mhurhangee/patent-ind-claim-en huggingface dataset:
Pump unit for pressurising a hydraulic actuating system , in particular for pressurising an automotive actuating system, like a convertible roof system , boot lid, hood cover system or wheel suspension of a vehicle , wherein the pump unit comprises a pump housing including a pump chamber for housing a piston pump and wherein the pump unit further comprises an electric motor for driving the piston pump wherein the electric motor comprises: - a motor rotor , wherein the motor rotor comprises a longitudinal motor rotor body including several magnets at an outer surface, wherein the motor rotor body defines an axial axis; - a field coil which is positioned opposite the magnets of the motor rotor body for rotationally driving the motor rotor body ; wherein the piston pump comprises: - a pump stator which is stationary positioned inside the pump chamber , which pump stator has a longitudinal stator body , in which the pump stator body includes at least two channels serving respectively as an inlet or outlet channel ; - a pump rotor positioned around the pump stator body , which pump rotor has a pump rotor body which is driveable in a rotational direction about the axial axis, wherein the pump rotor body includes several cylinder holes for each receiving a piston which is slidable with respect to the pump rotor body in a radial direction; - an eccentric ring positioned around the pump rotor body , in which the eccentric ring is eccentrically positioned at an eccentricity E with respect to the pump rotor body to provide a pump capacity; characterised in that the motor rotor and the pump rotor are incorporated into a common rotor which is a one piece item including a motor and a pump rotor portion and wherein the common rotor is fully supported by the pump stator . - a motor rotor , wherein the motor rotor comprises a longitudinal motor rotor body including several magnets at an outer surface, wherein the motor rotor body defines an axial axis; - a field coil which is positioned opposite the magnets of the motor rotor body for rotationally driving the motor rotor body ; - a pump stator which is stationary positioned inside the pump chamber , which pump stator has a longitudinal stator body , in which the pump stator body includes at least two channels serving respectively as an inlet or outlet channel ; - a pump rotor positioned around the pump stator body , which pump rotor has a pump rotor body which is driveable in a rotational direction about the axial axis, wherein the pump rotor body includes several cylinder holes for each receiving a piston which is slidable with respect to the pump rotor body in a radial direction; - an eccentric ring positioned around the pump rotor body , in which the eccentric ring is eccentrically positioned at an eccentricity E with respect to the pump rotor body to provide a pump capacity;
A method of reducing loads acting on a wind turbine yaw system, the wind turbine comprising a nacelle , a rotor which comprises at least one rotor blade with a pitch control system and further comprising a yaw system, characterized in that it comprises the steps of: - detecting a yaw misalignment (α); - enabling a yaw maneuver; the yaw maneuver comprising starting drive units of the yaw system of the wind turbine; - performing a pitch control in a pitch control system of at least one blade of a rotor acting on the wind turbine once the yaw misalignment (α) is detected, wherein the pitch control is performed prior to enabling the yaw maneuver; and, wherein the pitch control comprises: - establishing a pitch set point for reducing a yaw moment (M z ) to a point that can be handled by the drive units of the yaw system, and - setting a pitch angle of the at least one blade to the established set point and thereby reducing the yaw moment acting on the wind turbine and induced by aerodynamic forces acting on the at least one blade of the wind turbine. - detecting a yaw misalignment (α); - enabling a yaw maneuver; the yaw maneuver comprising starting drive units of the yaw system of the wind turbine; - performing a pitch control in a pitch control system of at least one blade of a rotor acting on the - establishing a pitch set point for reducing a yaw moment (M z ) to a point that can be handled by the drive units of the yaw system, and - setting a pitch angle of the at least one blade to the established set point and thereby reducing the yaw moment acting on the wind turbine and induced by aerodynamic forces acting on the at least one blade of the wind turbine.
