mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in a mobile radio network node of a wireless communication network, the method comprising: performing one or more procedures that: estimate a position of the mobile radio network node relative to two or more additional nodes, wherein a position estimate of the two or more additional nodes is received by exchanging messages between the mobile radio network node and the two or more additional nodes, wherein said two or more additional nodes are mobile radio network nodes (602 and 602); and synchronize timing of the mobile radio network node relative to the two or more additional nodes, wherein the one or more procedures to estimate the position and synchronize the timing comprise a precision time protocol, PTP, procedure to make PTP measurements, and wherein the one or more procedures to estimate the position and synchronize the timing comprise using the PTP measurements to estimate clock skew between the mobile radio network node and one of the two or more additional nodes, estimate a time offset between the mobile radio network node and the one of the two or more additional nodes, and determine a distance between the mobile radio network node and the one of the two or more additional nodes; performing a measurement on a signal from a transmitting node, the measurement being a time of arrival, TOA, of the signal at the mobile radio network node; and performing one or more actions that use the measurement for calculating a position of the transmitting node. estimate a position of the mobile radio network node relative to two or more additional nodes, wherein a position estimate of the two or more additional nodes is received by exchanging messages between the mobile radio network node and the two or more additional nodes, wherein said two or more additional nodes are mobile radio network nodes (602 and 602); and synchronize timing of the mobile radio network node relative to the two or more additional nodes, wherein the one or more procedures to estimate the position and synchronize the timing comprise a precision time protocol, PTP, procedure to make PTP measurements, and wherein the one or more procedures to estimate the position and synchronize the timing comprise using the PTP measurements to estimate clock skew between the mobile radio network node and one of the two or more additional nodes, estimate a time offset between the mobile radio network node and the one of the two or more additional nodes, and determine a distance between the mobile radio network node and the one of the two or more additional nodes; performing a measurement on a signal from a transmitting node, the measurement being a time of arrival, TOA, of the signal at the mobile radio network node; and performing one or more actions that use the measurement for calculating a position of the transmitting node.
A wearable device that aids vision of a person, comprising: a display system including a display device, a first polarizer parallel to the display device, a quarter waveplate, and a mirror, wherein the display device, the first polarizer, the quarter waveplate, and the mirror are arranged sequentially such that the display device is disposed at a first end of the display system and the mirror is disposed at a second, opposite end of the display system, the display system having a length corresponding to a focal length of the mirror; a camera system including a camera and an image stabilization system, the camera including a zoom magnification configured to provide up to at or about 60 times zoom; a mount, the display system and the camera system being secured to the mount, wherein the display system and the camera system are movable relative to each other about the mount, the mount including a hollow enclosure; first and second adjustment mechanisms, the first adjustment mechanism being formed by the camera system being slideable within the enclosure so as to adjust both a relative position between the camera system and the mount in a y-axis direction and a relative position between the display device and the mount in the y-axis direction, the second adjustment mechanism being such that the display system is movable in an x-axis direction that is perpendicular to the y-axis direction, movement of the display mechanism in the y-direction being configured to adjust a distance between the display device and an eye of a person wearing the wearable device; and a frame, the mount being secured to the frame. a display system including a display device, a first polarizer parallel to the display device, a quarter waveplate, and a mirror, wherein the display device, the first polarizer, the quarter waveplate, and the mirror are arranged sequentially such that the display device is disposed at a first end of the display system and the mirror is disposed at a second, opposite end of the display system, the display system having a length corresponding to a focal length of the mirror; a camera system including a camera and an image stabilization system, the camera including a zoom magnification configured to provide up to at or about 60 times zoom; a mount, the display system and the camera system being secured to the mount, wherein the display system and the camera system are movable relative to each other about the mount, the mount including a hollow enclosure; first and second adjustment mechanisms, the first adjustment mechanism being formed by the camera system being slideable within the enclosure so as to adjust both a relative position between the camera system and the mount in a y-axis direction and a relative position between the display device and the mount in the y-axis direction, the second adjustment mechanism being such that the display system is movable in an x-axis direction that is perpendicular to the y-axis direction, movement of the display mechanism in the y-direction being configured to adjust a distance between the display device and an eye of a person wearing the wearable device; and a frame, the mount being secured to the frame.
