mhurhangee/patent-ind-claim-en huggingface dataset:
A mechanical arm joint, comprising a hollow shaft and a brake assembly, a motor assembly, a harmonic reducer assembly, an output assembly, a housing assembly, and a measurement assembly which are disposed outside the hollow shaft , wherein the measurement assembly includes a torque sensor , and the torque sensor is provided inside the housing assembly and fixed to the housing assembly, wherein the torque sensor is fixed to the harmonic reducer assembly at the same time; and wherein the harmonic reducer assembly comprises a wave generator , a flexible wheel , and a rigid wheel , wherein the flexible wheel is fixed to the torque sensor through a flexible wheel mounting plate , wherein the mechanical arm joint further comprises a friction structure member, characterized in that the friction structure member is provided between the flexible wheel mounting plate and the torque sensor , wherein the flexible wheel and the torque sensor are arranged so that a mating surface of the flexible wheel and a mating surface of the torque sensor are simultaneously pressed against the friction structure member . the measurement assembly includes a torque sensor , and the torque sensor is provided inside the housing assembly and fixed to the housing assembly, wherein the torque sensor is fixed to the harmonic reducer assembly at the same time; and wherein the harmonic reducer assembly comprises a wave generator , a flexible wheel , and a rigid wheel , wherein the flexible wheel is fixed to the torque sensor through a flexible wheel mounting plate , wherein the mechanical arm joint further comprises a friction structure member, characterized in that the friction structure member is provided between the flexible wheel mounting plate and the torque sensor , wherein the flexible wheel and the torque sensor are arranged so that a mating surface of the flexible wheel and a mating surface of the torque sensor are simultaneously pressed against the friction structure member .
Permanent-magnet rotor including: - a sheet stack forming the body of the rotor having an axis (X), and - recesses spaced regularly over the circumference of the rotor and situated in the body of the rotor , at least some of which recesses receive at least one element in the form of a permanent magnet , - at least some of the recesses contain elements including at least a plurality of magnets stacked in an axial direction and forming a column of magnets, characterized in that the rotor furthermore includes holding devices being elastic components in the form of a strip of material and each including a first part positioned axially between an inner end of a recess and a face of the magnets of the column of magnets that faces the side of the axis (X) of the rotor, this first part having a form such that it exerts, through deformation, a radial force on each magnet of the column of magnets from the inside to the outside of the rotor , and a second elastically deformable part for exerting an axial force on the permanent magnets , the second part being positioned radially against a bottom of the recess and an end face of the column of elements inside the recess , this second part having a form such that it exerts, through deformation, an axial force on the permanent magnets . - a sheet stack forming the body of the rotor having an axis (X), and - recesses spaced regularly over the circumference of the rotor and situated in the body of the rotor , at least some of which recesses receive at least one element in the form of a permanent magnet , - at least some of the recesses contain elements including at least a plurality of magnets stacked in an axial direction and forming a column of magnets, characterized in that the rotor furthermore includes holding devices being elastic components in the form of a strip of material and each including a first part positioned axially between an inner end of a recess and a face of the magnets of the column of magnets that faces the side of the axis (X) of the rotor, this first part having a form such that it exerts, through deformation, a radial force on each magnet of the column of magnets from the inside to the outside of the rotor , and a second elastically deformable part for exerting an axial force on the permanent magnets , the second part being positioned radially against a bottom of the recess and an end face of the column of elements inside the recess , this second part having a form such that it exerts, through deformation, an axial force on the permanent magnets .
A wearable gear for holding a physiological sensor for monitoring a subject, the wearable gear comprising: a tensioning element having a maximal length; and a holding unit for holding the physiological sensor; wherein the wearable gear further comprises a tension mechanism for tensioning the tensioning element to a predefined tension when at least partially around a body part of the subject, wherein the tension mechanism comprises a resilient part comprising a resilient material and a non-resilient part comprising a non-resilient material; and wherein the resilient part and the non-resilient part mechanically cooperate with each other to automatically adjust the maximal length such that the predefined tension is obtained regardless of the size of the body part. a tensioning element having a maximal length; and a holding unit for holding the physiological sensor; wherein the wearable gear further comprises a tension mechanism for tensioning the tensioning element to a predefined tension when at least partially around a body part of the subject, wherein the tension mechanism comprises a resilient part comprising a resilient material and a non-resilient part comprising a non-resilient material; and wherein the resilient part and the non-resilient part mechanically cooperate with each other to automatically adjust the maximal length such that the predefined tension is obtained regardless of the size of the body part.
