mhurhangee/ep-ind-claims huggingface dataset:
A hub-bearing unit comprising: - a bearing unit comprising a radially outer ring, stationary, a radially inner ring, rotatable, and a double row of rolling bodies (33, 34), the first row of rolling bodies, axially outwards, being interposed between the radially outer ring and a rotor-hub and whose centers of the rolling bodies are located along a first circle having a radius, with respect to a symmetry axis of the hub-bearing unit, and the second row of rolling bodies, axially inwards, being interposed between the radially outer ring and the radially inner ring, - the rotor-hub (20, rotatable, on top of which the radially inner ring is assembled, the rotor-hub comprising a tubular portion, to which is steadily fixed a flange portion, axially external and provided with a plurality of fixing holes, whose axes are located along a second circle having a radius (r), with respect to the symmetry axis of the hub-bearing unit, wherein - the radius (r) of the second circle of the fixing holes axes is less than or at most equal to the radius of the first circle of the rolling bodies centers, characterized in that - a bushing, for centering the vehicle wheel, is coupled to the flange portion of the rotor-hub. - a bearing unit comprising a radially outer ring, stationary, a radially inner ring, rotatable, and a double row of rolling bodies (33, 34), the first row of rolling bodies, axially outwards, being interposed between the radially outer ring and a rotor-hub and whose centers of the rolling bodies are located along a first circle having a radius, with respect to a symmetry axis of the hub-bearing unit, and the second row of rolling bodies, axially inwards, being interposed between the radially outer ring and the radially inner ring, - the rotor-hub (20, rotatable, on top of which the radially inner ring is assembled, the rotor-hub comprising a tubular portion, to which is steadily fixed a flange portion, axially external and provided with a plurality of fixing holes, whose axes are located along a second circle having a radius (r), with respect to the symmetry axis of the hub-bearing unit, wherein - the radius (r) of the second circle of the fixing holes axes is less than or at most equal to the radius of the first circle of the rolling bodies centers, characterized in that - a bushing, for centering the vehicle wheel, is coupled to the flange portion of the rotor-hub.
A charging session termination decision device (PCRF) for determining to terminate a charging session, wherein the charging session termination decision device comprises: a request receiving module configured to receive a decision request for termination of the charging processing of a current always-on IP connectivity session from a charging session termination request device (PCEF, AF); a rule sending module configured to send a termination rule or a trigger instruction for a termination rule corresponding to the charging session of the current always-on IP connectivity session to a device (PCEF) having initiated the charging session with a charging system, in response to the decision request; wherein the termination rule corresponding to the charging session includes terminating the charging session, but keeping the current always-on IP connectivity session. a request receiving module configured to receive a decision request for termination of the charging processing of a current always-on IP connectivity session from a charging session termination request device (PCEF, AF); a rule sending module configured to send a termination rule or a trigger instruction for a termination rule corresponding to the charging session of the current always-on IP connectivity session to a device (PCEF) having initiated the charging session with a charging system, in response to the decision request; wherein the termination rule corresponding to the charging session includes terminating the charging session, but keeping the current always-on IP connectivity session.
A method for processing cell out-of-service failures, the method including monitoring and receiving cell outage faults, analyzing causes and contents of the obtained cell outage fault, characterized in that, the method further includes: determining according to the causes and contents of the fault whether the cell out-of-service is caused due to a malfunction of any hardware; if it is a non-hardware malfunction, then attempting to recover the cell, and then ending the current recovering process; if it is a malfunction of the hardware, then checking configuration information, acquiring related hardware objects of the current cell, and finding whether there is a fault related to a hardware object; if there is a fault related to the hardware object, then determining according to the type of the hardware object whether the hardware object is replaceable; if there is a replaceable hardware object, then attempting to recover the cell; if there is no replaceable hardware object, or if there is no fault related to the hardware object, or the recovering attempt fails, determining whether the cell requires compensation; if no compensation is required, then recording the result of automatic recovering or reporting the result of processing the fault to an upper level; if compensation is required, then sending a cell blocking request to block the failed cell, backing current configuration parameters of the cell up, then generating configuration parameters related to the cell compensation and delivering them to the network element devices, and recording the result of automatic recovering or reporting the result of processing the fault to an upper level, and then ending the current recovering process. determining according to the causes and contents of the fault whether the cell out-of-service is caused due to a malfunction of any hardware; if it is a non-hardware malfunction, then attempting to recover the cell, and then ending the current recovering process; if it is a malfunction of the hardware, then checking configuration information, acquiring related hardware objects of the current cell, and finding whether there is a fault related to a hardware object; if there is a fault related to the hardware object, then determining according to the type of the hardware object whether the hardware object is replaceable; if there is a replaceable hardware object, then attempting to recover the cell; if there is no replaceable hardware object, or if there is no fault related to the hardware object, or the recovering attempt fails, determining whether the cell requires compensation; if no compensation is required, then recording the result of automatic recovering or reporting the result of processing the fault to an upper level; if compensation is required, then sending a cell blocking request to block the failed cell, backing current configuration parameters of the cell up, then generating configuration parameters related to the cell compensation and delivering them to the network element devices, and recording the result of automatic recovering or reporting the result of processing the fault to an upper level, and then ending the current recovering process.