A method of estimating a curl degree which is a degree of a curl of a recording medium caused by ejection of a liquid by a droplet ejecting apparatus to the recording medium, comprising the steps of: calculating an ejected-liquid amount which is an amount of the liquid ejected by the droplet ejecting apparatus to an evaluation region defined on the recording medium and an ejected-liquid-droplet number which is a number of droplets of the liquid ejected to the evaluation region; and estimating the curl degree on the basis of a position of the evaluation region; and the ejected-liquid amount and the ejected-liquid droplet number calculated in the calculating step. calculating an ejected-liquid amount which is an amount of the liquid ejected by the droplet ejecting apparatus to an evaluation region defined on the recording medium and an ejected-liquid-droplet number which is a number of droplets of the liquid ejected to the evaluation region; and estimating the curl degree on the basis of a position of the evaluation region; and the ejected-liquid amount and the ejected-liquid droplet number calculated in the calculating step.
An image projection apparatus for projecting an image onto a screen, comprising: a light source including laser diodes (261; 262; 263) configured to emit beams of different wavelengths; a scanning mirror configured to reflect the beams radiated from the light source and project the reflected beams; and a prism for correcting distortion of the image projected onto the screen, the prism disposed in a beam propagation direction behind the scanning mirror, wherein the prism decenters the beams via the scanning mirror by a decenter amount due to differences in refractive index for each wavelength between the respective beams projected through the prism, wherein the laser diodes (261; 262; 263) are fixed to be vertically spaced apart from a reference horizontal axis corresponding to the wavelengths of the beams, so as to decrease the decenter amount of the beams. a light source including laser diodes (261; 262; 263) configured to emit beams of different wavelengths; a scanning mirror configured to reflect the beams radiated from the light source and project the reflected beams; and a prism for correcting distortion of the image projected onto the screen, the prism disposed in a beam propagation direction behind the scanning mirror, wherein the prism decenters the beams via the scanning mirror by a decenter amount due to differences in refractive index for each wavelength between the respective beams projected through the prism, wherein the laser diodes (261; 262; 263) are fixed to be vertically spaced apart from a reference horizontal axis corresponding to the wavelengths of the beams, so as to decrease the decenter amount of the beams.
A robot cleaner, comprising: a communication unit configured to communicate with a mobile terminal using a near field wireless communication; and a processor configured to detect a state of the robot cleaner among a plurality of predefined states, the plurality of predefined states comprising at least one of a standby state, a cleaning state, a state where its battery is being charged, a state of a component that needs to be replaced and an error state, characterized in that, the processor is further configured to, in response to an NFC tagging being performed with a mobile terminal, control the communication unit: to transmit, to the mobile terminal, information on an application, to receive, from the mobile terminal, information that the application is installed, and to transmit, to the mobile terminal and in response to receiving information that the application is installed, information including the detected state of the robot cleaner. a communication unit configured to communicate with a mobile terminal using a near field wireless communication; and a processor configured to detect a state of the robot cleaner among a plurality of predefined states, the plurality of predefined states comprising at least one of a standby state, a cleaning state, a state where its battery is being charged, a state of a component that needs to be replaced and an error state, characterized in that, the processor is further configured to, in response to an NFC tagging being performed with a mobile terminal, control the communication unit: to transmit, to the mobile terminal, information on an application, to receive, from the mobile terminal, information that the application is installed, and to transmit, to the mobile terminal and in response to receiving information that the application is installed, information including the detected state of the robot cleaner. to transmit, to the mobile terminal, information on an application, to receive, from the mobile terminal, information that the application is installed, and to transmit, to the mobile terminal and in response to receiving information that the application is installed, information including the detected state of the robot cleaner.
A confectionery chip product, comprising: a bulk sweetener; and a gelatinized starch; wherein the confectionery chip product comprises the following attributes: a moisture content of 0 to less than 6 wt%, 0.25 to 5wt%, 0.5 to 4 wt%, 0.75 to 3 wt%, or 1 to 2 wt% based on the total weight of the confectionery chip product; a thickness of less than 4 mm; and a non-uniform cell structure. a bulk sweetener; and a gelatinized starch; wherein the confectionery chip product comprises the following attributes: a moisture content of 0 to less than 6 wt%, 0.25 to 5wt%, 0.5 to 4 wt%, 0.75 to 3 wt%, or 1 to 2 wt% based on the total weight of the confectionery chip product; a thickness of less than 4 mm; and a non-uniform cell structure. a moisture content of 0 to less than 6 wt%, 0.25 to 5wt%, 0.5 to 4 wt%, 0.75 to 3 wt%, or 1 to 2 wt% based on the total weight of the confectionery chip product; a thickness of less than 4 mm; and a non-uniform cell structure.
