mhurhangee/ep-ind-claims huggingface dataset:
A display device for a vehicle comprising: an imaging unit configured to capture a video around a vehicle; a bird's eye view video generation unit configured to generate a portrait bird's eye view video which is obtained by converting a viewpoint of the video captured by the imaging unit so it seems as if the vehicle is seen from above, and in which a vehicle length direction of the vehicle is disposed vertically; a horizontally long display unit disposable in front of a driver's seat in the vehicle; an information acquisition unit configured to acquire information on a steering angle of the vehicle; a determination unit (124, 126) configured to determine as to whether a steering orientation of the vehicle is left or right based on the information on the steering angle of the vehicle acquired by the information acquisition unit and measure a traveling distance traveled by the vehicle while the steering orientation of the vehicle is maintained; and a display control unit configured to perform control in such a way that, when the vehicle has traveled for a predetermined distance or longer while the steering orientation of the vehicle is maintained, the bird's eye view video is laterally displayed or is displayed in a tilted manner on the display unit so that a front of the vehicle in the bird's eye view video is oriented to the steering orientation of the vehicle. an imaging unit configured to capture a video around a vehicle; a bird's eye view video generation unit configured to generate a portrait bird's eye view video which is obtained by converting a viewpoint of the video captured by the imaging unit so it seems as if the vehicle is seen from above, and in which a vehicle length direction of the vehicle is disposed vertically; a horizontally long display unit disposable in front of a driver's seat in the vehicle; an information acquisition unit configured to acquire information on a steering angle of the vehicle; a determination unit (124, 126) configured to determine as to whether a steering orientation of the vehicle is left or right based on the information on the steering angle of the vehicle acquired by the information acquisition unit and measure a traveling distance traveled by the vehicle while the steering orientation of the vehicle is maintained; and a display control unit configured to perform control in such a way that, when the vehicle has traveled for a predetermined distance or longer while the steering orientation of the vehicle is maintained, the bird's eye view video is laterally displayed or is displayed in a tilted manner on the display unit so that a front of the vehicle in the bird's eye view video is oriented to the steering orientation of the vehicle.
A sliding door comprising: a door panel; a floor guide or floor guide assembly (10, 64,164); an pin guide assembly connected with a bottom of the door panel; and a guide shoe (60, 160) connected with the pin guide assembly, wherein the guide shoe (60, 160) includes a concave mating surface, wherein the floor guide includes a rail or floor guide track (66, 166) having a convex mating surface shaped to correspond with the mating surface of the guide shoe (60, 160), wherein the mating surfaces of the guide shoe and floor guide are in sliding contact with one another, and wherein the pin guide assembly includes an extendable shaft connected with the guide shoe (60, 160) and further comprises a mechanism having a wire spring that applies force to the guide shoe (60, 160) to press the mating surface of the guide shoe against the mating surface of the floor guide (10, 64, 164), characterized in that the guide shoe (60, 160) comprises two beveled surfaces (70, 170) at each end of the guide shoe (60, 160), the beveled surfaces (70, 170) being arranged along a direction of travel of the guide shoe (60, 160) along the rail or floor guide track (66, 166) with an angle with respect to the surface of the rail or floor guide track (66, 166) such as to lift debris away from the rail or floor guide track (66, 166). a door panel; a floor guide or floor guide assembly (10, 64,164); an pin guide assembly connected with a bottom of the door panel; and a guide shoe (60, 160) connected with the pin guide assembly, wherein the guide shoe (60, 160) includes a concave mating surface, wherein the floor guide includes a rail or floor guide track (66, 166) having a convex mating surface shaped to correspond with the mating surface of the guide shoe (60, 160), wherein the mating surfaces of the guide shoe and floor guide are in sliding contact with one another, and wherein the pin guide assembly includes an extendable shaft connected with the guide shoe (60, 160) and further comprises a mechanism having a wire spring that applies force to the guide shoe (60, 160) to press the mating surface of the guide shoe against the mating surface of the floor guide (10, 64, 164), characterized in that the guide shoe (60, 160) comprises two beveled surfaces (70, 170) at each end of the guide shoe (60, 160), the beveled surfaces (70, 170) being arranged along a direction of travel of the guide shoe (60, 160) along the rail or floor guide track (66, 166) with an angle with respect to the surface of the rail or floor guide track (66, 166) such as to lift debris away from the rail or floor guide track (66, 166).
