the stack including a vertical hole vertically penetrating therethrough; a bit line on the stack; a conductive pattern electrically connected to the bit line and vertically extending in the vertical hole; and a resistance varying layer between the conductive pattern and an inner side surface of the stack defining the vertical hole, wherein the resistance varying layer comprises a first carbon nanotube electrically connected to one of the conductive sheets, and a second carbon nanotube electrically connected to the conductive pattern; wherein the resistance varying layer comprises a protruding portion protruding toward side surfaces of the insulating sheets; and wherein the resistance varying layer has an increasing thickness as a distance to the substrate decreases. a stack including insulating sheets and conductive sheets, which are alternatingly stacked on a substrate, the stack including a vertical hole vertically penetrating therethrough; a bit line on the stack; a conductive pattern electrically connected to the bit line and vertically extending in the vertical hole; and a resistance varying layer between the conductive pattern and an inner side surface of the stack defining the vertical hole, wherein the resistance varying layer comprises a first carbon nanotube electrically connected to one of the conductive sheets, and a second carbon nanotube electrically connected to the conductive pattern; wherein the resistance varying layer comprises a protruding portion protruding toward side surfaces of the insulating sheets; and wherein the resistance varying layer has an increasing thickness as a distance to the substrate decreases.
Control method of a turbo-compound engine apparatus, said apparatus comprising: - an internal combustion engine having an air intake line and a gases exhaust line - a low pressure compressor and an high pressure compressor arranged on said air intake line according to the flow direction of the air; - a high pressure turbine and a low pressure turbine arranged on said exhaust line according to the flow directions the gases, wherein the high pressure turbine is connected with a shaft to the said low pressure compressor and said low pressure turbine is connected to the high pressure compressor and wherein said low pressure turbine and said high pressure compressor are connected to the engine crankshaft, - first bypassing means (3,4) of said high pressure compressor, - first detecting means for measuring an exhaust gas temperature; - second detecting means for detecting the Lambda value; - means for measuring the pressure downstream and upstream said low pressure compressor; - engine brake means; - engine revolution speed sensor; wherein said control method comprises the step of deactivating said first bypassing means when at least one of the following condition occurs: a) an exhaust temperature exceeds a predefined value, b) said Lambda value is below a predefined value; c) said pressure ratio at the intake line exceeds at least a surge value of said low pressure supercharger, d) the engine brake means are activated, e) said engine speed is below a predefined value. - an internal combustion engine having an air intake line and a gases exhaust line - a low pressure compressor and an high pressure compressor arranged on said air intake line according to the flow direction of the air; - a high pressure turbine and a low pressure turbine arranged on said exhaust line according to the flow directions the gases, - first bypassing means (3,4) of said high pressure compressor, - first detecting means for measuring an exhaust gas temperature; - second detecting means for detecting the Lambda value; - means for measuring the pressure downstream and upstream said low pressure compressor; - engine brake means; - engine revolution speed sensor; a) an exhaust temperature exceeds a predefined value, b) said Lambda value is below a predefined value; c) said pressure ratio at the intake line exceeds at least a surge value of said low pressure supercharger, d) the engine brake means are activated, e) said engine speed is below a predefined value.
A biaxially oriented polypropylene film, wherein a tanδ area in the width direction obtained from a ratio (E'/E") of a storage elastic modulus (E') to a loss elastic modulus (E") obtained by dynamic viscoelasticity measurement as defined in the description is not smaller than 0.2 and not larger than 0.4, and characterized in that a half width of the peak derived from an oriented crystal in the width direction in azimuth dependence of the 110 plane of polypropylene α-type crystal obtained by wide-angle X-ray diffraction measurement as defined in the description is not larger than 25°.