Drive device for an electrified vehicle axle of a two-track vehicle, having a drive assembly in which an electric machine (EM) outputs drive to vehicle wheels via a transmission, wherein the electric machine (EM) is arranged in a transversely installed manner in the vehicle axle, wherein a stator housing of the electric machine (EM) is extended axially in the vehicle transverse direction (y) by a transmission housing , and wherein the drive assembly is supported with three-point mounting in the vehicle body via three assembly bearings , wherein, for support of torque with regard to reaction forces (F R ), the three-point mounting has two transmission-side assembly bearings via which the transmission housing is supported in the vehicle body, wherein the transmission housing is constructed from two housing parts, which are arranged axially one behind the other in the vehicle transverse direction (y), specifically from an intermediate housing , which is flange-mounted on the stator housing , and a housing cover , which closes the transmission-housing interior space , wherein the housing cover and the intermediate housing have respective bearing walls , which are situated axially opposite one another, wherein transmission shafts and flange shafts are mounted rotatably in the bearing walls of the housing cover and the intermediate housing , wherein the first transmission-side assembly bearing is formed on the housing cover , and wherein the second transmission-side assembly bearing is formed on the intermediate housing , characterized in that each of the assembly bearings is in the form of a rubber/metal sleeve bearing which is pressed in a fastening eyelet of the transmission housing , in that the first transmission-side assembly bearing is in a bearing-wall plane of the housing cover , and/or in that the second transmission-side assembly bearing is in a bearing-wall plane of the intermediate housing .
Cycle hub assembly comprising: - a wheel hub ; and - a plurality of spoke mounting elements ; wherein the spoke mounting elements are present in two axially spaced rows positioned around the circumference of the wheel hub , wherein each spoke mounting element comprises at least one spoke mounting hole for receiving at least part of at least one spoke, and characterised in that at least two adjacent spoke mounting elements are interconnected via at least one bridge piece , wherein at least part of said bridge piece has a width which is smaller than a width of at least one spoke mounting element connected with said bridge piece . - a wheel hub ; and - a plurality of spoke mounting elements ;
A server for generating and sharing virtual reality, VR, boundary maps, comprising: a communication interface to establish a communication session with a virtual reality, VR, system to receive room identification information; a memory to store a plurality of VR boundary maps for a plurality of different rooms; a processor communicatively coupled to the communication interface and the memory , the processor to compare the room identification information to the plurality of different rooms stored in the memory to identify a room of the plurality of different rooms, identify a VR boundary map from the plurality of VR boundary maps associated with the room, and transmit the VR boundary map to the VR system via the communication session, further comprising an occupancy tracking component to track a number of active VR systems in the room, wherein the room is associated with different VR boundary maps associated with different numbers of VR systems. a communication interface to establish a communication session with a virtual reality, VR, system to receive room identification information; a memory to store a plurality of VR boundary maps for a plurality of different rooms; a processor communicatively coupled to the communication interface and the memory , the processor to compare the room identification information to the plurality of different rooms stored in the memory to identify a room of the plurality of different rooms, identify a VR boundary map from the plurality of VR boundary maps associated with the room, and transmit the VR boundary map to the VR system via the communication session, further comprising an occupancy tracking component to track a number of active VR systems in the room, wherein the room is associated with different VR boundary maps associated with different numbers of VR systems.
A method for cutting flattened food dough into a long and continuous shape, comprising: (a) a process for cutting the flattened food dough by moving a cutter relative to the food dough from one lateral end to the other lateral end of the food dough , and a process for discontinuing the cutting process by lifting up the cutter from the food dough so that an uncut part is left near the other lateral end; (b) a process for cutting the flattened food dough from the other lateral end to the one lateral end of the food dough after moving the cutter relative to the food dough along the direction perpendicular to the direction to cut the food dough , and a process for discontinuing the cutting process by lifting up the cutter from the food dough so that an uncut part is left near the one lateral end; (c) a process for moving the cutter relative to the food dough along the direction perpendicular to the direction to cut the food dough ; and (d) processes for repeating the processes (a) to (c). (a) a process for cutting the flattened food dough by moving a cutter relative to the food dough from one lateral end to the other lateral end of the food dough , and a process for discontinuing the cutting process by lifting up the cutter from the food dough so that an uncut part is left near the other lateral end; (b) a process for cutting the flattened food dough from the other lateral end to the one lateral end of the food dough after moving the cutter relative to the food dough along the direction perpendicular to the direction to cut the food dough , and a process for discontinuing the cutting process by lifting up the cutter from the food dough so that an uncut part is left near the one lateral end; (c) a process for moving the cutter relative to the food dough along the direction perpendicular to the direction to cut the food dough ; and (d) processes for repeating the processes (a) to (c).
