mhurhangee/patent-ind-claim-en huggingface dataset:
A belt finishing device , with a finishing belt and with a mechanical port for a rotary drive of a tool machine , wherein the mechanical port is at least indirectly coupled to an oscillation drive , which comprises a converter for converting a rotary movement into an oscillation movement of a pressing tool , wherein the pressing tool is intended to press the finishing belt against a workpiece to be finished, wherein the mechanical port is at least indirectly coupled to a finishing belt drive for conveying the finishing belt , wherein the oscillation drive and/or the finishing belt drive has or have a transmission , characterized in that an input variable of the transmission is the direction of rotation of the rotary drive of the tool machine and an output variable of the transmission is rotational speeds, which are dependent on the input variable and differ from one another, in that a first direction of rotation of the rotary drive corresponds to a first rotational speed and a second direction of rotation , which is opposite to the first direction of rotation , corresponds to a second rotational speed, and in that a direction of rotation at the output of the transmission is always the same direction of rotation irrespective of the input variable.
A rotation apparatus comprising: a holding part ; a rotation shaft held rotatably by the holding part; a plurality of rotation blades being attached to the rotation shaft and having a length (L0); a plurality of airflow generation devices , each being disposed on a respective rotation blade and each including a first electrode and a second electrode disposed separately from each other; and characterised by an AC/DC conversion unit for converting an alternating voltage of a commercial frequency into a direct-current voltage; a high frequency generation unit for generating a high frequency alternating voltage based on the direct-current voltage converted by the AC/DC conversion unit; slip rings for transmitting the high frequency alternating voltage from a holding part side to a rotation blade side; and a plurality of transformers disposed respectively in the rotation blades and for increasing the voltage of the high frequency alternating voltage generated by the high frequency generation unit and outputting an increased voltage between the first electrode and the second electrode , wherein a ratio of a distance (L) against the length (L0) is 0.05 or less, the distance (L) being defined by a distance between a combined center of gravity of the transformers and a center axis of the rotation shaft . a holding part ; a rotation shaft held rotatably by the holding part; a plurality of rotation blades being attached to the rotation shaft and having a length (L0); a plurality of airflow generation devices , each being disposed on a respective rotation blade and each including a first electrode and a second electrode disposed separately from each other; and characterised by an AC/DC conversion unit for converting an alternating voltage of a commercial frequency into a direct-current voltage; a high frequency generation unit for generating a high frequency alternating voltage based on the direct-current voltage converted by the AC/DC conversion unit; slip rings for transmitting the high frequency alternating voltage from a holding part side to a rotation blade side; and a plurality of transformers disposed respectively in the rotation blades and for increasing the voltage of the high frequency alternating voltage generated by the high frequency generation unit and outputting an increased voltage between the first electrode and the second electrode , wherein a ratio of a distance (L) against the length (L0) is 0.05 or less, the distance (L) being defined by a distance between a combined center of gravity of the transformers and a center axis of the rotation shaft .
A bone-conduction sound transmission device, comprising, a signal output module for providing a digital audio signal; a signal conversion and emission module , for converting the digital audio signal into a vibration signal and emitting the vibration signal; a signal detection module , for detecting the vibration signal for a plurality of positions in the transmission path from the signal conversion and emission module to a receiving end, the signal detection module comprising a signal amplitude detection unit for detecting an amplitude of the vibration signal for each of the positions in the transmission path, wherein the bone-conduction sound transmission device further comprises a signal feedback module which is configured to calculate an amplitude attenuation coefficient of the vibration signal at each of the positions, determine an amplitude compensation signal based on the amplitude attenuation coefficient and compensate for the vibration signal generated from the signal conversion and emission module with the amplitude compensation signal, wherein the amplitude compensation signal is a function of the amplitude attenuation coefficient, wherein the signal amplitude detection unit comprises a plurality of signal amplitude detection components , each signal amplitude detection component corresponding to the position to be detected, which is configured to detect the amplitude of the vibration signal transmitted to the corresponding position, wherein the number of the positions is N, each position being associated with the corresponding signal amplitude detection component for detecting the amplitude of the vibration signal transmitted to this position, wherein the signal feedback module calculates the amplitude attenuation coefficient for the vibration signal at each of the positions according to the following equation , α i = U 0 − U i / U 0 wherein α i denotes the amplitude attenuation coefficient of the vibration signal transmitted to the i-th position, and i is a positive integer, the maximum value of which corresponds to the number of the positions; wherein U 0 denotes an initial amplitude of the vibration signal emitted from the signal conversion and emission module , and U i denotes the amplitude of the vibration signal transmitted to the i-th position; wherein the signal feedback module further determines the amplitude compensation signal for each position according to the following equation , B i = f α i wherein B i denotes the amplitude compensation signal for the i-th position, f ( α i ) is a piecewise function, so that B i is in the form of a pulse signal, the value of which is more than one times as large as that of α i .