A clip for capturing bottle necks, particularly the bottle necks of PET bottles, for use in bottling plants, the clip including clip arms which are able to pivot in the horizontal plane, the clip comprising a permanent magnet arranged on one clip arm (1a, 1 b) between a gripping area and a pivot axis and a further permanent magnet or a magnetisable metal being arranged on the other opposite clip arm (1 a, 1b), such that when in the operating position they exert a force on one another that closes the clip, characterised in that between the gripping area and the pivot axis, the clip further comprises receptacles for permanent magnets which when in the operating position exert a force on one another that closes the clip, and in that between the permanent magnet receptacle and the pivot axis, the clip arms (1 a to 1 b) are equipped with a clip bar which facilitates elastic expanding and spring-back, and that the gripping area, the clip, the permanent magnet receptacles, the clip arms (1 a,1 b) with clip bars and a pivot axis bearing of the clip are configured as a one-piece plastic element.
An inflatable product comprising: an inflatable product body having an electric pump aperture and an auxiliary air supply aperture, the inflatable product body defining a primary inflatable chamber and a nominal air capacity; an electric air pump mounted on the product body through the electric pump aperture; and an auxiliary air supply mounted to the product body at the auxiliary air supply aperture, the auxiliary air supply defining an internal air supply chamber defining an internal air volume nominally separate from, but contained within, the primary inflatable chamber of the product body; characterized in that: the electric air pump is configured to inflate the inflatable product from a deflated state to a partially inflated state in which the inflatable product body contains between 95.0% and 99.5% of the nominal air capacity, and the auxiliary air supply is configured to inflate the inflatable product from the partially inflated state to a fully inflated state by providing the final 0.5-5.0% of the nominal air capacity. an inflatable product body having an electric pump aperture and an auxiliary air supply aperture, the inflatable product body defining a primary inflatable chamber and a nominal air capacity; an electric air pump mounted on the product body through the electric pump aperture; and an auxiliary air supply mounted to the product body at the auxiliary air supply aperture, the auxiliary air supply defining an internal air supply chamber defining an internal air volume nominally separate from, but contained within, the primary inflatable chamber of the product body; characterized in that: the electric air pump is configured to inflate the inflatable product from a deflated state to a partially inflated state in which the inflatable product body contains between 95.0% and 99.5% of the nominal air capacity, and the auxiliary air supply is configured to inflate the inflatable product from the partially inflated state to a fully inflated state by providing the final 0.5-5.0% of the nominal air capacity. the electric air pump is configured to inflate the inflatable product from a deflated state to a partially inflated state in which the inflatable product body contains between 95.0% and 99.5% of the nominal air capacity, and the auxiliary air supply is configured to inflate the inflatable product from the partially inflated state to a fully inflated state by providing the final 0.5-5.0% of the nominal air capacity.
A transmission having a first and a second housing part (12, 14), an intermediate shaft of the transmission being mounted via two bearings (10, 10) in a bushing (11, 51, 71) accommodating the bearings (10, 10), the bushing (11, 51, 71) centring the first housing part with respect to the second housing part, the bushing (11, 51, 71) comprising an inner sleeve section which accommodates in a first axial section the first bearing of the intermediate shaft and in a second axial section the second bearing of the intermediate shaft, a web section being arranged axially between the first and second sections, the smallest radial clearance of which is smaller than the smallest radial clearance of the first or second section, the bushing (11, 51, 71) comprising an outer sleeve section which is radially spaced from the inner sleeve section, characterised in that the inner and outer sleeve sections (21, 22) are connected via support ribs (4, 52, 53, 72, 73) which extend radially in the radial clearance region between the inner sleeve section and the outer sleeve section and which are designed in the form of spokes, the support ribs (4, 52, 53, 72, 73) being spaced apart from one another in the circumferential direction, a first one of the support ribs (4, 52, 53, 72, 73) being designed so as to be axially shorter and/or shorter in the circumferential direction than a second one of the support ribs (4, 52, 53, 72, 73), the bushing (11, 51, 71) being pressed into a receiving region of the first housing part and into a receiving region of the second housing part arranged coaxially thereto, an annular spatial region for receiving an adhesive being arranged between one of the housing parts and the bushing (11, 51, 71), the spatial region being delimited by a depression in the bushing (11, 51, 71) and the receiving region of the housing part for the bushing (11, 51, 71).