A method for charging pallet cars of a traveling grate for the thermal treatment of bulk material, in a first step comprising an application of a first layer as hearth layer on a grate surface of the pallet car and in at least one second step comprising the simultaneous or successive charging with a second layer as side layer on two opposed side walls of the pallet car and with a third layer as green pellet layer between the side layers and on the hearth layer, characterized in that the hearth layer includes fired pellets with a mean diameter between 10 and 20 mm, wherein the diameter of at least 85 wt-% of the pellets lies in the range between 10 and 20 mm, that the side layer contains pellet breakage and/or fired pellets of a mixture of two fractions A and B, wherein the material of fraction A has a mean diameter between 5 and 13 mm and the diameter of at least 85 wt-% of the material of fraction A lies in the range between 5 and 13 mm, wherein the material of fraction B has a mean diameter greater than 14 mm and the diameter of at least 85 wt-% of the pellets of fraction B is greater than 14 mm, and wherein the side layer consists of fraction A for between 0 and 100 wt-% and of fraction B for between 0 and 100 wt-%, and that the green pellet layer includes thermally untreated pellets with a mean diameter at least 2 mm greater than the mean diameter of fraction A.
A method for making containers from blanks, in particular containers for containing loose articles such as capsules or the like, comprising the following steps: - preparing a succession of blanks, which are preferably flat; - folding the blanks about preferably pre-made fold lines on each blank so as to obtain a succession of three-dimensional containers; wherein the step of preparing the succession of blanks is accomplished by a step of withdrawing a pack of blanks (M) from a magazine provided with a vertical channel and configured to support a plurality of packs (M), wherein the packs of blanks (M) can be accommodated in the magazine , above one another and spaced apart by means of a succession of groups of supporting parts distributed, along a height (H) of an inside wall of the channel , at predetermined distances (H1) from each other, in such a way that each group of supporting parts is located at a respective level of the channel to support the bottom of a respective pack of blanks (M), each supporting part being movable between a retracted position, in which the supporting part is aligned or recessed with respect to the inside wall of the channel to allow the packs of blanks (M) to move along the channel towards a portion under the supporting part , and an at least partly extracted position, in which the supporting part projects from the inside wall towards the inside of the channel in such a way as to intercept a pack of blanks (M) moving down the channel and to provide a steady support for the pack of blanks (M), and wherein the step of withdrawing the pack of blanks (M) from the magazine is accomplished by a step of vertically extracting the pack of blanks (M) from the channel , specifically through an upper opening at the top of the channel . - preparing a succession of blanks, which are preferably flat; - folding the blanks about preferably pre-made fold lines on each blank so as to obtain a succession of three-dimensional containers;
A method for adapting intra-prediction smoothing processing for decoding of video or image data, wherein the method comprises: obtaining (S100) a first control parameter in a Sequence parameter set, SPS, level wherein a first value of the first control parameter in the SPS level indicates that smoothing is not applied for any block of a sequence, a second value of the first control parameter in the SPS level indicates that smoothing is applied for each block of the sequence, and characterized in that the method further comprises: when the value of the first control parameter in the SPS level is equal to a predefined value (S120) different from the first value of the first control parameter and the second value of the first control parameter, obtaining (S130) a second control parameter in a slice header, wherein a first value of the second control parameter in the slice header indicates that smoothing is applied for each block of the slice. obtaining (S100) a first control parameter in a Sequence parameter set, SPS, level wherein a first value of the first control parameter in the SPS level indicates that smoothing is not applied for any block of a sequence, a second value of the first control parameter in the SPS level indicates that smoothing is applied for each block of the sequence, and characterized in that the method further comprises: when the value of the first control parameter in the SPS level is equal to a predefined value (S120) different from the first value of the first control parameter and the second value of the first control parameter, obtaining (S130) a second control parameter in a slice header, wherein a first value of the second control parameter in the slice header indicates that smoothing is applied for each block of the slice.
A microneedle array imaging method comprising: obtaining an inclination angle θ of a side surface with respect to a bottom surface of a plurality of microneedles arranged on a sheet to form a microneedle array ; obtaining a critical angle (γ) which is the smallest angle at which total reflection occurs on the side surface of the microneedle ; irradiating a surface on a side opposite to a surface on which the plurality of microneedles are arranged on the sheet with parallel light as illumination light; defining a first incident angle (α) as an angle between the direction of light incident on the bottom surface and a normal plane (PL2a) drawn on said bottom surface , wherein the surface is irradiated with the illumination light under conditions in which said first incident angle (α) is 90 - θ° or greater and a second incident angle (β) of light onto the side surface of the microneedle is less than a critical angle (γ), said second incident angle (β) being an angle between the direction of light incident on said side surface and a normal plane (PL2b) drawn on the side surface , and . imaging the microneedle array from a side of the surface on which the microneedles are arranged. obtaining an inclination angle θ of a side surface with respect to a bottom surface of a plurality of microneedles arranged on a sheet to form a microneedle array ; obtaining a critical angle (γ) which is the smallest angle at which total reflection occurs on the side surface of the microneedle ; irradiating a surface on a side opposite to a surface on which the plurality of microneedles are arranged on the sheet with parallel light as illumination light; defining a first incident angle (α) as an angle between the direction of light incident on the bottom surface and a normal plane (PL2a) drawn on said bottom surface , wherein the surface is irradiated with the illumination light under conditions in which said first incident angle (α) is 90 - θ° or greater and a second incident angle (β) of light onto the side surface of the microneedle is less than a critical angle (γ), said second incident angle (β) being an angle between the direction of light incident on said side surface and a normal plane (PL2b) drawn on the side surface , and .