Method for operating a brake system , which comprises • hydraulically actuatable wheel brakes with brake linings; • a brake fluid reservoir ; • a pressure supply device with a pressure piston that can be moved into a pressure chamber ; • a parking brake integrated into the wheel brake, wherein, in a normal operating mode, brake pressure is actively built up in the wheel brakes by means of the pressure supply device , and wherein, in a parking operating mode, the integrated parking brake applies the brake linings of at least two wheel brakes , and where-in, when the integrated parking brake is released, the application of the linings is withdrawn again, characterized in that , after the integrated parking brake has been released, the brake fluid volume additionally displaced in the parking brake operating mode by the integrated parking brake with respect to the normal operating mode is taken into consideration for the subsequent operation in the normal operating mode. • hydraulically actuatable wheel brakes with brake linings; • a brake fluid reservoir ; • a pressure supply device with a pressure piston that can be moved into a pressure chamber ; • a parking brake integrated into the wheel brake, wherein, in a normal operating mode, brake pressure is actively built up in the wheel brakes by means of the pressure supply device , and wherein, in a parking operating mode, the integrated parking brake applies the brake linings of at least two wheel brakes , and where-in, when the integrated parking brake is released, the application of the linings is withdrawn again,
Chuck for clamping tools and/or workpieces in a machine tool, in particular in a tool grinding machine, comprising a main body as well as a plurality of clamping pins which by way of the front ends thereof define a clamping location and are guided in a chuck body that is movable in relation to the main body , and wherein the clamping pins are installed so as to be oblique in relation to the envisaged rotation axis of the chuck , and the chuck body is conceived such that a radial movement of the clamping pins is caused by an axial movement of the chuck body such that the clamping location can be opened and closed, wherein an axial position of the front ends and/or free end faces (35.1) of the clamping pins is not changed, wherein the clamping pins , at least in the regions in which the latter are guided in the chuck body , are configured so as to be substantially circular-cylindrical, characterized in that the rear end faces (32.3) of the clamping pins at all times bear on a contact face on the main body that lies so as to be perpendicular to the rotation axis of the chuck , and by means of a retention device are held so as to be displaceable in the radial direction, wherein the retention device is configured in such a manner that at least one clamping pin by way of a pretensioning force is pushed in the axial direction onto the contact face.
A printing method, comprising: applying a fixer fluid to a print area in a pattern comprising borders to form cells , the borders consisting of fixer fluid and the cells having a predetermined area without the fixer fluid, wherein the fixer fluid is a pretreatment fluid; and applying ink to the print area independently from the pattern of the fixer fluid, after applying the fixer fluid, wherein the borders isolate the predetermined area of each cell from the predetermined areas of other cells of the print area, characterized in that the fixer fluid is applied in a non-periodic grid. applying a fixer fluid to a print area in a pattern comprising borders to form cells , the borders consisting of fixer fluid and the cells having a predetermined area without the fixer fluid, wherein the fixer fluid is a pretreatment fluid; and applying ink to the print area independently from the pattern of the fixer fluid, after applying the fixer fluid, wherein the borders isolate the predetermined area of each cell from the predetermined areas of other cells of the print area, characterized in that the fixer fluid is applied in a non-periodic grid.
An rAAV2 particle comprising an AAV2 capsid protein and a vector comprising a nucleic acid encoding a protective ApoE ε2 isoform protein inserted between a pair of AAV2 inverted terminal repeats, for use in treating Alzheimer's disease in a mammal, wherein the rAAV particle is administered to an ependymal cell thereby delivering the nucleic acid to the ependymal cell, wherein the ependymal cell secretes the ApoE ε2 protein so as to treat the disease, and wherein the mammal is a non-rodent mammal.