A method for configuring an IT system comprising at least one computing core for executing instruction threads, in which each computing core is capable of executing at least two instruction threads at a time in an interlaced manner, a BIOS system intended to be executed at the beginning of the start-up of the IT system and an operating system, intended to be executed by the BIOS system on the IT system, capable of providing instruction threads to each computing core, wherein the method comprises: - an execution of the BIOS system including the creation of a first list of logic processors to be read by the operating system during its execution, said list comprising at least two logic processors for each computing core thereby placing it in a mode where it is configured to execute in an interlaced manner at least two instruction threads at a time by presenting to the operating system during execution as many logic processors as instruction threads that it can execute in an interlaced manner at a time; - an execution of the operating system including a read of the first list to organize an instruction thread scheduling; and - a configuration of the operating system being executed in a mode in which it provides, to each computing core, a maximum of one instruction thread at a time; wherein the method is characterized in that: - the execution of the operating system includes creating, from the first list, a second list of logic processors available for scheduling; and - the configuration of the operating system includes a removal, in the second list of logic processors available for scheduling, of all logic processors except one for each compute core. - an execution of the BIOS system including the creation of a first list of logic processors to be read by the operating system during its execution, said list comprising at least two logic processors for each computing core thereby placing it in a mode where it is configured to execute in an interlaced manner at least two instruction threads at a time by presenting to the operating system during execution as many logic processors as instruction threads that it can execute in an interlaced manner at a time; - an execution of the operating system including a read of the first list to organize an instruction thread scheduling; and - a configuration of the operating system being executed in a mode in which it provides, to each computing core, a maximum of one instruction thread at a time; - the execution of the operating system includes creating, from the first list, a second list of logic processors available for scheduling; and - the configuration of the operating system includes a removal, in the second list of logic processors available for scheduling, of all logic processors except one for each compute core.
A stack of eye shields, comprising a plurality of eye shields, each eye shield having: a frame having a plurality of spaced apart elevated support surfaces along and rising above an upper portion of the frame; and a lens installed on the frame; wherein the plurality of eye shields is provided in a stack comprising the plurality of eye shields being stacked one on top of another with each of the eye shields oriented substantially parallel to one another with each of the elevated surfaces of an overlying one of the frames of the stack being slightly forward of a corresponding one of the elevated surfaces of the underlying frame of the stack, with each frame of each eye shield of the stack having a gap therebetween except at contact surfaces where the elevated support surfaces contact an adjacent lower surface of an overlying eye shield, whereby the elevated support surfaces of the frames stabilize the stack of the eye shields for shipping and dispensing of the stack of the eye shields. a frame having a plurality of spaced apart elevated support surfaces along and rising above an upper portion of the frame; and a lens installed on the frame; wherein the plurality of eye shields is provided in a stack comprising the plurality of eye shields being stacked one on top of another with each of the eye shields oriented substantially parallel to one another with each of the elevated surfaces of an overlying one of the frames of the stack being slightly forward of a corresponding one of the elevated surfaces of the underlying frame of the stack, with each frame of each eye shield of the stack having a gap therebetween except at contact surfaces where the elevated support surfaces contact an adjacent lower surface of an overlying eye shield, whereby the elevated support surfaces of the frames stabilize the stack of the eye shields for shipping and dispensing of the stack of the eye shields.
An implantable device for the sustained release of a GLP-1 analogue polypeptide, comprising: a) a homogeneous copolymer matrix that, in a hydrated state, forms a hydrogel with an equilibrium water content value ranging from 20% to 85%, wherein the copolymer matrix is obtained from a polymerizable mixture comprising either at least two hydrophilic, ethylenically unsaturated monomers or at least one hydrophobic monomer and at least one hydrophilic ethylenically unsaturated monomer, and wherein the homogeneous copolymer matrix further comprises a release agent of a molecular weight of at least 1000 Daltons, said release agent comprising Vitamin E TPGS; and b) a solid formulation comprising a GLP-1 analogue polypeptide, wherein the solid formulation is substantially encased within the homogeneous copolymer matrix. a) a homogeneous copolymer matrix that, in a hydrated state, forms a hydrogel with an equilibrium water content value ranging from 20% to 85%, wherein the copolymer matrix is obtained from a polymerizable mixture comprising either at least two hydrophilic, ethylenically unsaturated monomers or at least one hydrophobic monomer and at least one hydrophilic ethylenically unsaturated monomer, and wherein the homogeneous copolymer matrix further comprises a release agent of a molecular weight of at least 1000 Daltons, said release agent comprising Vitamin E TPGS; and b) a solid formulation comprising a GLP-1 analogue polypeptide, wherein the solid formulation is substantially encased within the homogeneous copolymer matrix.
