mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a vehicle, wherein the vehicle is able to be operated in a first operating mode in which the vehicle drives autonomously in a lane based on the acquisition of lane markings of the lane, and in a second operating mode in which the vehicle autonomously follows a vehicle travelling in front, ignoring lane markings, comprising the following steps: - operating the vehicle in one of the two operating modes, - acquiring vehicle surroundings, - changing over from one operating mode of the two operating modes to the other of the two operating modes depending on the acquired vehicle surroundings, o characterized in that, when the vehicle is being operated in the first operating mode and an obstacle located in front of the vehicle is detected based on the acquired vehicle surroundings, a changeover takes place to the second operating mode. - operating the vehicle in one of the two operating modes, - acquiring vehicle surroundings, - changing over from one operating mode of the two operating modes to the other of the two operating modes depending on the acquired vehicle surroundings, o characterized in that, when the vehicle is being operated in the first operating mode and an obstacle located in front of the vehicle is detected based on the acquired vehicle surroundings, a changeover takes place to the second operating mode.
A head mounted system comprising: a) a binocular eye tracking system (14a, 14b) comprising: - at least a first camera arranged for acquiring a user's left eye; - at least a second camera arranged for acquiring a user's right eye; b) a head mounted display comprising: - a first displaying means for presenting an image to a user's left eye; - a second displaying means for presenting an image to a user's right eye; c) a processing unit (24, 24a, 24b) designed to - process images from the eye tracking system (14a, 14b) and calculate at least an orientation vector of the left and the right eye; characterized in that the processing unit (24, 24a, 24b) is further designed to - calculate a 3D position of the left and the right eye; - compute and render a stream of digital images to be projected onto the user's left and right eye (16a, 16b) by means of the head mounted display; and - consider the 3D position of the left and the right eye (16a, 16b) and the orientation of the left and the right eye (16a, 16b) when computing and rendering the stream of digital images for positioning a virtual camera when rendering a virtual 3D scene and/or to determine which part of a virtual scene is rendered in focus. a) a binocular eye tracking system (14a, 14b) comprising: - at least a first camera arranged for acquiring a user's left eye; - at least a second camera arranged for acquiring a user's right eye; - at least a first camera arranged for acquiring a user's left eye; - at least a second camera arranged for acquiring a user's right eye; b) a head mounted display comprising: - a first displaying means for presenting an image to a user's left eye; - a second displaying means for presenting an image to a user's right eye; - a first displaying means for presenting an image to a user's left eye; - a second displaying means for presenting an image to a user's right eye; c) a processing unit (24, 24a, 24b) designed to - process images from the eye tracking system (14a, 14b) and calculate at least an orientation vector of the left and the right eye; - process images from the eye tracking system (14a, 14b) and calculate at least an orientation vector of the left and the right eye; - calculate a 3D position of the left and the right eye; - compute and render a stream of digital images to be projected onto the user's left and right eye (16a, 16b) by means of the head mounted display; and - consider the 3D position of the left and the right eye (16a, 16b) and the orientation of the left and the right eye (16a, 16b) when computing and rendering the stream of digital images for positioning a virtual camera when rendering a virtual 3D scene and/or to determine which part of a virtual scene is rendered in focus.
Device for heat treatment of sheet metal strips having at least one radiant tube unit which comprises three tubes disposed in a common plane in parallel with the sheet metal strip, namely a middle tube which can be connected to a burner and two outer tubes which are connected at both ends to the middle tube via tube bends, and having a bearing on the side of the radiant tube unit opposite the burner for a bearing journal connected to the two tube bends between the middle tube on the one hand and the two outer tubes on the other hand, the bearing journal engaging in a journal receptacle of the bearing in an axially displaceable manner, characterised in that an insert forming a sliding layer is provided in the support area of the bearing journal between the journal receptacle of the bearing and the bearing journal.
An absorbent body for an absorbent article, comprising an absorbent core which includes a polymer absorbing agent and further comprising a core wrapping sheet, wherein the core wrapping sheet includes (i) a first hydrophilic fiber containing layer which is adjacent to the absorbent core and includes first hydrophilic fibers with an average fiber length of 25 mm to 75 mm, (ii) a pulp fiber containing layer which is adjacent to the first hydrophilic fiber containing layer and includes pulp fibers, and (iii) a second hydrophilic fiber containing layer which is adjacent to the pulp fiber containing layer and includes second hydrophilic fibers with an average fiber length of 25 mm to 75 mm, and a portion of the pulp fibers in the pulp fiber containing layer penetrates the first hydrophilic fiber containing layer and is in contact with the absorbent core. the core wrapping sheet includes (i) a first hydrophilic fiber containing layer which is adjacent to the absorbent core and includes first hydrophilic fibers with an average fiber length of 25 mm to 75 mm, (ii) a pulp fiber containing layer which is adjacent to the first hydrophilic fiber containing layer and includes pulp fibers, and (iii) a second hydrophilic fiber containing layer which is adjacent to the pulp fiber containing layer and includes second hydrophilic fibers with an average fiber length of 25 mm to 75 mm, and a portion of the pulp fibers in the pulp fiber containing layer penetrates the first hydrophilic fiber containing layer and is in contact with the absorbent core.
