mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle body structure comprising: - a rear load floor; - a rear seat cross-member, located at the front of the rear load floor; the rear seat cross-member being at a distance from the rear load floor; and the structure further comprising an arm extending longitudinally and connecting said floor to said cross-member, characterized in that the rear seat cross-member is at a height lower than that of a front edge of the rear load floor, the arm having a front end inclined downwards and forwards, fixed to said cross-member, so as to compensate for the difference in height. - a rear load floor; - a rear seat cross-member, located at the front of the rear load floor;
An agent that increases Numb-72's expression and/or activity, wherein the agent is Numb-72 or a nucleic acid encoding Numb-72, for use in reducing neuronal microtubule binding protein Tau (Tau) levels, in a subject in need thereof which has a tauopathy or a Tau-associated optic neuropathy by contacting the subject's neurons with an effective amount of the agent.
A method of selecting an order of harvesting follicular units, comprising: automatically sorting a pool of candidate follicular units for harvesting based on one or more policy designed to improve speed, quality or efficacy of the hair harvesting; and automatically selecting among those automatically sorted a particular follicular unit to be harvested next, wherein the particular follicular unit is selected according to one or more additional policy, wherein the one or more policy, or the one or more additional policy is based on at least one of 1) appearance of follicular units in one or more images of a body surface in a predetermined preceding time interval, 2) location of follicular units within a certain distance to an item comprising one or more of another follicular unit, an edge of the field of view of the image, or a previous harvesting location, 3) follicular unit type, 4) follicular unit distance to a harvesting tool, 5) follicular unit orientation relative to an orientation of the harvesting tool, 6) follicular unit emergence angle from a body surface, or 7) a shape of follicular unit. automatically sorting a pool of candidate follicular units for harvesting based on one or more policy designed to improve speed, quality or efficacy of the hair harvesting; and automatically selecting among those automatically sorted a particular follicular unit to be harvested next, wherein the particular follicular unit is selected according to one or more additional policy, wherein the one or more policy, or the one or more additional policy is based on at least one of 1) appearance of follicular units in one or more images of a body surface in a predetermined preceding time interval, 2) location of follicular units within a certain distance to an item comprising one or more of another follicular unit, an edge of the field of view of the image, or a previous harvesting location, 3) follicular unit type, 4) follicular unit distance to a harvesting tool, 5) follicular unit orientation relative to an orientation of the harvesting tool, 6) follicular unit emergence angle from a body surface, or 7) a shape of follicular unit.
Road train, comprising a towing vehicle with a first box-type superstructure for receiving loads and comprising a trailer with a second box superstructure for receiving loads and also comprising a bridge plate between the first box superstructure and the second box superstructure, characterized by two side walls (42A, 42B), each of which can be adjusted between a stowage position, in which they are received by the first box superstructure or the second box superstructure, and an operating position, in which they are each mounted between the two box structures (22, 30) and each laterally delimit the bridge plate.
A susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) for inductively heating an aerosol-forming substrate (130, 430, 530, 630, 2130, 3130) under the influence of an alternating magnetic field, wherein the susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) comprises a first susceptor (121, 221, 261, 321, 421, 521, 621, 1021, 2061, 2161, 2361, 2761, 2861, 2961, 3761) including a first susceptor material and a second susceptor (122, 222, 262, 322, 422, 522, 622, 1022, 2062, 2162, 2362, 2762, 2862, 2962, 3762) including a second susceptor material, wherein the first and second susceptor materials are chosen such that during pre-heating of the susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) starting at room temperature a resistance-over-temperature profile of the susceptor assembly (120, 220, 260, 320, 420, 520, 620, 1020, 2060, 2160, 2360, 2760, 2860, 2960, 3760) has a minimum value of resistance in a temperature range of ±5 degree Celsius around a Curie temperature of the second susceptor material.