An antenna arrangement comprising an interface and a directional antenna assembly , the directional antenna assembly comprising a directional antenna mounted on said interface , the directional antenna being configured to transmit and/or receive spatially concentrated electromagnetic radiation in one direction at a time, the directional antenna generally extending along a main vertical axis perpendicular to the plane defined by said interface, wherein the antenna arrangement further comprises a rotatable base mounted on said interface and a pole assembly comprising a pole integral with said rotatable base , said pole extending in the direction of said main axis, said rotatable base being rotatable about the main axis , said rotatable base being configured to control the rotation of the pole assembly in azimuth, about the main axis , a rotation of said rotatable base actuating and controlling the rotation of the pole about the main axis , so as to enable relocation of the pole , outside a line-of-sight of the directional antenna , characterised in that the antenna arrangement comprises a radome in which the directional antenna is enclosed and/or a lightning arrestor arranged on the pole .
A flexible, customisable backrest overlay for a seat, the overlay being configured to substantially conform around a contoured surface of the backrest, and comprising a first layer having a front surface and a rear surface , wherein a plurality of channels are provided on the rear surface and extend in a first direction along the rear surface , wherein one or more first contouring members are located between adjacent channels and project from the rear surface of the first layer and wherein one or more second contouring members are located between adjacent channels and are stacked on top of the one or more first contouring members so that the first and second contouring members form stacks of contouring members between adjacent channels , characterized in that perforation lines are provided between the stacked contouring members to allow each second contouring member to be torn or cut away from the first contouring member in the same stack to adjust the contours of the front surface to provide customised contoured cushioning to satisfy the postural or alignment needs of the user.
A workpiece transport system , comprising: a mounting pedestal (P) on which a workpiece (W) can be mounted; and a workpiece holding robot configured to be able to transport, from the mounting pedestal (P), the workpiece (W) mounted on the mounting pedestal (P), the workpiece holding robot including a workpiece holding portion capable of holding the workpiece (W), an arm unit configured to bring the workpiece holding portion close to or away from a detection target, and a surface detection sensor capable of detecting that the workpiece holding portion is brought into contact with the detection target, characterized in that the workpiece transport system being configured to detect a height error (Ho) of the workpiece holding portion based on a height from a mounting pedestal side floor surface (FP), on which the mounting pedestal (P) is mounted, to a connection point between the workpiece holding portion and the arm unit at a point in time at which contact with the detection target is detected by the surface detection sensor , a height from the mounting pedestal side floor surface (FP) to a surface of the detection target, and a theoretical value of a height of the workpiece holding portion , and to detect an actual loading height (Hw) of the workpiece (W) mounted on the mounting pedestal (P) in consideration of the height error (Ho) of the workpiece holding portion . a mounting pedestal (P) on which a workpiece (W) can be mounted; and a workpiece holding robot configured to be able to transport, from the mounting pedestal (P), the workpiece (W) mounted on the mounting pedestal (P), the workpiece holding robot including a workpiece holding portion capable of holding the workpiece (W), an arm unit configured to bring the workpiece holding portion close to or away from a detection target, and a surface detection sensor capable of detecting that the workpiece holding portion is brought into contact with the detection target, characterized in that the workpiece transport system being configured to detect a height error (Ho) of the workpiece holding portion based on a height from a mounting pedestal side floor surface (FP), on which the mounting pedestal (P) is mounted, to a connection point between the workpiece holding portion and the arm unit at a point in time at which contact with the detection target is detected by the surface detection sensor , a height from the mounting pedestal side floor surface (FP) to a surface of the detection target, and a theoretical value of a height of the workpiece holding portion , and to detect an actual loading height (Hw) of the workpiece (W) mounted on the mounting pedestal (P) in consideration of the height error (Ho) of the workpiece holding portion .
Method for producing a connector plate of a dust container for a vacuum cleaner, where the dust container comprises a dust bag , made of an air permeable material, and the connector plate , surrounds an opening in the dust bag and the connector plate, whereby the connector plate can correctly position the opening within a vacuum cleaner by the connector plate being inserted in a holder of the vacuum cleaner, the connector plate being produced by injection molding a plastic material in a tool such that the connector plate extends in a main plane, characterized by that the connector plate further comprises a flexible shutter formed in one piece with the connector plate, and wherein in the tool, the shutter is formed to extend out of the main plane of the connector plate.