A high-output optical attenuator (100, 200) comprising: a first reflector (101, 201), a second reflector (102, 203), a third reflector (103, 204) and a fourth reflector (104, 202), wherein said first reflector (101, 201) that totally reflects incident light and causes first reflected light serving as reflected light of the incident light to enter said second reflector (102, 203); said second reflector (102, 203) that reflects the first reflected light and causes second reflected light serving as reflected light of the first reflected light to enter said third reflector (103, 204); said third reflector (103, 204) that reflects the second reflected light and causes third reflected light serving as reflected light of the second reflected light to enter said fourth reflector (104, 202); and said fourth reflector (104, 202) that reflects the third reflected light as fourth reflected light having the same optical axis as an optical axis of the incident light, characterized in that a pair of said first reflector (101, 201) and said second reflector (102, 203) operates as an optical path changer which changes an optical path from the optical axis of the incident light to an axis parallel to the optical path of the incident light, wherein said first reflector (101, 201) is a total reflection mirror and said second reflector (102, 203) is a total reflection mirror; at least said third reflector (103, 204) and said fourth reflector (104, 202) operate as an optical attenuator which changes the optical path from the axis parallel to the optical axis to the optical axis of the incident light with attenuating the incident light, wherein said third reflector (103, 204) is a half mirror and said fourth reflector (104, 202) is a half mirror, and the high-output optical attenuator further comprises a first cooler that cools light passed through said third reflector (103, 204) and is provided detached from said third reflector (103, 204), and a second cooler that cools a light passed through said fourth reflector (104, 202) and is provided detached from said fourth reflector (104, 202).
A method of determining the stress that should be applied to a tyre during an indoor endurance bench test, the method comprising the steps of: driving a vehicle along a sample road route; measuring the longitudinal speed (V x) and the position of the vehicle as it travels along the sample road route; and calculating the inertial forces (FI x, FI y) acting on the vehicle as it travels along the sample road route, on the basis of the mass M of the vehicle, the measured longitudinal speed (V x) and the measured position of the vehicle; the method being characterized by comprising the further steps of: determining the maximum permitted speed (V x-max) along at least one section of the sample road route; comparing the measured longitudinal speed (V x) with the maximum permitted speed (V x-max); and calculating the inertial forces (FI x, FI y) acting on the vehicle using a longitudinal speed (V x) other than the measured longitudinal speed (V x) and equal to the maximum permitted speed (V x-max), when the measured longitudinal speed (V x) differs significantly from the maximum permitted speed (V x-max). driving a vehicle along a sample road route; measuring the longitudinal speed (V x) and the position of the vehicle as it travels along the sample road route; and calculating the inertial forces (FI x, FI y) acting on the vehicle as it travels along the sample road route, on the basis of the mass M of the vehicle, the measured longitudinal speed (V x) and the measured position of the vehicle; the method being characterized by comprising the further steps of: determining the maximum permitted speed (V x-max) along at least one section of the sample road route; comparing the measured longitudinal speed (V x) with the maximum permitted speed (V x-max); and calculating the inertial forces (FI x, FI y) acting on the vehicle using a longitudinal speed (V x) other than the measured longitudinal speed (V x) and equal to the maximum permitted speed (V x-max), when the measured longitudinal speed (V x) differs significantly from the maximum permitted speed (V x-max). determining the maximum permitted speed (V x-max) along at least one section of the sample road route; comparing the measured longitudinal speed (V x) with the maximum permitted speed (V x-max); and calculating the inertial forces (FI x, FI y) acting on the vehicle using a longitudinal speed (V x) other than the measured longitudinal speed (V x) and equal to the maximum permitted speed (V x-max), when the measured longitudinal speed (V x) differs significantly from the maximum permitted speed (V x-max).