A bearing assembly for providing engagement of a rotor and a support, comprising: a shaft; an inner race (30, 32) affixed to the shaft; an outer race (36, 38) disposed radially around the inner race, the inner and outer races together defining a bearing run space between the inner and outer races; and rolling elements in the bearing run space; wherein one of: (i) the shaft along with the inner race (30, 32) or (ii) the outer race (36, 38) is attached to and configured to rotate with the rotor, and the other of (i) the shaft along with the inner race (30, 32) or (ii) the outer race (36, 38) is attached to the support; a first axial bore that is in the rotor if the outer race is attached to the rotor or is in the support if the outer race is attached to the support; a second axial bore that is in the support if the outer race is attached to the rotor or is in the rotor if the outer race is attached to the support; and wherein a first portion of the outer race (36, 38) is disposed in the first axial bore, and a second portion of the outer race is disposed in the second axial bore with a radial gap between a wall of the second axial bore and the second portion of the outer race; and further wherein the assembly is configured to provide a radial displacement between the second portion of the outer race and the second axial bore wall in response to a radial overload force applied to the rotor. a shaft; an inner race (30, 32) affixed to the shaft; an outer race (36, 38) disposed radially around the inner race, the inner and outer races together defining a bearing run space between the inner and outer races; and rolling elements in the bearing run space; wherein one of: (i) the shaft along with the inner race (30, 32) or (ii) the outer race (36, 38) is attached to and configured to rotate with the rotor, and the other of (i) the shaft along with the inner race (30, 32) or (ii) the outer race (36, 38) is attached to the support; a first axial bore that is in the rotor if the outer race is attached to the rotor or is in the support if the outer race is attached to the support; a second axial bore that is in the support if the outer race is attached to the rotor or is in the rotor if the outer race is attached to the support; and wherein a first portion of the outer race (36, 38) is disposed in the first axial bore, and a second portion of the outer race is disposed in the second axial bore with a radial gap between a wall of the second axial bore and the second portion of the outer race; and further wherein the assembly is configured to provide a radial displacement between the second portion of the outer race and the second axial bore wall in response to a radial overload force applied to the rotor.
A method comprising: receiving, in an apparatus comprising a first camera module that is configured to face in a first camera direction, a second camera module that is configured to face in a second camera direction which is substantially opposite to the first camera direction, and a display that is configured to display camera information, first image information from the first camera module; causing display of at least part of the first image information; receiving information indicative of a zoom input being indicative of a user's desire to change a zoom level of the first image information; determining that the zoom input is indicative of zooming beyond a zoom out threshold associated with the first image information, wherein the zoom out threshold is the zoom level beyond which zooming out is precluded, and based on said determination: receiving second image information from the second camera module; and causing display of at least part of the second image information. receiving, in an apparatus comprising a first camera module that is configured to face in a first camera direction, a second camera module that is configured to face in a second camera direction which is substantially opposite to the first camera direction, and a display that is configured to display camera information, first image information from the first camera module; causing display of at least part of the first image information; receiving information indicative of a zoom input being indicative of a user's desire to change a zoom level of the first image information; determining that the zoom input is indicative of zooming beyond a zoom out threshold associated with the first image information, wherein the zoom out threshold is the zoom level beyond which zooming out is precluded, and based on said determination: receiving second image information from the second camera module; and causing display of at least part of the second image information. receiving second image information from the second camera module; and causing display of at least part of the second image information.
A method for video coding comprising: - when a block of an image is partitioned into sub-blocks: - associating a subdivision level counter to a sub-block; - determining a quantization parameter for the sub-block based on the subdivision level counter; and - coding the sub-block based on the determined quantization parameter, wherein the subdivision level counter is representative of a size of the sub-block and is incremented (403, 405, 407) by a value representative of the type of split of the sub-block when a block of an image is partitioned into sub-blocks. - when a block of an image is partitioned into sub-blocks: - associating a subdivision level counter to a sub-block; - determining a quantization parameter for the sub-block based on the subdivision level counter; and - coding the sub-block based on the determined quantization parameter, - associating a subdivision level counter to a sub-block; - determining a quantization parameter for the sub-block based on the subdivision level counter; and - coding the sub-block based on the determined quantization parameter,
An in-wheel motor unit comprising: an in-wheel motor having an axle, a stator fixed to the axle and a motor housing supported by the axle so as to be rotatable; an arm body having a first face to which one end part of the axle is fixed and a second face facing a region opposite to the first face; fasteners in which at least part thereof is exposed in the second face, fixing the arm body and the axle so as to be detachable; an arm cover including a main cover having a cover opening at a position facing the fasteners and a sub-cover attached to the main cover so as to block the cover opening, which is fastened to the arm body so as to cover the second face and to form an arm internal space; a motor cable including a first end connected to the in-wheel motor and a second end positioned in the arm internal space, at least part of which between the first end and the second end passes the inside of the axle; a power cable including a third end positioned in the outside of the arm internal space and a forth end positioned in the inside of the arm internal space; and a terminal board arranged inside the arm internal space, including a first terminal to which the motor cable is connected so as to be detachable at a position facing the cover opening and a second terminal to which the power cable is connected. an in-wheel motor having an axle, a stator fixed to the axle and a motor housing supported by the axle so as to be rotatable; an arm body having a first face to which one end part of the axle is fixed and a second face facing a region opposite to the first face; fasteners in which at least part thereof is exposed in the second face, fixing the arm body and the axle so as to be detachable; an arm cover including a main cover having a cover opening at a position facing the fasteners and a sub-cover attached to the main cover so as to block the cover opening, which is fastened to the arm body so as to cover the second face and to form an arm internal space; a motor cable including a first end connected to the in-wheel motor and a second end positioned in the arm internal space, at least part of which between the first end and the second end passes the inside of the axle; a power cable including a third end positioned in the outside of the arm internal space and a forth end positioned in the inside of the arm internal space; and a terminal board arranged inside the arm internal space, including a first terminal to which the motor cable is connected so as to be detachable at a position facing the cover opening and a second terminal to which the power cable is connected.