Vehicle sliding door system having a doorway and a door opening, at least one sliding door with a vertical front side edge in the closing direction of the sliding door and a vertical rear side edge in the closing direction of the sliding door and a door drive for moving the sliding door , wherein the door drive has - a cable , which is attached to the sliding door with its first end in the region of the front vertical side edge and with its second end in the region of the rear vertical side edge , characterized in that the door drive has - a coupling element which is firmly connected to the cable and connected to a motor attached to the doorway and arranged laterally next to the doorway , which motor drives the coupling element in such a way that the cable can be moved along its longitudinal extension in both directions of movement and moves the sliding door , wherein the coupling element always entrains the cable during its movement along a longitudinal direction of the cable . - a cable , which is attached to the sliding door with its first end in the region of the front vertical side edge and with its second end in the region of the rear vertical side edge , characterized in that the door drive has - a coupling element which is firmly connected to the cable and connected to a motor attached to the doorway and arranged laterally next to the doorway , which motor drives the coupling element in such a way that the cable can be moved along its longitudinal extension in both directions of movement and moves the sliding door , wherein the coupling element always entrains the cable during its movement along a longitudinal direction of the cable .
A cap for a container comprising: - a retaining ring suitable for being associated with a neck of the container; - a closing element comprising a lateral wall which extends around an axis (Z) and a transversal wall which extends transversally to the axis (Z) for defining a closed end of the closing element ; - a hinge structure which connects the closing element to the retaining ring , so that the closing element is displaceable between an open position and a closed position; wherein the closing element comprises a projection which projects from an outer surface of the lateral wall transversally to said axis (Z), the projection extending around said axis (Z) by an angle of at least 180°, wherein the projection projects from the lateral wall by a radial dimension (D), the radial dimension (D) being variable around the axis (Z), characterized in that the radial dimension (D) gradually increases from the hinge structure to a region diametrically opposite the hinge structure . - a retaining ring suitable for being associated with a neck of the container; - a closing element comprising a lateral wall which extends around an axis (Z) and a transversal wall which extends transversally to the axis (Z) for defining a closed end of the closing element ; - a hinge structure which connects the closing element to the retaining ring , so that the closing element is displaceable between an open position and a closed position;
A tip part for an insertable vision device, such as an endoscope, said tip part comprising a housing accommodating an electronic vision receptor , at least one light guide of a transparent material, the at least one light guide configured to provide total internal reflection and having a predetermined length between a light reception end and a light emission end adapted to emit light, wherein the housing comprises a first housing part , made of a first transparent material, and a second housing part , made of a second material; the first and second housing parts being moulded integrally; and wherein the at least one light guide is provided in one piece with said first housing part from said first transparent material so as to form an integral part of the housing, wherein the predetermined length comprises an expanding sector, characterized in that the cross-sectional area of the light guide is monotonously increasing in the longitudinal direction from the light reception end towards the light emission end. a housing accommodating an electronic vision receptor , at least one light guide of a transparent material, the at least one light guide configured to provide total internal reflection and having a predetermined length between a light reception end and a light emission end adapted to emit light, wherein the housing comprises a first housing part , made of a first transparent material, and a second housing part , made of a second material; the first and second housing parts being moulded integrally; and wherein the at least one light guide is provided in one piece with said first housing part from said first transparent material so as to form an integral part of the housing, wherein the predetermined length comprises an expanding sector, characterized in that the cross-sectional area of the light guide is monotonously increasing in the longitudinal direction from the light reception end towards the light emission end.
