mhurhangee/ep-ind-claims huggingface dataset:
A method for maintaining the total braking force of a rail vehicle taking into account the available adhesion conditions, involving the following steps: - recognition that at least one unit (I, II, III) is wheel-slide-controlled; - retrieval of the type of adhesion (nH, xnH) prevailing at the wheel-slide-controlled units (I, II, III); - determination of the values μ0 and Kμ0 for each unit (I, II, III) that is wheel-slide-controlled, μ0 and Kμ0 indicating adhesion values between rail and rail vehicle wheel; - formation of a function for the value μ0 and a function for the value Kμ0, in each case over the entire length of the unit (I, II, III), i.e. in the longitudinal direction of a rail vehicle, based on the values determined for μ0 and Kμ0 for the wheel-slide-controlled units (I, II, III); - comparison of the current braking request (BA_I, BA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), with the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, BA_II, BA_III); - adjustment of each braking request (BA_I, SA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), towards the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, SA_II, BA_III). - recognition that at least one unit (I, II, III) is wheel-slide-controlled; - retrieval of the type of adhesion (nH, xnH) prevailing at the wheel-slide-controlled units (I, II, III); - determination of the values μ0 and Kμ0 for each unit (I, II, III) that is wheel-slide-controlled, μ0 and Kμ0 indicating adhesion values between rail and rail vehicle wheel; - formation of a function for the value μ0 and a function for the value Kμ0, in each case over the entire length of the unit (I, II, III), i.e. in the longitudinal direction of a rail vehicle, based on the values determined for μ0 and Kμ0 for the wheel-slide-controlled units (I, II, III); - comparison of the current braking request (BA_I, BA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), with the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, BA_II, BA_III); - adjustment of each braking request (BA_I, SA_II, BA-III) at each of the units (I, II, III), i.e. including the non-wheel-slide-controlled units (I, II, III), towards the value of the function of Kμ0 at the point of the corresponding braking request (BA_I, SA_II, BA_III).
Method for mutual authentication of a reader and a radio tag, comprising: - a protocol for authentication of the tag by the reader, which is implemented according to a GPS authentication scheme comprising pre-calculation of a predetermined number (n) of authentication coupons (x i) for the tag, and - a step of the tag sending, to the reader, a datum allowing determination of an index (i) for identifying an authentication coupon (t i) for the reader, said index being chosen by the tag, - a step of the reader obtaining the coupon (t i) on the basis of the determined index, and of the reader sending said coupon (t i) and a GPS scheme challenge (c) to the tag, - a step of the tag obtaining an authentication value on the basis of the chosen index, and of the tag verifying that the coupon received from the reader corresponds to the obtained authentication value, the authentication value (t i) for the reader being obtained by means of a first pseudo-random function (PRF'), which is installed on the tag, parameterized by a first secret regeneration key (k') and applied to the chosen index, - if the verification is positive, a step of the tag sending, to the reader, a response (y), which is calculated in response to the challenge (c) and allows the authentication of the tag by the reader to be finalized, and - if the verification is negative, an interruption of the mutual authentication method. - a protocol for authentication of the tag by the reader, which is implemented according to a GPS authentication scheme comprising pre-calculation of a predetermined number (n) of authentication coupons (x i) for the tag, and - a step of the tag sending, to the reader, a datum allowing determination of an index (i) for identifying an authentication coupon (t i) for the reader, said index being chosen by the tag, - a step of the reader obtaining the coupon (t i) on the basis of the determined index, and of the reader sending said coupon (t i) and a GPS scheme challenge (c) to the tag, - a step of the tag obtaining an authentication value on the basis of the chosen index, and of the tag verifying that the coupon received from the reader corresponds to the obtained authentication value, the authentication value (t i) for the reader being obtained by means of a first pseudo-random function (PRF'), which is installed on the tag, parameterized by a first secret regeneration key (k') and applied to the chosen index, - if the verification is positive, a step of the tag sending, to the reader, a response (y), which is calculated in response to the challenge (c) and allows the authentication of the tag by the reader to be finalized, and - if the verification is negative, an interruption of the mutual authentication method.
Closure actuating device for actuating a closure element (3.5), in particular a latch tongue, having a rotatably mounted threaded pin and a fastening device for axially fastening the threaded pin to a closure element, in particular a door, having a fastening element which can be screwed onto the threaded pin, and an anti-rotation lock for securing the screwed-on fastening element, characterised in in that the anti-rotation lock has a sealing region (4.3) for sealing the threaded pin with respect to the closing element.