Damping system of the convergence of a ground, comprising a coating partially covering an outer wall of a tunnel formed by voussoirs and situated inside a cavity excavated in the ground, characterized in that the coating comprises a plurality of devices each provided with a pass-through hole so as to create a free space within the coating.
Refrigerant cycle comprising a compressor, a condenser connected to a discharge of the compressor, at least one expansion valve (LEV-B) at an opposite side of the condenser than the compressor, and an evaporator having a first port connected to the expansion valve (LEV-B), further comprising an ejector having a primary nozzle, a suction nozzle and a discharge nozzle, wherein the primary nozzle is connected to the discharge of the compressor, the suction nozzle is connected to a second port, different from the first port, of the evaporator and the discharge nozzle is connected to a suction port of the compressor, characterized in that the ejector comprises a proportional valve, adapted to regulate a flow of refrigerant through the primary nozzle. a compressor, a condenser connected to a discharge of the compressor, at least one expansion valve (LEV-B) at an opposite side of the condenser than the compressor, and an evaporator having a first port connected to the expansion valve (LEV-B), further comprising an ejector having a primary nozzle, a suction nozzle and a discharge nozzle, wherein the primary nozzle is connected to the discharge of the compressor, the suction nozzle is connected to a second port, different from the first port, of the evaporator and the discharge nozzle is connected to a suction port of the compressor, characterized in that the ejector comprises a proportional valve, adapted to regulate a flow of refrigerant through the primary nozzle.
An electronic device comprising: a first connector having a plurality of contacts (206 -206, 207 -207, 208 -208); and control circuitry operatively coupled to at least some of the plurality of contacts, wherein the control circuitry is configured to: detect when a second connector associated with an accessory is mated with the first connector; in response to the detection, send a command sequence, to the accessory, over a first contact in the plurality of contacts (206 -206, 207 -207, 208 -208) requesting information about configuration of contacts (112 -112, 114 -114) in the second connector; and if a response to the command sequence is received from the accessory over the first contact, set internal connections to one or more contacts in the plurality of contacts (206 -206, 207 -207, 208 -208) based on the information about configuration of contacts in the second connector in the response. a first connector having a plurality of contacts (206 -206, 207 -207, 208 -208); and control circuitry operatively coupled to at least some of the plurality of contacts, wherein the control circuitry is configured to: detect when a second connector associated with an accessory is mated with the first connector; in response to the detection, send a command sequence, to the accessory, over a first contact in the plurality of contacts (206 -206, 207 -207, 208 -208) requesting information about configuration of contacts (112 -112, 114 -114) in the second connector; and if a response to the command sequence is received from the accessory over the first contact, set internal connections to one or more contacts in the plurality of contacts (206 -206, 207 -207, 208 -208) based on the information about configuration of contacts in the second connector in the response. detect when a second connector associated with an accessory is mated with the first connector; in response to the detection, send a command sequence, to the accessory, over a first contact in the plurality of contacts (206 -206, 207 -207, 208 -208) requesting information about configuration of contacts (112 -112, 114 -114) in the second connector; and if a response to the command sequence is received from the accessory over the first contact, set internal connections to one or more contacts in the plurality of contacts (206 -206, 207 -207, 208 -208) based on the information about configuration of contacts in the second connector in the response.
A blood sampling device comprising a pipette tip-shaped blood sampler having an internal space for holding blood after aspirating the blood and having openings at the top and bottom, a cylindrical container capable of accommodating the blood sampler and a cap piston-shaped sealing cap for sealing the container, wherein the internal space of the blood sampler is so configured that the bottom opening and the top opening communicate, the lower part of the internal space constituting the blood holding part has a taper shape, and blood is aspirated into the internal space by the capillary action when the bottom opening is brought into contact with blood, the container has an internal space into which the blood sampler can be inserted and a receiving part at the bottom into which the tip of the blood sampler can be inserted, and a locking part having a claw-like projection and a screw part are provided on the upper outer side of the container and the locking part and the screw part are arranged to be offset from each other in the vertical direction in that order from the top of the container, and the sealing cap has a mandrel extending from the inner upper surface of the sealing cap to the internal space of the blood sampler, and a projection that engages with the projection of the locking part of the container and a screw part that can be screwed into the screw part of the container are provided on the inner side surface of the sealing cap and the projection and the screw part are arranged to be offset from each other in the vertical direction in that order from the top of the sealing cap.