A system for finish application comprising - at least one feeding pump which enables the system to be fed with finish mixture prepared in aqueous medium in 10-20 % concentration by mass, - at least one feeding tank wherein the finish pumped via the feeding pump is stored before being fed to the system, - at least one circulation pump which enables the finish coming from the finish feeding tank to be transferred to the finish feeding tray, - at least one feeding tank filter through which the finish overflowing from the finish feeding tray passes to be cleaned before being transferred to the finish feeding tank again, - at least one finish feeding tray which enables the finish to be carried to the feeding roller, - at least one drive group which provides rotary motion to the feeding roller, - at least one finish feeding tray overflow wherein the finish overflowing from the finish feeding tray is accumulated, - at least one tow band on which the finish is applied, - at least one feeding roller which transfers the finish it receives from the feeding tray to the tow bands with rotary motion - the tow band and the feeding roller rotate in reverse directions - characterized in that in the system the finish is given after the drying. - at least one feeding pump which enables the system to be fed with finish mixture prepared in aqueous medium in 10-20 % concentration by mass, - at least one feeding tank wherein the finish pumped via the feeding pump is stored before being fed to the system, - at least one circulation pump which enables the finish coming from the finish feeding tank to be transferred to the finish feeding tray, - at least one feeding tank filter through which the finish overflowing from the finish feeding tray passes to be cleaned before being transferred to the finish feeding tank again, - at least one finish feeding tray which enables the finish to be carried to the feeding roller, - at least one drive group which provides rotary motion to the feeding roller, - at least one finish feeding tray overflow wherein the finish overflowing from the finish feeding tray is accumulated, - at least one tow band on which the finish is applied, - at least one feeding roller which transfers the finish it receives from the feeding tray to the tow bands with rotary motion - the tow band and the feeding roller rotate in reverse directions - characterized in that in the system the finish is given after the drying.
An assembly device of a ball screw including a screw shaft having a spiral screw groove formed in an outer peripheral surface of the screw shaft, a nut which is fitted over the screw shaft and having a spiral screw groove formed in an inner peripheral surface of the nut, a plurality of balls which is accommodated in a rolling path formed of both spiral screw grooves facing each other, and an internal-deflector member which serves as a member for circulating the plurality of balls, nut receiving means which receives the nut and rotates the nut about an axis of the nut; characterized in that the assembly device further comprises: a ball-embedding nozzle which has a ball supply path; a ball pusher which is inserted into the ball supply path and pushes the plurality of balls supplied into the ball supply path into a screw groove of the nut; and a ball falling prevention member which is fitted into the nut from a lower opening of the nut to prevent falling of the plurality of balls supplied into the nut, wherein a spiral screw groove identical to the spiral screw groove of the screw shaft is provided in an outer circumferential surface of the ball-embedding nozzle. a ball-embedding nozzle which has a ball supply path; a ball pusher which is inserted into the ball supply path and pushes the plurality of balls supplied into the ball supply path into a screw groove of the nut; and a ball falling prevention member which is fitted into the nut from a lower opening of the nut to prevent falling of the plurality of balls supplied into the nut, wherein a spiral screw groove identical to the spiral screw groove of the screw shaft is provided in an outer circumferential surface of the ball-embedding nozzle.
A food dispensing apparatus comprising a housing, a food storage means for storing a wrapped food product that is at least partly covered with a wrapper, redirecting means configured for redirecting the wrapper away from the food product to opposite faces to separate the wrapper into at least two parts in order to unwrap the food product, and feeding means configured for feeding the wrapped food product towards the redirecting means, said housing comprising an opening configured for dispensing the unwrapped food product, characterised by the provision of a proximity sensor connected to the feeding means, configured to activate the feeding means for dispensing a predetermined amount of the food product.