A driving assembly for moving or rotating, or assisting or resisting movement of, a first body part relative to a second body part and preferably enabling flexion, extension, pronation, supination, rotation, abduction, and adduction of the first body part relative to the second body part, comprising at least one remote center and cascadable manipulator unit (100, 200, 593) for body part including a housing (110, 210, 510) for accommodating at least partly of an actuator (220, 520), a torque/force transmission gear (230, 530), a partial gear wheel (240, 540) operatively connected with each other, a first connector (161, 261, 361, 561) arranged for coupling with the first body part, a second connector (162, 262, 362, 562) coupled with the partial gear wheel (240, 540) and arranged for coupling with the second body part and further configured to be driven by the partial gear wheel actuated by the actuator (220, 520) via the torque transmission gear (230, 530) for coupling and moving with the second body part, and an arc channel or rail (250, 550) for confining and/or guiding reciprocal or back and forth remote center rotational movement of the partial gear wheel (240, 540), wherein the second connector (162, 262, 362, 562) is configured to be driven by the partial gear wheel (240, 540) to rotate a predetermined or desired first angle about a rotation axis defined by a curvature of the partial gear wheel and the arc channel or rail (250, 550) in response to a preset instruction or a received real-time instruction, so as to drive the second body part coupled therewith to rotate a predetermined or desired second angle about a body joint positioned between the first and the second body parts, wherein the cascadable manipulator unit is capable of rotating the second body part without occupying axial space of the body joint; and wherein the cascadable manipulator unit is cascadable with its duplicate or another cascadable manipulator unit of different actuators, of different gears, of different sizes, of different ranges of motion, or of different materials, for multiple body joints manipulation or composite movement manipulation of a single body joint. wherein the second connector (162, 262, 362, 562) is configured to be driven by the partial gear wheel (240, 540) to rotate a predetermined or desired first angle about a rotation axis defined by a curvature of the partial gear wheel and the arc channel or rail (250, 550) in response to a preset instruction or a received real-time instruction, so as to drive the second body part coupled therewith to rotate a predetermined or desired second angle about a body joint positioned between the first and the second body parts, wherein the cascadable manipulator unit is capable of rotating the second body part without occupying axial space of the body joint; and wherein the cascadable manipulator unit is cascadable with its duplicate or another cascadable manipulator unit of different actuators, of different gears, of different sizes, of different ranges of motion, or of different materials, for multiple body joints manipulation or composite movement manipulation of a single body joint.
A compound 4,4,4-trifluoro-N-[ -2-[[ -5-(2-hydroxyethyl)-6-oxo-7H-pyrido[2,3-d] benzazepin-7-yl]amino]-1-methyl-2-oxo-ethyl]butanamide, or a pharmaceutically acceptable salt or hydrate thereof for use in a method of treating non-small cell lung cancer; wherein the method comprises administering 4,4,4-trifluoro-N-[ -2-[[ -5-(2-hydroxyethyl)-6-oxo-7H-pyrido[2,3-d] benzazepin-7-yl]amino]-1-methyl-2-oxo-ethyl]butanamide, or a pharmaceutically acceptable salt or hydrate thereof in combination with N-[5-(4-ethyl-piperazin-1-ylmethyl)-pyridin-2-yl]-[5-fluoro-4-(7-fluoro-3-isopropyl-2-methyl-3H-benzoimidazol-5-yl)-pyrimidin-2-yl]-amine, or a pharmaceutically acceptable salt thereof.
A composite insulator for overhead power lines, the composite insulator comprising a rigid core extending axially between two attachment fittings and having placed thereon a shell having sheds (5, 5') made of electrically insulating synthetic material, the composite insulator being characterized in that it includes a detector device for detecting surface leakage currents, the detector device comprising an electrically conductive metal annular ring surrounding said shell between an end shed adjacent to one of said two fittings and another shed adjacent to said end shed, said end shed extending radially over said ring, and said ring being connected to a conductive wire that passes through said end shed to be connected to an electronic unit of said detector device.
Range of at least two types of motor vehicle, of which a first vehicle type comprises a sheet metal roof (21a, 21b) and a second type comprises a glass roof, these vehicles each comprising a body shell structure having side rails consisting of an outer wall facing the outside of the vehicle and an inner wall, forming an interior lining, facing the inside of the vehicle, characterized in that the side rails are identical for both types of motor vehicle and selectively form a low second support zone for a longitudinal lateral edge of the sheet metal roof of the vehicle of the first type or a high first support zone for a lower face of the glass roof of the vehicle of the second type.
