mhurhangee/ep-ind-claims huggingface dataset:
Generator, in particular for a wind turbine, comprising: - a stator comprising coil windings; - a rotor which is rotatably arranged around the stator and comprises at least one permanent magnet, wherein the coil windings of the stator generate an AC power when the rotor is rotated; - an air gap between the stator and the rotor, through which an air flow is allowed to flow, the air gap having an entrance side where air enters the air gap and an outlet side where the air leaves the air gap; and - a plurality of air flow adaptors provided on the rotor at the entrance side of the air gap, wherein each air flow adaptor is configured to alter the air flow in the air gap, wherein the air flow adaptors are juxtaposed in a circumferential direction of the rotor and the air flow adaptors are attached to the rotor, characterized in that an arrangement gap is provided between adjacent air flow adaptors, and wherein each air flow adaptor has a radius or a convex shape at its upstream end in the air flow direction when viewed in the radial direction; and the air flow adaptors comprise at least one of the following, to accommodate the at least one permanent magnet: a shell, a frame, a container or a scoop. - a stator comprising coil windings; - a rotor which is rotatably arranged around the stator and comprises at least one permanent magnet, wherein the coil windings of the stator generate an AC power when the rotor is rotated; - an air gap between the stator and the rotor, through which an air flow is allowed to flow, the air gap having an entrance side where air enters the air gap and an outlet side where the air leaves the air gap; and - a plurality of air flow adaptors provided on the rotor at the entrance side of the air gap, wherein each air flow adaptor is configured to alter the air flow in the air gap, wherein the air flow adaptors are juxtaposed in a circumferential direction of the rotor and the air flow adaptors are attached to the rotor, an arrangement gap is provided between adjacent air flow adaptors, and wherein each air flow adaptor has a radius or a convex shape at its upstream end in the air flow direction when viewed in the radial direction; and the air flow adaptors comprise at least one of the following, to accommodate the at least one permanent magnet: a shell, a frame, a container or a scoop.
Implant device, comprising: - a rigid element being designed to be fastened to a femur implant in a fastened state of said rigid element, wherein particularly said femur implant is an intramedullary nail or a femoral stem, wherein - said rigid element is designed as a hook-shaped plate for encompassing the greater trochanter of the femur at least in sections when being arranged in said fastened state and when said femur implant is arranged in or on the femur as intended, characterized in that the hook-shaped plate comprises a fastening region, wherein the hook-shaped plate is designed to be fastened via said fastening region to said femur implant, as well as a first arm integrally formed with the fastening region, and a second arm integrally formed with the first arm, wherein said second arm is merely connected to the fastening region via the first arm, and wherein in said fastened state and when the femur implant is arranged in or on the femur as intended, the first arm extends along the neck of the femur between the greater trochanter and the head of the femur and the second arm extends along a side of the greater trochanter facing away from the head of the femur. - a rigid element being designed to be fastened to a femur implant in a fastened state of said rigid element, wherein particularly said femur implant is an intramedullary nail or a femoral stem, wherein - said rigid element is designed as a hook-shaped plate for encompassing the greater trochanter of the femur at least in sections when being arranged in said fastened state and when said femur implant is arranged in or on the femur as intended,
Internal combustion engine, in particular petrol engine, in particular of a motor vehicle, having a crankshaft, at least one working cylinder which, together with a piston and a cylinder head, forms a combustion chamber, and a cylinder head which, with a side which faces the combustion chamber, defines a combustion chamber plane which is arranged perpendicularly with respect to a centre longitudinal axis of the working cylinder, each working cylinder, in each case being assigned an inlet duct with an inlet valve which selectively connects the inlet duct to the combustion chamber, an outlet duct with an outlet valve which selectively connects the outlet duct to the combustion chamber, an ignition device which protrudes into the combustion chamber, and a fuel injector which protrudes into the combustion chamber, a y-direction being oriented parallel to a longitudinal axis of the crankshaft, that is to say in the longitudinal direction of the internal combustion engine, an x-direction being oriented perpendicularly with respect to the y-direction and parallel to the combustion chamber plane, that is to say in the transverse direction of the internal combustion engine, and a z-direction being oriented perpendicularly with respect to the x-direction and with respect to the y-direction, intersection points of respective centre axes of the inlet valve and the outlet valve being arranged on a first combustion chamber diagonal which lies in the combustion chamber plane such that they lie diagonally opposite one another with an x-y plane which is defined by the x-direction and the y-direction and lies in the combustion chamber plane, and intersection points of respective centre axes of the ignition device and the fuel injector being arranged on a second combustion chamber diagonal which lies in the combustion chamber plane such that they lie diagonally opposite one another with the x-y plane, characterized in that the fuel injector is arranged in such a way that a longitudinal axis of the fuel injector encloses an angle β of greater than 60° with the x-y plane and an angle α of less than 30° with an x-z plane which is defined by the x-direction and the z-direction.