A communication apparatus comprising: a configuring section configured to configure a first search space and a second search space within at least one physical resource block, PRB, set among a plurality of PRB sets included in Enhanced Physical Downlink Control Channel, EPDCCH, region defined in a data region of a first component carrier, wherein the second search space is configured using a Carrier Indicator Field, CIF, value that is set for a second component carrier, the first search space including one or more mapping candidates for mapping a first downlink control information for the first component carrier, and the second search space including one or more mapping candidates for mapping a second downlink control information for the second component carrier; and a transmitting section configured to transmit the first downlink control information using the first search space and to transmit the second downlink control information using the second search space, wherein, each of the plurality of PRB sets includes a plurality of control channel elements, CCEs; and in the configuring section, one or more CCEs corresponding to the one or more mapping candidates included in the second search space are given by cyclically shifting one or more CCEs corresponding to the one or more mapping candidates included in the first search space by the CIF value that is set for the second component carrier. a configuring section configured to configure a first search space and a second search space within at least one physical resource block, PRB, set among a plurality of PRB sets included in Enhanced Physical Downlink Control Channel, EPDCCH, region defined in a data region of a first component carrier, wherein the second search space is configured using a Carrier Indicator Field, CIF, value that is set for a second component carrier, the first search space including one or more mapping candidates for mapping a first downlink control information for the first component carrier, and the second search space including one or more mapping candidates for mapping a second downlink control information for the second component carrier; and a transmitting section configured to transmit the first downlink control information using the first search space and to transmit the second downlink control information using the second search space, wherein, each of the plurality of PRB sets includes a plurality of control channel elements, CCEs; and in the configuring section, one or more CCEs corresponding to the one or more mapping candidates included in the second search space are given by cyclically shifting one or more CCEs corresponding to the one or more mapping candidates included in the first search space by the CIF value that is set for the second component carrier.
A method of detecting a target substance, comprising the steps of: incorporating labeling particles into a test liquid comprising an analyte; heating the test liquid; irradiating the test liquid with excitation light, and detecting the target substance included in the test liquid depending on a state of light emission of the labeling particles; wherein an aggregation state of the labeling particles is changed by the heating step; and wherein the labeling particles have a thermoresponsive polymer on a surface of a composite particle comprising a magnetic material and a fluorescent material, and further have a biomolecule having properties of binding with the target substance; and wherein magnetic force is provided for the test liquid and the labeling particles in an aggregated state are gathered in a portion provided with the magnetic force; and wherein the composite particle comprises a phase having the magnetic material and a phase having the fluorescent material, and wherein the phase having the fluorescent material is constituted of a continuous phase formed of a transparent material and a dispersed phase formed of the fluorescent material; and wherein non-existence of the target substance is identified by development of fluorescence emission of the labeling particles that are locally gathered in the test liquid after the heating step, and existence of the target substance is identified by no development of the fluorescence emission of the gathered labeling particles. incorporating labeling particles into a test liquid comprising an analyte; heating the test liquid; irradiating the test liquid with excitation light, and detecting the target substance included in the test liquid depending on a state of light emission of the labeling particles;
A hub (30, 530, 630, 730, 830, 930, 1130) for a sheath, catheter, or other tubular device, comprising a first hub portion (32, 532, 632, 732, 832, 932, 1132) having a first end, a second end and a first hub lumen extending therebetween, the first hub lumen being sized for receiving a medical device therethrough and extending concentrically around a longitudinal axis of the hub; a second hub portion (34, 534, 634, 734, 834, 934, 1134) having a first end, a second end and a second hub lumen extending therebetween, the second hub portion coupled to the first hub portion such that the first and second hub lumens are aligned with one another along the longitudinal axis and the second end of the first hub portion and the first end of the second hub portion are spaced apart from one another to define a gap (35, 735, 835, 935, 1135); a hub arm (36, 536, 636, 736, 836, 936, 1136) including a first end attached to the first hub portion (32, 532, 632, 732, 832, 932, 1132) and a second end attached to the second hub portion (34, 534, 634, 734, 834, 934, 1134), thereby maintaining the second end of the first hub portion and the first end of the second hub portion spaced apart from one another to define the gap (35, 735, 835, 935, 1135); and a valve (50, 550, 650) secured within the gap between the second end of the first hub portion and the first end of the second hub portion, the valve comprising a valve passage extending therethrough configured to accommodate receiving a medical device therethrough when the medical device is introduced through the first and second hub lumens of the first and second hub portions.
