mhurhangee/ep-ind-claims huggingface dataset:
A method performed in a first packet data network gateway, PDN-GW, in a PDN-GW pool, the PDN-GW pool for providing data connectivity between user equipment, UE, devices and an external PDN through an access point name, APN, wherein the first PDN-GW is coupled to a second PDN-GW and the method is for providing UE session resilience by allowing the first PDN-GW to provide connectivity for one or more UE sessions previously serviced by the second PDN-GW after the second PDN-GW becomes non-operational, the method comprising the steps of: recognizing that the second PDN-GW is entering a non-operational state; activating a plurality of standby UE sessions, wherein the standby UE sessions are synchronized copies of UE sessions for which the second PDN-GW was the active PDN-GW, each of the UE sessions being associated with a UE device and a network resource identifier, NRI, that identifies an APN slice which corresponds with a subset of internet protocol addresses in the external PDN; and transmitting a message to a serving gateway, SGW, (103A - 103C) the SGW (103A - 103C) for providing data connectivity between one or more of the UE devices and the PDN-GW pool, wherein the message indicates that the first PDN-GW has activated standby UE sessions associated with one or more UE devices serviced by the SGW (103A - 103C) with the intention that the SGW (103A - 103C) directs traffic previously bound for the second PDN-GW to the first PDN-GW, whereby UE session resilience is achieved in a PDN-GW pool by allowing the first PDN-GW to activate the plurality of standby UE sessions without notifying each UE device associated with a standby UE session on the first PDN-GW. recognizing that the second PDN-GW is entering a non-operational state; activating a plurality of standby UE sessions, wherein the standby UE sessions are synchronized copies of UE sessions for which the second PDN-GW was the active PDN-GW, each of the UE sessions being associated with a UE device and a network resource identifier, NRI, that identifies an APN slice which corresponds with a subset of internet protocol addresses in the external PDN; and transmitting a message to a serving gateway, SGW, (103A - 103C) the SGW (103A - 103C) for providing data connectivity between one or more of the UE devices and the PDN-GW pool, wherein the message indicates that the first PDN-GW has activated standby UE sessions associated with one or more UE devices serviced by the SGW (103A - 103C) with the intention that the SGW (103A - 103C) directs traffic previously bound for the second PDN-GW to the first PDN-GW, whereby UE session resilience is achieved in a PDN-GW pool by allowing the first PDN-GW to activate the plurality of standby UE sessions without notifying each UE device associated with a standby UE session on the first PDN-GW.
A structure comprising a connector assembly and a single flexible printed circuits board; wherein: the connector assembly comprises a first connector and a second connector which are mateable with each other along a front-rear direction; the first connector comprises two or more sub-connectors and a housing; the housing holds each of the sub-connectors; each of the sub-connectors is floatable relative to the housing; the second connector comprises two or more mating portions which correspond to the sub-connectors, respectively; and each of the sub-connectors is mateable with a corresponding one of the mating portions, characterized in that the first connector is a surface mount connector, via surface mount portions of first terminals of each of the sub-connectors; the FPC board has two or more branching end portions; and the sub-connectors are configured to be connected to the end portions of the FPC board, respectively. the connector assembly comprises a first connector and a second connector which are mateable with each other along a front-rear direction; the first connector comprises two or more sub-connectors and a housing; the housing holds each of the sub-connectors; each of the sub-connectors is floatable relative to the housing; the second connector comprises two or more mating portions which correspond to the sub-connectors, respectively; and each of the sub-connectors is mateable with a corresponding one of the mating portions, characterized in that the first connector is a surface mount connector, via surface mount portions of first terminals of each of the sub-connectors; the FPC board has two or more branching end portions; and the sub-connectors are configured to be connected to the end portions of the FPC board, respectively.
A method for providing a flight path of an unmanned aerial vehicle, UAV, comprising: Receiving, by first access network equipment, a radio resource control, RRC, connection resumption request sent by the UAV in an inactive state; and sending, by the first access network equipment, flight path information of the UAV to the UAV. Receiving, by first access network equipment, a radio resource control, RRC, connection resumption request sent by the UAV in an inactive state; and sending, by the first access network equipment, flight path information of the UAV to the UAV.