A wireless transmit/receive unit, WTRU, comprising: means for receiving radio resource assignment information over a physical downlink control channel; means for determining whether the radio resource assignment information is intended for the WTRU based on WTRU identity-masked, ID-masked, cyclic redundancy check, CRC, bits; means for determining whether the radio resource assignment information is for an uplink shared channel or a downlink shared channel; means for utilizing the radio resource assignment information to transmit data over the uplink shared channel on a condition that the radio resource assignment information is determined to be for the uplink shared channel; and wherein the data is transmitted over the uplink shared channel a predetermined number of time slots after reception of the radio resource assignment information. means for receiving radio resource assignment information over a physical downlink control channel; means for determining whether the radio resource assignment information is intended for the WTRU based on WTRU identity-masked, ID-masked, cyclic redundancy check, CRC, bits; means for determining whether the radio resource assignment information is for an uplink shared channel or a downlink shared channel; means for utilizing the radio resource assignment information to transmit data over the uplink shared channel on a condition that the radio resource assignment information is determined to be for the uplink shared channel; and
An assembly comprising: an introducer; and a mesh strip (12; 50) for lifting or restraining a body part, the mesh strip comprising a plurality of fibers (22; 24) knitted or woven together into a mesh; and for each fiber (22; 24) of the plurality, a plurality of anchors extending from the fiber along the length of the fiber, wherein the plurality of anchors is configured to anchor onto tissue of the body part; characterised in that: the mesh strip (12; 50) is held within the introducer, wherein the introducer is configured to introduce the mesh strip (12; 50) into tissue near the body part; the assembly further comprises a cannulated secondary introducer slideably disposed within a center bore of the introducer, wherein the mesh strip (12; 50) is disposed within a center bore of the secondary introducer: and the mesh strip is configured to self-expand within a body in order to lift or restrain the body part. an introducer; and a mesh strip (12; 50) for lifting or restraining a body part, the mesh strip comprising a plurality of fibers (22; 24) knitted or woven together into a mesh; and for each fiber (22; 24) of the plurality, a plurality of anchors extending from the fiber along the length of the fiber, wherein the plurality of anchors is configured to anchor onto tissue of the body part; characterised in that: the mesh strip (12; 50) is held within the introducer, wherein the introducer is configured to introduce the mesh strip (12; 50) into tissue near the body part; the assembly further comprises a cannulated secondary introducer slideably disposed within a center bore of the introducer, wherein the mesh strip (12; 50) is disposed within a center bore of the secondary introducer: and the mesh strip is configured to self-expand within a body in order to lift or restrain the body part. the mesh strip (12; 50) is held within the introducer, wherein the introducer is configured to introduce the mesh strip (12; 50) into tissue near the body part; the assembly further comprises a cannulated secondary introducer slideably disposed within a center bore of the introducer, wherein the mesh strip (12; 50) is disposed within a center bore of the secondary introducer: and the mesh strip is configured to self-expand within a body in order to lift or restrain the body part.