An analog to digital converter, wherein the analog to digital converter comprises a beam splitter, M photodetectors, M amplifier modules corresponding to the M photodetectors, and an encoder; wherein each output end of the beam splitter is corresponding to an input end of a photodetector, an output end of each photodetector is connected to an input end of an amplifier module, and an output end of each amplifier module is connected to an input end of the encoder; the beam splitter is configured to split an inputted analog optical signal into M optical signals, and output each optical signal to a corresponding photodetector; the photodetector is configured to convert the inputted optical signal into a current signal, and input the current signal to a corresponding amplifier module; the amplifier module is configured to generate an output voltage according to the inputted current signal, and output the output voltage to a corresponding input end of the encoder; and the encoder is configured to compare inputted M output voltages with a decision voltage, so as to obtain M decision results, and generate a digital signal according to the M decision results; wherein at least one of the following is comprised: conversion efficiency of the M photodetectors decreases progressively from a first photodetector to an M th photodetector according to a second preset proportion, and amplification multiples of the M amplifier modules decrease progressively from a first amplifier module to an M th amplifier module according to a third preset proportion, so that the M output voltages that are inputted to the encoder decrease progressively from a first output voltage to an M th output voltage according to a fourth preset proportion; and the analog to digital converter is an N-bit precision analog to digital converter, M is equal to 2 N -1, the digital signal is of N bits, and M and N are positive integers. conversion efficiency of the M photodetectors decreases progressively from a first photodetector to an M th photodetector according to a second preset proportion, and amplification multiples of the M amplifier modules decrease progressively from a first amplifier module to an M th amplifier module according to a third preset proportion, so that the M output voltages that are inputted to the encoder decrease progressively from a first output voltage to an M th output voltage according to a fourth preset proportion; and the analog to digital converter is an N-bit precision analog to digital converter, M is equal to 2 N -1, the digital signal is of N bits, and M and N are positive integers.
A lithotripsy device, in particular an intracorporeal lithotripsy device, having at least one ultrasonic unit (10a; 10b), which has at least one sonotrode (12a; 12b), at least one ultrasonic generator, which is designed to provide ultrasonic waves, and at least one ultrasonic horn (16a; 16b; 16h), which is designed for focusing and at least indirectly transmitting the ultrasonic waves from the ultrasonic generator to the sonotrode (12a; 112b), and having at least one projectile unit (18a-h), which comprises at least one projectile (20a; 20b; 20c;e;g) mounted for linear movement, which is designed to at least indirectly act on the sonotrode (12a; 12b) in at least one operating state, and which, in the operating state, is at least indirectly stimulated to move by the ultrasonic generator by means of ultrasonic waves provided, characterized in that the projectile (20a; 20b; 20c; 20e; 20g) is movably mounted in the area of the ultrasonic horn (16a; 16b; 16h), wherein the projectile (20a; 20b; 20c; 20e; 20g) is arranged coaxially surrounding the ultrasonic horn (16a; 16b; 16h) or within a volume enclosed by the ultrasonic horn (16a; 16b; 16h).
A communications system, comprising an image recording apparatus recording images at a first location and generating image data therefrom, a data transmission apparatus transmitting the generated image data from the first location via at least one transmission path to a second location remote from the first location, a first receiver apparatus receiving the transmitted image data at the second location, and characterized in that the at least one transmission path is a transmission path selected from a plurality of selectable transmission paths and the image data present at the second location are overall image data, which are transmitted to the second location in real time, stitched in synchronized fashion by an image synthesis apparatus from at least two frame data generated at the same time by in each case one of at least two cameras of the image recording apparatus, and represent the image of a solid angle region (Ω g) spanned with respect to a common center of the at least two cameras that generate the frame data by a horizontal angle range (Δφ), related to the direction of gravity, of at least 7π/6 and a vertical angle range (Δθ), comprising the horizontal (π/2) in particular, of at least π/3. with the radially outermost lens of the respective camera having a distance (r) from the common center of no more than 40 cm. an image recording apparatus recording images at a first location and generating image data therefrom, a data transmission apparatus transmitting the generated image data from the first location via at least one transmission path to a second location remote from the first location, a first receiver apparatus receiving the transmitted image data at the second location, and characterized in that the at least one transmission path is a transmission path selected from a plurality of selectable transmission paths and the image data present at the second location are overall image data, which are transmitted to the second location in real time, stitched in synchronized fashion by an image synthesis apparatus from at least two frame data generated at the same time by in each case one of at least two cameras of the image recording apparatus, and represent the image of a solid angle region (Ω g) spanned with respect to a common center of the at least two cameras that generate the frame data by a horizontal angle range (Δφ), related to the direction of gravity, of at least 7π/6 and a vertical angle range (Δθ), comprising the horizontal (π/2) in particular, of at least π/3. with the radially outermost lens of the respective camera having a distance (r) from the common center of no more than 40 cm.