A charging method performed by an access device, the method comprising: • receiving a content request, wherein the content request carries a content identifier and an application identifier, the content identifier is used to identify requested content, and the application identifier is used to identify an application and identify that the content request is triggered by using the application (step 102); • returning the content and determining traffic generated by the content (step 104); and • sending, to a charging device, a charging request indicating the traffic and the application (step 106), characterized in that the charging request is a credit control request, CCR, and the application is indicated by a service identifier carried in the credit control request. • receiving a content request, wherein the content request carries a content identifier and an application identifier, the content identifier is used to identify requested content, and the application identifier is used to identify an application and identify that the content request is triggered by using the application (step 102); • returning the content and determining traffic generated by the content (step 104); and • sending, to a charging device, a charging request indicating the traffic and the application (step 106), characterized in that the charging request is a credit control request, CCR, and the application is indicated by a service identifier carried in the credit control request.
Motor vehicle powertrain that has: - a first casing element; - a second casing element adjacent to the first casing element to which it is coupled, - a system for assisting with the assembly of the first casing element on the adjacent second casing element, which is realized by bringing the first casing element axially closer to the second casing element, wherein the system for assisting with the assembly has at least one pre-centring gauge rod that has: - a rear, mounting section that is housed in an axial mounting housing of the first casing element; - and a front, pre-centring section that allows the pre-centring in an axial pre-centring hole of the second casing element, along an axial pre-centring travel, each centring gauge rod has an intermediate section of which the outer diameter the smaller than the outer diameter of the front, pre-centring section and that, at the end of the axial pre-centring travel, extends axially through the axial pre-centring hole, characterized in that the system for assisting with the assembly has at least one centring pin that has: - a fastening section that is fastened in an axial fastening piercing of one of the two casing elements (16, 14); - and a centring section that allows the centring in an axial centring piercing of the other of the two casing elements, along an axial centring travel. - a first casing element; - a second casing element adjacent to the first casing element to which it is coupled, - a system for assisting with the assembly of the first casing element on the adjacent second casing element, which is realized by bringing the first casing element axially closer to the second casing element, - a rear, mounting section that is housed in an axial mounting housing of the first casing element; - and a front, pre-centring section that allows the pre-centring in an axial pre-centring hole of the second casing element, along an axial pre-centring travel, - a fastening section that is fastened in an axial fastening piercing of one of the two casing elements (16, 14); - and a centring section that allows the centring in an axial centring piercing of the other of the two casing elements, along an axial centring travel.
A light emitting apparatus, comprising: a substrate; at least one light source emitting a blue light; a wavelength converter disposed on the substrate to convert a wavelength of light emitted from the at least one light source; a reflector which comprises an opening formed at a point nearest to the wavelength converter to allow the blue light emitted from the at least one light source to progress toward the wavelength converter, the reflector being disposed on the substrate to reflect light from the wavelength converter; and characterised by a refracting member between the reflector and the wavelength converter filling a path through which the light emitted from the at least one light source passes, the refracting member having a first refractive index different from a second refractive index of the wavelength converter, wherein the blue light is mirror-reflected by the wavelength converter due to a difference between the first refractive index and the second refractive index, wherein the reflector further comprises a passing through hole, the passing through hole being formed to allow the blue light to pass through at a point at which the blue light mirror-reflected by the wavelength converter arrives. a substrate; at least one light source emitting a blue light; a wavelength converter disposed on the substrate to convert a wavelength of light emitted from the at least one light source; a reflector which comprises an opening formed at a point nearest to the wavelength converter to allow the blue light emitted from the at least one light source to progress toward the wavelength converter, the reflector being disposed on the substrate to reflect light from the wavelength converter; and characterised by a refracting member between the reflector and the wavelength converter filling a path through which the light emitted from the at least one light source passes, the refracting member having a first refractive index different from a second refractive index of the wavelength converter, wherein the blue light is mirror-reflected by the wavelength converter due to a difference between the first refractive index and the second refractive index, wherein the reflector further comprises a passing through hole, the passing through hole being formed to allow the blue light to pass through at a point at which the blue light mirror-reflected by the wavelength converter arrives.