Absorption means which is a body; which is floatable on the surface; of a liquid;, the entire surface of which can absorb and which displays the degree of saturation, characterized in that the body; consists of a material having a uniform density distribution and low density compared with the density of the liquid;, which has a low absorption capacity compared with the liquid; and a high absorption capacity for substances floating at the same time on the surface; and which are to be absorbed, which displays the degree of saturation whereby it has a first orientation in the unsaturated initial state floating on the surface; and at saturation adopts a stable equilibrium position which can be distinguished from the initial state as second orientation, which in the unsaturated state floats with low immersion depth and in the saturated state floats with high immersion depth on the surface; of the liquid;, wherein the body; in the unsaturated state in its first orientation has a position in which a plane which can be drawn through the body; which corresponds to that of the surface; of the liquid;, intersects from the body; a fraction of the total volume of the body; the magnitude of which corresponds to the volume of the liquid displaced as a result of the own weight of the body; and the body; in the saturated state in a second orientation and stable equilibrium position floats in the liquid; so that the plane which can be drawn through the body; which corresponds to the plane of the surface; of the liquid; lies such that only a fraction of the volume of the body; projects from the liquid;.
A soil additive composition comprising: a polymer comprising: (i) monomer A b comprising at least one betaine group or at least one cationic group; and (ii) monomer B a comprising at least one non-ionic group or at least one anionic group, wherein the polymer is water-soluble or water-dispersible; and provided that if the monomer A b comprises a cationic group, the monomer B a comprises an anionic group; and a seed at least partially coated by the polymer. a polymer comprising: (i) monomer A b comprising at least one betaine group or at least one cationic group; and (ii) monomer B a comprising at least one non-ionic group or at least one anionic group, (i) monomer A b comprising at least one betaine group or at least one cationic group; and (ii) monomer B a comprising at least one non-ionic group or at least one anionic group, wherein the polymer is water-soluble or water-dispersible; and provided that if the monomer A b comprises a cationic group, the monomer B a comprises an anionic group; and a seed at least partially coated by the polymer.
A steering control device configured to control a steering system including a turning actuator that turns steered wheels of a vehicle, the steering system assisting turning of the steered wheels in accordance with steering of a steering wheel, the turning actuator including a motor, the steering control device, comprising: a feedback processing portion configured to control through feedback a current (iq) flowing through the motor to a current command value (iq*); an end determination processing portion configured to determine whether a turning angle of steered wheels has reached a limit angle determined by a structure of the steering system; and an end-time limit processing portion configured to limit a magnitude of the current command value (iq*) for the motor to a magnitude of a limited current value or smaller, when the end determination processing portion determines that the turning angle has reached the limit angle, characterized in that the limited current value is a value obtained by performing correction to decrease a magnitude of a detected value of the current (iq) flowing through the motor at a time when the end determination processing portion determines that the turning angle has reached the limit angle, based on a degree of a decrease in a magnitude of a rotational speed (ω) of the motor. a feedback processing portion configured to control through feedback a current (iq) flowing through the motor to a current command value (iq*); an end determination processing portion configured to determine whether a turning angle of steered wheels has reached a limit angle determined by a structure of the steering system; and an end-time limit processing portion configured to limit a magnitude of the current command value (iq*) for the motor to a magnitude of a limited current value or smaller, when the end determination processing portion determines that the turning angle has reached the limit angle, characterized in that the limited current value is a value obtained by performing correction to decrease a magnitude of a detected value of the current (iq) flowing through the motor at a time when the end determination processing portion determines that the turning angle has reached the limit angle, based on a degree of a decrease in a magnitude of a rotational speed (ω) of the motor.
Method for stabilising and heaving structures, comprising: carrying out compaction injections below the structure in each case by sinking an injection pipe and injecting an injection agent into the ground (8, 9), wherein a set of separate injection bodies (14, 14', 14") is built which are arranged one above the other and which together form a respective stabilising element (12, 13); carrying out fracture injections below the structure by means of at least one fracture injection pipe (15, 16) inserted into the ground, which is inserted into the ground to a depth (T15, T16) of at least a quarter of the depth (T12a) of the longest stabilising element (12, 13), characterised in that the fracture injections - viewed in horizontal section - are carried out in ground areas between two or more stabilising elements (12, 13), and wherein the fracture injections are made by injecting a suspension at different depths in such a way that the fracture injection bodies (17, 18) built by means of fracture injections have an overlap in depth direction with the stabilising elements (12, 13) of at least one quarter of the longest stabilising element (12, 13). carrying out compaction injections below the structure in each case by sinking an injection pipe and injecting an injection agent into the ground (8, 9), wherein a set of separate injection bodies (14, 14', 14") is built which are arranged one above the other and which together form a respective stabilising element (12, 13); carrying out fracture injections below the structure by means of at least one fracture injection pipe (15, 16) inserted into the ground, which is inserted into the ground to a depth (T15, T16) of at least a quarter of the depth (T12a) of the longest stabilising element (12, 13), characterised in that the fracture injections - viewed in horizontal section - are carried out in ground areas between two or more stabilising elements (12, 13), and wherein the fracture injections are made by injecting a suspension at different depths in such a way that the fracture injection bodies (17, 18) built by means of fracture injections have an overlap in depth direction with the stabilising elements (12, 13) of at least one quarter of the longest stabilising element (12, 13).