A circulating fluidized bed boiler comprising - a cyclone , - a fluidized bed superheater placed after the cyclone , and - a superheater piping of the fluidized bed superheater , the superheater piping comprising a steam pipe , to which can be directed steam (S) to be superheated, wherein the superheater piping comprises straight parts and curved parts, characterized in that - the superheater piping comprises a protective shell , which surrounds the steam pipe , and in that - the straight parts of the superheating piping are inside a fluidized bed, in which case they are in a space (G) exposed to bed material and - the curved parts of the superheating piping are arranged in a space separated from the fluidized bed material. - a cyclone , - a fluidized bed superheater placed after the cyclone , and - a superheater piping of the fluidized bed superheater , the superheater piping comprising a steam pipe , to which can be directed steam (S) to be superheated, wherein the superheater piping comprises straight parts and curved parts, characterized in that - the superheater piping comprises a protective shell , which surrounds the steam pipe , and in that - the straight parts of the superheating piping are inside a fluidized bed, in which case they are in a space (G) exposed to bed material and - the curved parts of the superheating piping are arranged in a space separated from the fluidized bed material.
A CD19 binding antibody or D19 binding antigen binding fragment thereof comprising: a VH region comprising the amino acid sequence of SEQ ID NO: 11, and a VL region comprising the amino acid sequence of SEQ ID NO: 13; or a VH region comprising the amino acid sequence of SEQ ID NO: 11, and a VL region comprising the amino acid sequence of SEQ ID NO: 14; or a VH region comprising the amino acid sequence of SEQ ID NO: 11, and a VL region comprising the amino acid sequence of SEQ ID NO: 16; or a VH region comprising the amino acid sequence of SEQ ID NO: 12, and a VL region comprising the amino acid sequence of SEQ ID NO: 15; or a VH region comprising the amino acid sequence of SEQ ID NO: 12, and a VL region comprising the amino acid sequence of SEQ ID NO: 17. a VH region comprising the amino acid sequence of SEQ ID NO: 11, and a VL region comprising the amino acid sequence of SEQ ID NO: 13; or a VH region comprising the amino acid sequence of SEQ ID NO: 11, and a VL region comprising the amino acid sequence of SEQ ID NO: 14; or a VH region comprising the amino acid sequence of SEQ ID NO: 11, and a VL region comprising the amino acid sequence of SEQ ID NO: 16; or a VH region comprising the amino acid sequence of SEQ ID NO: 12, and a VL region comprising the amino acid sequence of SEQ ID NO: 15; or a VH region comprising the amino acid sequence of SEQ ID NO: 12, and a VL region comprising the amino acid sequence of SEQ ID NO: 17.
A method for monitoring a lithographic process, comprising: obtaining height variation data relating to a substrate supported by a substrate support; fitting a regression through the height variation data, said regression approximating the shape of the substrate; determining residual data representing the difference between the height variation data and the regression; and monitoring variation of said residual data over time. obtaining height variation data relating to a substrate supported by a substrate support; fitting a regression through the height variation data, said regression approximating the shape of the substrate; determining residual data representing the difference between the height variation data and the regression; and monitoring variation of said residual data over time.
A motorcycle, comprising • a display unit for representing information on the driving state and on operating parameters of the motorcycle , • an operating unit , which may generate control commands for controlling the display unit , • a multifunctional device , preferably designed as a smartphone, comprising a screen , characterized in that the multifunctional device can be releasably attached in a holder and wherein an application can be installed on the multifunctional device , using which further applications installed on the multifunctional device can be opened, wherein the selection of further applications , which can be opened by the application, can be represented on the screen in the form of pictograms, and wherein the motorcycle further comprises a control unit, using which control commands for controlling the application and the further applications , which can be opened by the application, can be transmitted to the multifunctional device , wherein the control commands for controlling the application and the further applications , which can be opened by the application, can be generated by the operating unit , wherein a switching device for switching between control of the display unit and control of the multifunctional device is provided. • a display unit for representing information on the driving state and on operating parameters of the motorcycle , • an operating unit , which may generate control commands for controlling the display unit , • a multifunctional device , preferably designed as a smartphone, comprising a screen ,
Fan guard having several cage bars and at least one fastening strut with at least one first leg extending in a longitudinal direction and reaching across the cage bars of the fan guard , wherein the at least one first leg has a round cross sectional shape, and wherein the at least one first leg comprises a free lengthwise end , characterized in that in the region of the free lengthwise end of the at least one first leg a cubeshaped or cuboidal fastening element is secured laterally to the at least one first leg by integral bonding in a transverse direction running perpendicular to the longitudinal direction, wherein the fastening element is larger in the vertical direction running perpendicular to the longitudinal and transverse direction than the at least first leg and the fastening element sticks out in the vertical direction beyond the at least first leg .