A wireless power transmission system for transmitting power by a non-contact method over a resonant magnetic field with a resonant frequency f0, the system comprising a power-transmitting resonator and a power-receiving resonator, wherein one of the power-transmitting and power-receiving resonators (105, 107) includes a first inductor of a first size and the other resonator includes a second inductor (Ls) of a second size that is smaller than the first size, wherein size of an inductor means an area of a region enclosed by the wiring of the inductor, and characterized in that at the resonant frequency f0, at least a part of wiring that forms the second inductor (Ls) has a resistance value Rs per unit length that is lower than the resistance value RL per unit length of wiring that forms the first inductor.
Pneumatic vehicle tyre of radial type of construction, having an asymmetrical tread with an outer shoulder, which is assigned to the outside of the vehicle, and an inner shoulder, which is assigned to the inside of the vehicle, and having at least one profile rib (1, 2, 3) which is of encircling form in a circumferential direction and which is delimited on both sides by a circumferential channel and which has a first rib flank, situated relatively close to the inner shoulder, and a second rib flank, situated relatively close to the outer shoulder, wherein each rib flank (6, 7) is connected, via a transition section (8, 9) of rounded cross section, to the channel base of the respective circumferential channel, wherein the first rib flank is, in a radial direction, composed of a first flank section, which adjoins the transition section, and of a second flank section, which runs to the tread surface, wherein the two flank sections (6a, 6b) run substantially rectilinearly in cross section, and wherein the first flank section runs at an angle (β) of 10° to 30° with respect to the radial direction, characterized in that the rib flanks (6, 7) are of different geometrical design in cross section, and in that the second flank section, which runs to the tread surface, runs at an angle (α) of up to 3° with respect to the radial direction.
1. An optical fiber comprising: a core region defined by a region around a central longitudinal axis of the optical fiber; a cladding region surrounding the core region; a first coating layer surrounding the cladding region; a second coating layer surrounding the first coating layer; and a third coating layer surrounding the second coating layer, the first coating layer is made of UV curable acrylates, the first coating layer has a first diameter in a range of 150 μm - 300 μm, the first coating layer has a Young's modulus in a range of 0.3 MPa - 3 MPa, the second coating layer is made of UV curable acrylates, the second coating layer has a second diameter in a range of 300 μm - 400 μm, the second coating layer has a Young's modulus in a range of 0.5 MPa - 1.2 GPa, the third coating layer is made of a polyimide material, the third coating layer has a third diameter in a range of 350 μm - 450 μm, the third coating layer has a Young's modulus of greater than 1.2 GPa and the range of diameter and a type of material used for the first coating layer, the second coating layer and the third coating layer provides strength greater than or equal to 5GPa to the optical fiber. a core region defined by a region around a central longitudinal axis of the optical fiber; a cladding region surrounding the core region; a first coating layer surrounding the cladding region; a second coating layer surrounding the first coating layer; and a third coating layer surrounding the second coating layer, the first coating layer is made of UV curable acrylates, the first coating layer has a first diameter in a range of 150 μm - 300 μm, the first coating layer has a Young's modulus in a range of 0.3 MPa - 3 MPa, the second coating layer is made of UV curable acrylates, the second coating layer has a second diameter in a range of 300 μm - 400 μm, the second coating layer has a Young's modulus in a range of 0.5 MPa - 1.2 GPa, the third coating layer is made of a polyimide material, the third coating layer has a third diameter in a range of 350 μm - 450 μm, the third coating layer has a Young's modulus of greater than 1.2 GPa and the range of diameter and a type of material used for the first coating layer, the second coating layer and the third coating layer provides strength greater than or equal to 5GPa to the optical fiber.