An identification apparatus comprising: an irradiation portion (22S, 22L) optically connected to a light source configured to generate light beams (220S, 220L) of different excitation wavelengths, the irradiation portion configured to irradiate a test sample with the light beams; a light collecting portion (20S, 20L) configured to collect a scattered light beam from the test sample irradiated with each light beam; a dispersing portion configured to disperse each light beam from the light collecting portion; an imaging lens through which each spectral light beam dispersed by the dispersing portion travels; and an imaging portion comprising an imaging sensor configured to image each spectral light beam projected through the imaging lens and acquire a spectral image, characterised in that: each spectral light beam corresponding to a predetermined wavenumber shift is projected to the imaging sensor of the imaging portion so that a distance (Δf) between a projection position of the spectral light beam corresponding to the predetermined wavenumber shift on the imaging sensor and a changed projection position as a result of the different excitation wavelength is shorter than a distance (Δi) at the imaging lens between an optical path of the spectral light beam corresponding to the predetermined wavenumber shift and a changed optical path as a result of the different excitation wavelength. an irradiation portion (22S, 22L) optically connected to a light source configured to generate light beams (220S, 220L) of different excitation wavelengths, the irradiation portion configured to irradiate a test sample with the light beams; a light collecting portion (20S, 20L) configured to collect a scattered light beam from the test sample irradiated with each light beam; a dispersing portion configured to disperse each light beam from the light collecting portion; an imaging lens through which each spectral light beam dispersed by the dispersing portion travels; and an imaging portion comprising an imaging sensor configured to image each spectral light beam projected through the imaging lens and acquire a spectral image, characterised in that: each spectral light beam corresponding to a predetermined wavenumber shift is projected to the imaging sensor of the imaging portion so that a distance (Δf) between a projection position of the spectral light beam corresponding to the predetermined wavenumber shift on the imaging sensor and a changed projection position as a result of the different excitation wavelength is shorter than a distance (Δi) at the imaging lens between an optical path of the spectral light beam corresponding to the predetermined wavenumber shift and a changed optical path as a result of the different excitation wavelength.
An electric energy transmission aluminum part, comprising an aluminum body internally provided with a conical insertion hole which penetrates through front and rear ends thereof, with the conical insertion hole being provided with a maximum diameter end and a minimum diameter end; characterized in that the maximum diameter end of the conical insertion hole is provided with a limiting platform, the limiting platform is extended outward in a radial direction from said conical insertion hole, and the limiting platform protrudes out of an outer surface of the aluminum body.
A method of manufacturing a rotary scale to be fixed to a rotating shaft of a rotating member, the method comprising: a first step of forming, on a scale substrate, a scale pattern and a mark indicating an outer shape of the rotating shaft positioned such that a center axis of the rotating shaft coincides with a center axis of the scale pattern; a second step of cutting three through holes (12,13, and 14) having outer shape portions within the scale substrate, such that the outer shape portions include the mark while excluding three mark portions (22, 23, 24); and a third step of cutting the scale substrate along the at least three mark portions that remain after the second step, wherein by performing the second and third step, protrusions are formed so as to be provided at at least three locations in the circumferential direction of the scale substrate to be used for supporting the rotary scale at the rotating shaft, and the area cut in the third step having a length in a circumferential direction of the scale substrate shorter than that in the through holes cut in the second step and having a second width narrower than a first width of the through holes cut in the second step. a first step of forming, on a scale substrate, a scale pattern and a mark indicating an outer shape of the rotating shaft positioned such that a center axis of the rotating shaft coincides with a center axis of the scale pattern; a second step of cutting three through holes (12,13, and 14) having outer shape portions within the scale substrate, such that the outer shape portions include the mark while excluding three mark portions (22, 23, 24); and a third step of cutting the scale substrate along the at least three mark portions that remain after the second step, wherein by performing the second and third step, protrusions are formed so as to be provided at at least three locations in the circumferential direction of the scale substrate to be used for supporting the rotary scale at the rotating shaft, and the area cut in the third step having a length in a circumferential direction of the scale substrate shorter than that in the through holes cut in the second step and having a second width narrower than a first width of the through holes cut in the second step.
A method for navigating a robot for docking with a robot charger docking station, comprising: receiving an initial pose associated with a robot charger docking station; receiving a mating pose associated with the robot charger docking station; the method being characterised by the following steps: performing a first navigation of a robot from a location to the initial pose using scan matching to a first SLAM map; performing a second navigation of the robot from the initial pose to the mating pose using scan matching to a second SLAM map having a higher resolution than a resolution of the first SLAM map; thereby causing the electrical charging port of the robot to mate with an electrical charging assembly of the robot charger docking station upon arriving at the mating pose. receiving an initial pose associated with a robot charger docking station; receiving a mating pose associated with the robot charger docking station; the method being characterised by the following steps: performing a first navigation of a robot from a location to the initial pose using scan matching to a first SLAM map; performing a second navigation of the robot from the initial pose to the mating pose using scan matching to a second SLAM map having a higher resolution than a resolution of the first SLAM map; thereby causing the electrical charging port of the robot to mate with an electrical charging assembly of the robot charger docking station upon arriving at the mating pose. performing a first navigation of a robot from a location to the initial pose using scan matching to a first SLAM map; performing a second navigation of the robot from the initial pose to the mating pose using scan matching to a second SLAM map having a higher resolution than a resolution of the first SLAM map; thereby causing the electrical charging port of the robot to mate with an electrical charging assembly of the robot charger docking station upon arriving at the mating pose.