A shape measurement apparatus comprising: a light source configured to irradiate a surface of a moving strip-shaped body (S) with linear light at a prescribed angle of incidence; a screen configured such that reflected light of the linear light on the surface of the strip-shaped body is projected on the screen; an imaging unit configured to image the reflected light of the linear light projected on the screen; characterized in that it comprises an arithmetic processing unit configured to acquire the amount of warpage in a width direction of the strip-shaped body (S) on the basis of the line length of the reflected light of the linear light imaged by the imaging unit. a light source configured to irradiate a surface of a moving strip-shaped body (S) with linear light at a prescribed angle of incidence; a screen configured such that reflected light of the linear light on the surface of the strip-shaped body is projected on the screen; an imaging unit configured to image the reflected light of the linear light projected on the screen; characterized in that it comprises an arithmetic processing unit configured to acquire the amount of warpage in a width direction of the strip-shaped body (S) on the basis of the line length of the reflected light of the linear light imaged by the imaging unit.
A vehicle comprising a plurality of walls defining a volume adapted to house passengers and/or merchandise and at least one electric battery pack to supply energy for the operation of said vehicle , said at least one electric battery pack being housed in a respective seat made in at least one of said walls , said seat defining with the latter a volume , for housing said at least one electric battery pack and comprising at least one cover configured to assume a first operating position in which the volume is isolated from the outside environment and a second operating position in which the volume communicates with the outside environment, said vehicle being characterized by comprising security means configured to enable said cover to move from the first operating position to the second operating position when a temperature of said at least one electric battery pack and/or a temperature inside said volume exceed/s a pre-set threshold temperature value.
A method comprising: dispensing a first layer of a first material to form a first layer of a wall of a vat to three-dimensionally print an object; extruding one or more photo-curable second materials from a nozzle to form a first layer of one or more extruded photo-curable materials within the vat directing a light beam onto a first portion of the first layer of one or more extruded photo-curable materials, the first portion having a first spatial arrangement specified in one or more digital files, the first spatial arrangement corresponding to a first layer of the object, thereby selectively curing the first portion of the first layer of one or more extruded photo-curable materials but not a second portion of the first layer of the one or more extruded photo-curable materials; and removing the second portion of the first layer of one or more extruded photo-curable materials to form the first layer of the object. dispensing a first layer of a first material to form a first layer of a wall of a vat to three-dimensionally print an object; extruding one or more photo-curable second materials from a nozzle to form a first layer of one or more extruded photo-curable materials within the vat directing a light beam onto a first portion of the first layer of one or more extruded photo-curable materials, the first portion having a first spatial arrangement specified in one or more digital files, the first spatial arrangement corresponding to a first layer of the object, thereby selectively curing the first portion of the first layer of one or more extruded photo-curable materials but not a second portion of the first layer of the one or more extruded photo-curable materials; and removing the second portion of the first layer of one or more extruded photo-curable materials to form the first layer of the object.
An aircraft wheel rim (1; 101; 201) made out of two portions of aluminum alloy, comprising a main portion and a removable portion, the main portion comprising a hub , a disk extending between the hub and an annular outer portion for receiving a tire and shaped to present a flange at one of its sides, its other side being shaped to receive the removable portion forming a removable flange that is fitted onto the annular outer portion after a tire has been put into place, the rim including blocking means (10; 110; 210) for blocking movement in rotation of the removable flange relative to the rim, the rim being characterized in that the blocking means comprise at least one key (10; 110; 210) having a head (11; 111; 211) engaged in a matching receptacle in the removable flange and a root (12; 112; 212) fastened by means of at least one steel peg (14; 114; 214) that is shrink fitted in the rim that extends parallel to an axis of rotation of the wheel in order to project from the rim and receive the root of the key.