A device (2,3,4,5,6,7,8) for frothing a liquid, comprising: - a steam generator for generating a stream of steam, - a steam splitter for splitting the stream of steam into a first sub-stream of steam and a second sub-stream of steam, wherein the first sub-stream of steam is provided at a first steam outlet and the second sub-stream of steam is provided at a second steam outlet, - a first frothing unit having (i) a first mixing unit, which is connected to a first liquid inlet and a first steam inlet for providing a combination of liquid and steam, and (ii) a first frothing chamber for receiving and frothing the combination of liquid and steam, - a second frothing unit having (i) a second mixing unit, which is connected to a second liquid inlet and a second steam inlet for providing a combination of liquid and steam, and (ii) a second frothing chamber for receiving and frothing the combination of liquid and steam, wherein the first steam outlet of the steam splitter is connected to the first steam inlet of the first frothing unit and the second steam outlet of the steam splitter is connected to the second steam inlet of the second frothing unit, characterized in that the first frothing unit and the second frothing unit comprise a common first body (80, 93) and/or a common second body (81, 94), wherein the common first body (80, 93) comprises a first part of the first mixing unit, a first part of the second mixing unit, a first part of the first frothing chamber and a first part of the second frothing chamber, and wherein the common second body (81, 94) comprises: (i) a second part of the first mixing unit and/or a second part of the first frothing chamber, and (ii) a second part of the second mixing unit and/or a second part of the second frothing chamber. - a steam generator for generating a stream of steam, - a steam splitter for splitting the stream of steam into a first sub-stream of steam and a second sub-stream of steam, wherein the first sub-stream of steam is provided at a first steam outlet and the second sub-stream of steam is provided at a second steam outlet, - a first frothing unit having (i) a first mixing unit, which is connected to a first liquid inlet and a first steam inlet for providing a combination of liquid and steam, and (ii) a first frothing chamber for receiving and frothing the combination of liquid and steam, - a second frothing unit having (i) a second mixing unit, which is connected to a second liquid inlet and a second steam inlet for providing a combination of liquid and steam, and (ii) a second frothing chamber for receiving and frothing the combination of liquid and steam,
An automatically moving robotic vacuum cleaner with a housing and a filter chamber for receiving suction material, wherein the housing has a housing opening that is formed on the upper side of the housing relative to a usual orientation of the robotic vacuum cleaner during an automatic movement and has a displaceable sealing element, which can be displaced from a closed position that closes the housing opening into a released position that releases the housing opening, so as to enable access to the filter chamber, specifically a vacuuming out of the interior of the filter chamber by means of an external vacuum cleaning apparatus manually guided by the user, wherein the closure element is mounted on the housing in a linearly movable manner, wherein an engagement area of the closure element for shifting the closure element from outside of the housing is mechanically contactable, and wherein the robotic vacuum cleaner has a detection device that is set up to detect the presence of an external vacuum cleaning apparatus to be connected with the housing opening in the area of the housing opening of the robotic vacuum cleaner, wherein the robotic vacuum cleaner has a control device that is set up to control an opening of the housing opening if the presence of an external vacuum cleaning apparatus is detected, characterized in that the control device is set up to initiate the displacement of the closure element into the released position via a movement of the robotic vacuum cleaner against the external vacuum cleaning apparatus, so that the closure element is displaced into an open position through exposure to the mechanical force of the external vacuum cleaning apparatus.
A printing process system for laying out and printing images for every two pages on one side of each sheet of paper for the purpose of creating a booklet of a pile of sheets stitched in the middle, characterized by a generating unit for generating, in order to cause a plurality of printing devices to print the images on the sheets to form a booklet, print sheet data and insertion sheet data intended for each of the printing devices (fig 8A), said print sheet data showing information concerning the sheets for printing images using one of the printing devices, said insertion sheet data showing information concerning the sheets for printing images using the rest of the printing devices; a calculating unit (1,2) for calculating a shift amount for shifting the position of the image relative to the sheet, from a reference position, for each of the sheets referenced in said print sheet data, based on said print sheet data and said insertion sheet data generated by said generating unit, said shift amount ensuring that the image gets away from the edge of the sheet to be closer to its center as the sheet gets away from the outermost of the booklet to be closer to its innermost; and an instructing unit (1,2) for providing an instruction to print the images on said sheets referenced in said print sheet data, based on said shift amount calculated by said calculating unit.
A computer-implemented method of switching between isolated virtual contexts, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: determining that a virtual processor should switch from a first virtual machine context to a second virtual machine context as initiated by a guest virtual machine, wherein the first and second virtual machine contexts are isolated from each other; a physical processor receiving an instruction included in an instruction set architecture for the physical processor indicating that the virtual processor should switch directly by the physical processor without generating an intercept into a hypervisor from the first virtual machine context to the second virtual machine context; and as a result, performing the virtual context switch by executing functions native to the physical processor defined natively for the instruction; wherein the first and second virtual machine contexts comprise different hierarchical privilege levels with respect to each other. determining that a virtual processor should switch from a first virtual machine context to a second virtual machine context as initiated by a guest virtual machine, wherein the first and second virtual machine contexts are isolated from each other; a physical processor receiving an instruction included in an instruction set architecture for the physical processor indicating that the virtual processor should switch directly by the physical processor without generating an intercept into a hypervisor from the first virtual machine context to the second virtual machine context; and as a result, performing the virtual context switch by executing functions native to the physical processor defined natively for the instruction;
Pigment mixture comprising two or three interference pigments which each have different interference colours, where the interference colours are selected from the colours red, blue and green and the CIE Lab* colour ranges of the individual pigments are defined as follows: red interference pigment: a ≥ 25 and b ≥ 0 blue interference pigment: -20 ≤ a ≤ 40 and b ≤ -50 green interference pigment: a ≤ -15 and b ≥ 0, and the a and b values of the individual interference pigments are determined as follows using a STEAG ETA-Optik spectrometer: a black-coated paint card is coated with a nitrocellulose lacquer comprising 1.65 per cent by weight of the relevant interference pigment or pigment mixture using a hand coater (gap width 500 μm); after drying, the colour is measured at 95° using the above-mentioned measuring instrument with an angle of incidence of 75°; 90° is the perpendicular to the paint card.