A method of diagnosing a lifestyle that permits healthy ageing comprising - determining the level of 1-O-alkyl-2 acylglycerophosphocholine 40:1 (PC-O 40:1), in a serum sample isolated from a subject, and - comparing the subject's PC-O 40:1 level to a predetermined reference value, wherein the predetermined reference value is based on an average serum PC-O 40:1 level in a control population, and wherein a decreased serum PC-O 40:1 level in the sample compared to the predetermined reference value indicates an increased likelihood to permit healthy ageing. - determining the level of 1-O-alkyl-2 acylglycerophosphocholine 40:1 (PC-O 40:1), in a serum sample isolated from a subject, and - comparing the subject's PC-O 40:1 level to a predetermined reference value,
A method for compensating a production-related offset in a tool slide, wherein the tool slide comprises a slide bed, a slider body and a driver, wherein between the slider body and the driver a self-centering guide is formed, which when placing the slider body on the driver centers the slider body on the driver transversely to an x-axis, characterized in that the slider body is mounted on the slide bed floating over a flat guide transversely to the x-axis such that the production-related offset when centering the slider body on the driver is compensated in the transverse direction, wherein after the compensation of the production-related offset sliding elements between the slide bed and slider body are shifted and adjusted so that the sliding surfaces fit form-fit to a web projecting into a groove according to the x-axis and thus the floating bearing transverse to the x-axis is released.
A scan isolation and bypass architecture comprising core logic having a core logic input and a core logic output; an input isolation multiplexer having a first input, a second input, a selection input and an output, the input isolation multiplexer selectively providing one of the first and second inputs of the input isolation multiplexer to the output of the input isolation multiplexer based on the selection input of the input isolation multiplexer, the first input of the input isolation multiplexer being coupled to a functional input, the second input of the input isolation multiplexer being coupled to a functional output, the output of the input isolation multiplexer being coupled to the core logic input, and the selection input of the input isolation multiplexer being coupled to a first test select signal; an output isolation multiplexer having a first input, a second input, a selection input and an output, the output isolation multiplexer selectively providing one of the first and second inputs of the output isolation multiplexer to the output of the output isolation multiplexer based on the selection input of the output isolation multiplexer, the first input of the output isolation multiplexer being coupled to the core logic output, the second input of the output isolation multiplexer being coupled to the output of the input isolation multiplexer, the output of the output isolation multiplexer providing the functional output, and the selection input of the output isolation multiplexer being coupled to a second test select signal; wherein when the first and second test select signals indicate a core feedback test, the output isolation multiplexer passes the core logic output from the first input of the output isolation multiplexer to the output of the output isolation multiplexer as the functional output, and the input isolation multiplexer passes the core logic output from the second input of the input isolation multiplexer to the output of the input isolation multiplexer and the core logic input.
A portable barrier unit (10; 60, 62, 64, 66), comprising: - a base, a top, and an inflatable enclosed volume (16; 61) between said base and top, - inlet (30, 54, 72, 76, 80, 84) and outlet (32, 56, 74, 78, 82, 86) holes allowing for inflation or deflation of the inflatable volume, wherein when said volume (16; 61) is inflated with a medium, the inflated volume will act as a barrier and wherein when said barrier unit is connected to another adjacent barrier unit, the units will form a barrier wall, wherein the height of each barrier unit corresponds to the height of the corresponding enclosed volume, this height being adjustable by pumping more or less of said medium into the volume, characterized in that adjacent barrier units are connectable via said inlet and outlet holes to form a barrier wall and to allow the medium to flow from one inflatable volume to the inflatable volume of an adjacent, connected barrier module. - a base, a top, and an inflatable enclosed volume (16; 61) between said base and top, - inlet (30, 54, 72, 76, 80, 84) and outlet (32, 56, 74, 78, 82, 86) holes allowing for inflation or deflation of the inflatable volume, wherein when said volume (16; 61) is inflated with a medium, the inflated volume will act as a barrier and wherein when said barrier unit is connected to another adjacent barrier unit, the units will form a barrier wall, wherein the height of each barrier unit corresponds to the height of the corresponding enclosed volume, this height being adjustable by pumping more or less of said medium into the volume,