An assay plate comprising: a body having a plurality of reservoirs (140, 240, 340, 440) formed therein, the reservoirs (140, 240, 340, 440) shaped and aligned in the body in an orientation to induce drainage of fluids contained therein in a desired direction towards a single plane or a single point, wherein the reservoirs (140, 240, 340, 440) each have a spout portion (248, 348, 448), the spout portion having a vertex directed toward the single plane or the single point, characterized in that the reservoirs (140, 240, 340, 440) have a downwardly tapered frustoconical portion (249, 449) adjacent to the spout portion (248, 348, 448), the frustoconical portion (249, 449) having a frustrum forming a base (243, 343, 443) of the reservoir (140, 240, 340, 440).
A silicon-on-insulator complementary metal oxide semiconductor (CMOS) wafer for use in manufacturing an uncooled microbolometer, the SOI-CMOS wafer comprising: a substrate layer an insulation layer formed on the substrate layer, the insulation layer having a pixel region (620, 640) and a wall region (611, 612, 613) surrounding the pixel region (620, 640) without contacting the pixel region (620, 640) thus defining a space between the pixel region (620, 640) and the wall region (611, 612, 613); a pixel structure formed on the pixel region (620, 640) of the insulation layer; a wall structure formed adjacent to the pixel structure and on the wall region of the insulation layer; a support arm structure formed on the insulation layer in the space between the pixel region and the wall region and providing mechanical and electrical connections between the pixel structure and adjacent wall structures; and the pixel structure including a diode group (621, 641) formed on the insulation layer, an umbrella layer (627, 647) made from a heat absorbing material, covering the diode group (621, 641), and extending laterally outward to cover the support arm structure, the umbrella layer (627, 647) configured to receive an infrared ray and convert the infrared ray into heat, and characterized by the wall structure including a wall mask (651, 652, 653) for protecting the wall structure during a dry etch process; and a pixel mask (626, 646) located above the umbrella layer (624, 647) and configured to protect the umbrella layer (627, 647) during the dry etching process. a substrate layer an insulation layer formed on the substrate layer, the insulation layer having a pixel region (620, 640) and a wall region (611, 612, 613) surrounding the pixel region (620, 640) without contacting the pixel region (620, 640) thus defining a space between the pixel region (620, 640) and the wall region (611, 612, 613); a pixel structure formed on the pixel region (620, 640) of the insulation layer; a wall structure formed adjacent to the pixel structure and on the wall region of the insulation layer; a support arm structure formed on the insulation layer in the space between the pixel region and the wall region and providing mechanical and electrical connections between the pixel structure and adjacent wall structures; and the pixel structure including a diode group (621, 641) formed on the insulation layer, an umbrella layer (627, 647) made from a heat absorbing material, covering the diode group (621, 641), and extending laterally outward to cover the support arm structure, the umbrella layer (627, 647) configured to receive an infrared ray and convert the infrared ray into heat, and characterized by the wall structure including a wall mask (651, 652, 653) for protecting the wall structure during a dry etch process; and a pixel mask (626, 646) located above the umbrella layer (624, 647) and configured to protect the umbrella layer (627, 647) during the dry etching process.
A method for preparing an elastomeric propylene-based polymer yarn comprising: (a) providing an elastomeric propylene-based polymer composition; (b) heating said elastomeric propylene-based polymer composition to a temperature of 220°C to 300°C; (c) extruding said composition through a capillary to form a yarn; and (d) winding said yarn onto a package, wherein the winding speed is from 400 m/min to 800 m/min; wherein said elastomeric polypropylene-based polymer yarn has an elongation from 300% to 500% and wherein said elastomeric propylene-based polymer composition comprises at least one elastomeric propylene-based polymer, wherein said elastomeric propylene-based polymer has an average propylene content on a weight percent basis of 60 wt % to 99.7 wt % and the balance of the elastomeric propylene-based polymer comprises a diene and/or one or more α-olefins. (a) providing an elastomeric propylene-based polymer composition; (b) heating said elastomeric propylene-based polymer composition to a temperature of 220°C to 300°C; (c) extruding said composition through a capillary to form a yarn; and (d) winding said yarn onto a package, wherein the winding speed is from 400 m/min to 800 m/min; wherein said elastomeric polypropylene-based polymer yarn has an elongation from 300% to 500% and wherein said elastomeric propylene-based polymer composition comprises at least one elastomeric propylene-based polymer, wherein said elastomeric propylene-based polymer has an average propylene content on a weight percent basis of 60 wt % to 99.7 wt % and the balance of the elastomeric propylene-based polymer comprises a diene and/or one or more α-olefins.