A method for report form normalization processing, comprising: obtaining by a normalization system server a report form request sent by a user equipment, wherein the report form request carries a report form name requested by a user; and sending by the normalization system server a report form content request to a report form server corresponding to the report form name, to obtain a report form requested by the user, wherein the report form content request carries the report form name, an IP address of the report form server, a port number of the report form server, and an access protocol corresponding to the report form server; characterised in that the method further comprises: presetting by the normalization system server for the user one or more report form names for which the user has access authority. obtaining by a normalization system server a report form request sent by a user equipment, wherein the report form request carries a report form name requested by a user; and sending by the normalization system server a report form content request to a report form server corresponding to the report form name, to obtain a report form requested by the user, wherein the report form content request carries the report form name, an IP address of the report form server, a port number of the report form server, and an access protocol corresponding to the report form server; characterised in that the method further comprises: presetting by the normalization system server for the user one or more report form names for which the user has access authority.
A capsule system for preparing beverages by centrifugation of a capsule in a centrifuging brewing device comprising: a set of different capsules (1A, 1B, 1C, 1D, 1E), each of the capsules for selectively delivering a beverage, each capsule (1A, 1B, 1C, 1D 1E) containing at least one beverage substance, each capsule of the set comprising a body having an enclosure containing the beverage substance, an upper wall for closing the body and optionally a flange-like rim, wherein the capsule is designed to form, alone or in cooperation with the centrifuging brewing device, a restriction or restriction valve for the centrifuged liquid, wherein the back pressure of the restriction or restriction valve differs for at least two capsules, preferably at least three capsules of the set. a set of different capsules (1A, 1B, 1C, 1D, 1E), each of the capsules for selectively delivering a beverage, each capsule (1A, 1B, 1C, 1D 1E) containing at least one beverage substance, each capsule of the set comprising a body having an enclosure containing the beverage substance, an upper wall for closing the body and optionally a flange-like rim, wherein the capsule is designed to form, alone or in cooperation with the centrifuging brewing device, a restriction or restriction valve for the centrifuged liquid, wherein the back pressure of the restriction or restriction valve differs for at least two capsules, preferably at least three capsules of the set.
A method for estimating the Mach number of an aircraft, which comprises the following successive steps consisting, in an automatic manner, in: A) measuring a first static pressure Ps of the ambient air in a first measurement zone situated on the aircraft; B) measuring a second pressure P of the ambient air, by means of at least one static pressure probe, in a second measurement zone situated on the aircraft, said second pressure P having a value lower than the first static pressure Ps, the first measurement zone on the aircraft being at a position less disturbed by the flow of air flowing along the aircraft than the second zone, the second measurement zone being located in the nacelle of an engine of the aircraft; C) estimating a Mach number of the aircraft, using the following expression: M = k 4 + 4 k 2 − k 2 2 the parameter k bearing out the expression k = Z 1 − P Ps in which Z is a parameter dependent on the position of the second measurement zone on the aircraft, the parameter Z bearing out the following relationship Z = ( aN 1 + b) in which a and b are constants determined empirically and N1 represents the speed of rotation of the fan of the engine; and D) transmitting the duly estimated Mach number to a user system. A) measuring a first static pressure Ps of the ambient air in a first measurement zone situated on the aircraft; B) measuring a second pressure P of the ambient air, by means of at least one static pressure probe, in a second measurement zone situated on the aircraft, said second pressure P having a value lower than the first static pressure Ps, the first measurement zone on the aircraft being at a position less disturbed by the flow of air flowing along the aircraft than the second zone, the second measurement zone being located in the nacelle of an engine of the aircraft; C) estimating a Mach number of the aircraft, using the following expression: M = k 4 + 4 k 2 − k 2 2 the parameter k bearing out the expression k = Z 1 − P Ps in which Z is a parameter dependent on the position of the second measurement zone on the aircraft, the parameter Z bearing out the following relationship Z = ( aN 1 + b) in which a and b are constants determined empirically and N1 represents the speed of rotation of the fan of the engine; and D) transmitting the duly estimated Mach number to a user system.