A method comprising: receiving, at a user equipment while being served by a first system and during protocol data unit session establishment or modification procedure, a message including a default quality of service rule, the default quality of service rule including an access point name aggregate maximum bit rate value; characterized in that when there is an inter-system change from the first system to a second system, setting, at the user equipment, the access point name aggregate maximum bit rate value of a session management context for the second system to the received access point name aggregate maximum bit rate value received while being served by the first system. receiving, at a user equipment while being served by a first system and during protocol data unit session establishment or modification procedure, a message including a default quality of service rule, the default quality of service rule including an access point name aggregate maximum bit rate value; characterized in that when there is an inter-system change from the first system to a second system, setting, at the user equipment, the access point name aggregate maximum bit rate value of a session management context for the second system to the received access point name aggregate maximum bit rate value received while being served by the first system.
A compound of formula A in which R 1 represents phenyl which is optionally substituted with 1 to 3 substituents selected from the group consisting of fluoro, chloro, methyl, ethyl, cyclopropyl, F 2 HC-, FH 2 C-, F 3 C-. R 1 represents phenyl which is optionally substituted with 1 to 3 substituents selected from the group consisting of fluoro, chloro, methyl, ethyl, cyclopropyl, F 2 HC-, FH 2 C-, F 3 C-.
An electric device system comprising a plurality of electric device units that are electrically connected to each other by assembling the plurality of electric device units in line along a first direction, wherein the plurality of electric device units comprises a first unit (2B1) and a second unit (2B2) that are adjacent to each other in an assembly state, each of the first unit (2B1) and the second unit (2B2) comprises an insulating casing as an outer shell, a first connecting terminal is provided at a predetermined position in a first outer surface that is a casing surface of the first unit (2B1), the casing surface of the first unit (2B1) facing the second unit (2B2) in the assembly state, at least a part of the first connecting terminal projecting from the first outer surface in a non-assembly state, the first connecting terminal being elastically deformable in the first direction, a second connecting terminal is provided at a position in a second outer surface that is a casing surface of the second unit (2B2), the casing surface of the second unit (2B2) facing the first unit (2B1) in the assembly state, the position in the second outer surface facing the first connecting terminal in the assembly state, a guiding mechanism is provided in the first unit (2B1) and the second unit (2B2), the guiding mechanism slidably guiding the first unit (2B1) into the second unit (2B2) along a second direction orthogonal to the first direction to enable the first unit (2B1) to be assembled in and removed from the second unit (2B2), the guiding mechanism guides the first unit (2B1) into the second unit (2B2) in assembling the first unit (2B1) in the second unit (2B2) such that the first connecting terminal comes into contact with the second connecting terminal after sliding on the second outer surface, a bulging surface bulging out toward the second unit (2B2) is provided in an exposed surface of the first connecting terminal located on the second unit (2B2) side in the assembly state, characterized in that a recess is provided in an exposed surface of the second connecting terminal located on the first unit (2B1) side in the assembly state, a part of the bulging surface is fitted in the recess in the assembly state, and therefore at least the part of the bulging surface comes into press-contact with at least a part of an opening edge of the recess to establish electric conduction between the first connecting terminal and the second connecting terminal the bulging surface bulges out such that a bulging amount toward the second unit (2B2) varies in a third direction orthogonal to the first direction and the second direction, the recess comprises a pair of opening edges facing each other in the third direction, and the first connecting terminal and the second connecting terminal come into press-contact with each other at two points corresponding to the pair of opening edges of the recess in the assembly state.
Method for controlling the synchronization of a rotating pinion on a primary shaft driven by a traction machine of the vehicle and rotationally connected to a secondary shaft of a gearbox with parallel shafts and without a synchronization mechanism, by sending to the traction machine, before the coupling of the pinion to the primary shaft, a torque command ( T 1 ref ) which depends on a torque signal ( T 1 calc ) calculated to minimize the difference (σ) between the primary speed (ω 1 ) and the secondary speed (ω 2 ), multiplied by the reduction ratio ( K ) between these two shafts, characterized in that the calculated torque ( T 1 calc ) is corrected by the acceleration of the secondary shaft (θ), to construct an intermediate signal ( T * 1 ), allowing for the energy supplied to the system in order to minimize the speed difference (σ).