An X-ray imaging apparatus, comprising: at least one X-ray detector including a storage unit configured to store identification information and a mounting position detecting unit configured to detect a mounting position of the x-ray detector; at least one mounting unit (300, 310, 320, 330) in which the at least one X-ray detector is mounted, wherein the at least one mounting unit includes one of a table mounting unit provided in an imaging table, and a stand mounting unit provided in an imaging stand; and a control unit configured to determine which of the at least one X-ray detector is mounted based on ID information, and to determine in which of the at least one mounting units the detector is mounted based on an output value of the mounting position detecting unit, characterized in that each of the mounting units includes a magnet which is mounted in a different region of the mounting unit and/or aligned by a different polarity as the magnets included in the other mounting units, the mounting position detecting unit includes at least one magnetic sensor to detect magnetic field direction, and the magnetic sensor detects a different magnetic field direction according to the mounting unit in which the detector is mounted. at least one X-ray detector including a storage unit configured to store identification information and a mounting position detecting unit configured to detect a mounting position of the x-ray detector; at least one mounting unit (300, 310, 320, 330) in which the at least one X-ray detector is mounted, wherein the at least one mounting unit includes one of a table mounting unit provided in an imaging table, and a stand mounting unit provided in an imaging stand; and a control unit configured to determine which of the at least one X-ray detector is mounted based on ID information, and to determine in which of the at least one mounting units the detector is mounted based on an output value of the mounting position detecting unit, characterized in that each of the mounting units includes a magnet which is mounted in a different region of the mounting unit and/or aligned by a different polarity as the magnets included in the other mounting units, the mounting position detecting unit includes at least one magnetic sensor to detect magnetic field direction, and the magnetic sensor detects a different magnetic field direction according to the mounting unit in which the detector is mounted.
A paper lid mainly made of paper, the paper lid comprising: a top plate portion, extending in a first direction; an inner fitting portion, provided along a circumferential direction of the top plate portion, extending in a second direction, which intersects the first direction, and being continuous with the top plate portion; a peak portion, provided along the circumferential direction of the inner fitting portion, extending in a third direction, which intersects the second direction, and being continuous with the inner fitting portion; an outer fitting portion, provided along the circumferential direction of the peak portion, extending in a fourth direction, which intersects the third direction, facing the inner fitting portion at a distance, and being continuous with the peak portion; and a flange portion, provided along the circumferential direction of the outer fitting portion, extending in a fifth direction, which intersects the fourth direction, being continuous with the outer fitting portion, and including an end of the paper lid, wherein an inner-surface side of the inner fitting portion has a wrinkle-free range from an edge of the top plate portion in the second direction, and has wrinkles beyond this range, characterized in that there are no wrinkles in the inner surface of the inner fitting portion intended to contact the inner peripheral surface of the container portion of the paper container at least within a range of 3 mm from the top plate portion in the second direction, and has wrinkles from 3 mm and beyond, wherein the peak portion and a tip of the flange portion has wrinkles. a top plate portion, extending in a first direction; an inner fitting portion, provided along a circumferential direction of the top plate portion, extending in a second direction, which intersects the first direction, and being continuous with the top plate portion; a peak portion, provided along the circumferential direction of the inner fitting portion, extending in a third direction, which intersects the second direction, and being continuous with the inner fitting portion; an outer fitting portion, provided along the circumferential direction of the peak portion, extending in a fourth direction, which intersects the third direction, facing the inner fitting portion at a distance, and being continuous with the peak portion; and a flange portion, provided along the circumferential direction of the outer fitting portion, extending in a fifth direction, which intersects the fourth direction, being continuous with the outer fitting portion, and including an end of the paper lid, wherein an inner-surface side of the inner fitting portion has a wrinkle-free range from an edge of the top plate portion in the second direction, and has wrinkles beyond this range, characterized in that there are no wrinkles in the inner surface of the inner fitting portion intended to contact the inner peripheral surface of the container portion of the paper container at least within a range of 3 mm from the top plate portion in the second direction, and has wrinkles from 3 mm and beyond, wherein the peak portion and a tip of the flange portion has wrinkles.