A topical composition for use in a method of treating a patient having a skin condition characterized by cutaneous vascular hyper-reactivity, wherein the topical composition is applied to area(s) of the patient's skin affected with said vascular hyper-reactivity, and wherein the topical composition comprises an amount of a botulinum neurotoxin effective for decreasing vasodilation in the cutaneous microvasculature, wherein said botulinum neurotoxin is non-covalently associated with a positively charged peptide carrier selected from Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg-Gly-(Lys)n-Gly-Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg (SEQ ID NO:3); Arg-Arg-Arg-Gln-Arg-Arg-Lys-Lys-Arg-Gly-(Lys)n-Gly-Arg-Arg-Arg-Gln-Arg-Arg-Lys-Lys-Arg (SEQ ID NO:4), where n is an integer from 5 to 20; and Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg-Gly-(Lys)15-Gly-Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg (SEQ ID NO:5), for transporting the botulinum neurotoxin to the cutaneous microvasculature. wherein the topical composition is applied to area(s) of the patient's skin affected with said vascular hyper-reactivity, and wherein the topical composition comprises an amount of a botulinum neurotoxin effective for decreasing vasodilation in the cutaneous microvasculature, wherein said botulinum neurotoxin is non-covalently associated with a positively charged peptide carrier selected from Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg-Gly-(Lys)n-Gly-Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg (SEQ ID NO:3); Arg-Arg-Arg-Gln-Arg-Arg-Lys-Lys-Arg-Gly-(Lys)n-Gly-Arg-Arg-Arg-Gln-Arg-Arg-Lys-Lys-Arg (SEQ ID NO:4), where n is an integer from 5 to 20; and Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg-Gly-(Lys)15-Gly-Arg-Lys-Lys-Arg-Arg-Gln-Arg-Arg-Arg (SEQ ID NO:5), for transporting the botulinum neurotoxin to the cutaneous microvasculature.
A power consumption control method, applied to user equipment comprising an application processor and a baseband processor modem, wherein the method comprises: obtaining, by the baseband processor, modem traffic information; sending, by the baseband processor, indication information to a base station when the modem traffic information meets a preset condition, wherein the indication information is used to instruct the base station to adjust a connected discontinuous reception, CDRX, cycle of the user equipment; receiving, by the baseband processor, first configuration information sent by the base station, wherein the first configuration information comprises CDRX information of the user equipment; and configuring, by the baseband processor, the CDRX cycle of the user equipment by using the first configuration information. obtaining, by the baseband processor, modem traffic information; sending, by the baseband processor, indication information to a base station when the modem traffic information meets a preset condition, wherein the indication information is used to instruct the base station to adjust a connected discontinuous reception, CDRX, cycle of the user equipment; receiving, by the baseband processor, first configuration information sent by the base station, wherein the first configuration information comprises CDRX information of the user equipment; and configuring, by the baseband processor, the CDRX cycle of the user equipment by using the first configuration information.
A policy configuration method, comprising: when registering, by a user equipment, UE, in a non-public network, receiving, by the user equipment, a UE policy sent by a network equipment, wherein the UE policy is applied by the UE to the non-public network, NPN network ; and applying, by the user equipment, the UE policy to the non-public network, characterized in that , the method further comprises: carrying a Policy Section Identifier, PSI, corresponding to the UE policy of the non-public network in a container of a registration request message in a case that the user equipment initiates a registration request in the non-public network, storing, by the user equipment, the UE policy in association with an identifier of the non-public network, wherein the identifier of the non-public network is Public Land Mobile Network Identifier, PLMN ID+ Network Identifier, NID. when registering, by a user equipment, UE, in a non-public network, receiving, by the user equipment, a UE policy sent by a network equipment, wherein the UE policy is applied by the UE to the non-public network, NPN network ; and applying, by the user equipment, the UE policy to the non-public network, characterized in that , the method further comprises: carrying a Policy Section Identifier, PSI, corresponding to the UE policy of the non-public network in a container of a registration request message in a case that the user equipment initiates a registration request in the non-public network, storing, by the user equipment, the UE policy in association with an identifier of the non-public network, wherein the identifier of the non-public network is Public Land Mobile Network Identifier, PLMN ID+ Network Identifier, NID.