Solenoid valve (11; 31; 41) having - a control chamber (13; 43) with a float arranged therein, a water inlet, a first water outlet and a second water outlet, and - an electromagnet arranged on the control chamber (13; 43), wherein - when the control chamber (13; 43) is empty, the float releases the first water outlet and the second water outlet, - when the control chamber (13; 43) is filled, the float closes the first water outlet when the electromagnet is deactivated and - when the control chamber (13; 43) is filled, the float closes the second water outlet when the electromagnet is activated, wherein - the float is a magnetisable float and - a magnetic field is able to be generated in the control chamber (13; 43) by means of the activated electromagnet, said magnetic field being designed to be at least approximately homogenous along at least one portion of a path of the float, characterised in that the electromagnet comprises two pole shoes arranged on the outer face of the control chamber (13; 43), the shape thereof following the path of the float. - a control chamber (13; 43) with a float arranged therein, a water inlet, a first water outlet and a second water outlet, and - an electromagnet arranged on the control chamber (13; 43), - when the control chamber (13; 43) is empty, the float releases the first water outlet and the second water outlet, - when the control chamber (13; 43) is filled, the float closes the first water outlet when the electromagnet is deactivated and - when the control chamber (13; 43) is filled, the float closes the second water outlet when the electromagnet is activated, - the float is a magnetisable float and - a magnetic field is able to be generated in the control chamber (13; 43) by means of the activated electromagnet, said magnetic field being designed to be at least approximately homogenous along at least one portion of a path of the float,
A process for preparing a printing form comprising: a) applying a solvent-free curable composition to form a layer on a supporting substrate, the solvent-free curable composition comprising: i) an epoxy novolac resin; ii) a bisphenol-A epoxy resin or a bisphenol-F epoxy resin; iii) a monofunctional reactive diluent; iv) a multifunctional reactive diluent; and, v) a stoichiometric amount of a multifunctional amine curing agent; wherein i) and ii) together are at least 70 wt % of i), ii), iii),and iv) together; and the ratio of i) to ii) is 1:3 to 3:1 by weight; b) curing the layer at one or more temperatures in a range of room temperature to 250° C; and c) engraving at least one cell in the layer resulting from step b). a) applying a solvent-free curable composition to form a layer on a supporting substrate, the solvent-free curable composition comprising: i) an epoxy novolac resin; ii) a bisphenol-A epoxy resin or a bisphenol-F epoxy resin; iii) a monofunctional reactive diluent; iv) a multifunctional reactive diluent; and, v) a stoichiometric amount of a multifunctional amine curing agent; wherein i) and ii) together are at least 70 wt % of i), ii), iii),and iv) together; and the ratio of i) to ii) is 1:3 to 3:1 by weight; i) an epoxy novolac resin; ii) a bisphenol-A epoxy resin or a bisphenol-F epoxy resin; iii) a monofunctional reactive diluent; iv) a multifunctional reactive diluent; and, v) a stoichiometric amount of a multifunctional amine curing agent; wherein i) and ii) together are at least 70 wt % of i), ii), iii),and iv) together; and the ratio of i) to ii) is 1:3 to 3:1 by weight; b) curing the layer at one or more temperatures in a range of room temperature to 250° C; and c) engraving at least one cell in the layer resulting from step b).