A cooling air intake structure for a V-belt drive continuously variable transmission of a power unit suspended from a rear frame of a small vehicle, said continuously variable transmission being disposed beside a rear wheel of the small vehicle, wherein a cooling air inlet through which cooling air is taken in is formed at a position beside a transmission case of the continuously variable transmission and above a cooling fan side opening formed in the transmission case opposite to a drive pulley provided in the continuously variable transmission; and a cooling air passage extending from the cooling air inlet to the cooling fan side opening is formed by a cooling air duct; characterized in that: the cooling air inlet is disposed at a position in an upper part of a space beside the cooling fan side opening; the cooling air passage is formed in a manner surrounding the cooling fan side opening and in the shape of an inverted letter U such that cooling air taken in through the cooling air inlet first flows upward is inverted by a U-shaped part of the cooling air passage to flow downward, and is then caused to flow rearward by an L-shaped part of the cooling air passage to the cooling fan side opening of the transmission case; the cooling air inlet extends along an edge of a body cover of the small vehicle; the body cover is provided with pillion footrests and extends below the pillion footrests; and the cooling air passage is formed in a space covered with the body cover. the cooling air inlet is disposed at a position in an upper part of a space beside the cooling fan side opening; the cooling air passage is formed in a manner surrounding the cooling fan side opening and in the shape of an inverted letter U such that cooling air taken in through the cooling air inlet first flows upward is inverted by a U-shaped part of the cooling air passage to flow downward, and is then caused to flow rearward by an L-shaped part of the cooling air passage to the cooling fan side opening of the transmission case; the cooling air inlet extends along an edge of a body cover of the small vehicle; the body cover is provided with pillion footrests and extends below the pillion footrests; and the cooling air passage is formed in a space covered with the body cover.
Method of determining the level height p 1 of a first medium in a tiltable metallurgical vessel, for example in a converter, wherein the first medium is covered by a second medium, comprising the following steps: a arranging a measurement point in the vessel wall above the level p 1 of the first medium with vertical orientation of the metallurgical vessel, b tilting the vessel, c during tiling of the vessel: recognising a first tilt position, in which the first medium reaches the measurement point, with the help of a sensor and an evaluating unit,, d determining a first tilt angle α 1 in this first tilt position, and e calculating the level height p 1 of the first medium with a vertical position of the vessel from the determined first tilt angle α 1 on the basis of trigonometric functions. a arranging a measurement point in the vessel wall above the level p 1 of the first medium with vertical orientation of the metallurgical vessel, b tilting the vessel, c during tiling of the vessel: recognising a first tilt position, in which the first medium reaches the measurement point, with the help of a sensor and an evaluating unit,, d determining a first tilt angle α 1 in this first tilt position, and e calculating the level height p 1 of the first medium with a vertical position of the vessel from the determined first tilt angle α 1 on the basis of trigonometric functions.
A camera lens, comprising a first lens, a second lens, a third lens, a fourth lens, a fifth lens and a sixth lens from an object side of the camera lens to an image side of the camera lens in turn, wherein the camera lens does not comprise more than six lenses, wherein the first lens is of a positive focal power, an object side surface of the first lens is convex; the second lens is of a negative focal power; the third lens is of a negative focal power, an object side surface of the third lens is concave; the fourth lens is of a positive focal power; the fifth lens is of a positive focal power, an image side surface of the fifth lens is convex; the sixth lens is of a negative focal power, an image side surface of the sixth lens is concave; and the camera lens meets the following formula: 0 < f / f 4 < 0.8; 0 < T 12 / T 23 < 0.14, wherein f represents an effective focal length of the camera lens, f4 represents a focal length of the fourth lens, T12 is a distance between the first lens and the second lens along an axial direction, and T23 is a distance between the second lens and the third lens along the axial direction, wherein an image side surface of the fourth lens is concave; and an object side surface of the fourth lens is convex, an object side surface of the second lens is convex, and an image side surface of the second lens is concave, and an image side surface of the third lens is convex. the first lens is of a positive focal power, an object side surface of the first lens is convex; the second lens is of a negative focal power; the third lens is of a negative focal power, an object side surface of the third lens is concave; the fourth lens is of a positive focal power; the fifth lens is of a positive focal power, an image side surface of the fifth lens is convex; the sixth lens is of a negative focal power, an image side surface of the sixth lens is concave; and the camera lens meets the following formula: 0 < f / f 4 < 0.8; 0 < T 12 / T 23 < 0.14, wherein f represents an effective focal length of the camera lens, f4 represents a focal length of the fourth lens, T12 is a distance between the first lens and the second lens along an axial direction, and T23 is a distance between the second lens and the third lens along the axial direction, wherein an image side surface of the fourth lens is concave; and an object side surface of the fourth lens is convex, an object side surface of the second lens is convex, and an image side surface of the second lens is concave, and an image side surface of the third lens is convex.