Conveying system comprising a track, a plurality of carriages to be conveyed on the track, each carriage comprising: a main body which is held along the track; a receptacle rotatably supported by the main body and configured for receiving a product, and a pulley rotatably supported by the main body to rotate with the receptacle, and a receptacle-rotating member advanceable at a defined advancing speed, along a region provided at at least a portion of the track, wherein the receptacle-rotating member is one of: a belt, a roller chain and a rotatable corkscrew-like member, wherein each carriage can be in engagement, via its pulley, with the receptacle-rotating member, wherein said engagement is conditional on the respective carriage being in the region, wherein the rotational orientation of the receptacle of each carriage relative to the carriage's main body is controllable by controlling a difference between a conveyance speed of the carriage and the advancing speed of the receptacle-rotating member, characterized in that the conveying system is configured to control the rotational orientation of the receptacle of each carriage relative to the carriage's main body by controlling each carriage's conveyance speed in the region independently of the conveyance speeds of the other carriages. a track, a plurality of carriages to be conveyed on the track, each carriage comprising: a main body which is held along the track; a receptacle rotatably supported by the main body and configured for receiving a product, and a pulley rotatably supported by the main body to rotate with the receptacle, and a receptacle-rotating member advanceable at a defined advancing speed, along a region provided at at least a portion of the track, wherein the receptacle-rotating member is one of: a belt, a roller chain and a rotatable corkscrew-like member, wherein each carriage can be in engagement, via its pulley, with the receptacle-rotating member, wherein said engagement is conditional on the respective carriage being in the region, wherein the rotational orientation of the receptacle of each carriage relative to the carriage's main body is controllable by controlling a difference between a conveyance speed of the carriage and the advancing speed of the receptacle-rotating member, characterized in that the conveying system is configured to control the rotational orientation of the receptacle of each carriage relative to the carriage's main body by controlling each carriage's conveyance speed in the region independently of the conveyance speeds of the other carriages.
A method to manage workload memory allocation for a platform comprising a primary memory and a secondary memory, the secondary memory having a lower latency or a higher bandwidth than the primary memory, the method comprising: executing a workload on the platform, wherein the workload includes executable binary code, and wherein, during execution of the workload, data arrays are processed by a processor of the platform and stored in the primary memory and/or the secondary memory; identifying instances of data array access attempts to the primary memory; counting a number of the instances each data array attempts a memory access; selecting one of said data arrays for reallocation from the primary memory to the secondary memory if the number of the memory access attempts per unit of time of that data array exceeds a threshold value; reallocating the selected data array from the primary memory to the secondary memory when the secondary memory has space for the selected data array; modifying code associated with the selected data array; and generating a new executable binary code based on the modified code for a subsequent workload execution. executing a workload on the platform, wherein the workload includes executable binary code, and wherein, during execution of the workload, data arrays are processed by a processor of the platform and stored in the primary memory and/or the secondary memory; identifying instances of data array access attempts to the primary memory; counting a number of the instances each data array attempts a memory access; selecting one of said data arrays for reallocation from the primary memory to the secondary memory if the number of the memory access attempts per unit of time of that data array exceeds a threshold value; reallocating the selected data array from the primary memory to the secondary memory when the secondary memory has space for the selected data array; modifying code associated with the selected data array; and generating a new executable binary code based on the modified code for a subsequent workload execution.
Painting robot, in particular for painting motor vehicle body components, comprising a) a proximal robot arm, b) a distal robot, which is mounted on the end of the proximal robot arm, c) a robot wrist for guiding an application device, in particular a rotary atomizer, wherein the robot wrist is mounted on the end of the distal robot arm, d) a supply tube (16', 17'), in particular for the compressed air supply of a turbine in a rotary atomizer or for the supply of an atomizer with a liquid medium such as paint or rinsing agent or for the supply of an atomizer with guide air, with d1) an upstream tube section and d2) a downstream tube section, d4) while the supply tube (16', 17') runs through the distal robot arm and through the robot wrist to the application device, e) wherein the upstream tube section has a larger internal cross section than the downstream tube section, characterized in that d3) the whole supply tube (16', 17') is formed as one piece, f) the downstream tube section with the smaller internal cross section is essentially limited to the robot wrist, and g) the upstream tube section with the larger internal cross section essentially extends over the whole distal robot arm or at least a major portion thereof. a) a proximal robot arm, b) a distal robot, which is mounted on the end of the proximal robot arm, c) a robot wrist for guiding an application device, in particular a rotary atomizer, wherein the robot wrist is mounted on the end of the distal robot arm, d) a supply tube (16', 17'), in particular for the compressed air supply of a turbine in a rotary atomizer or for the supply of an atomizer with a liquid medium such as paint or rinsing agent or for the supply of an atomizer with guide air, with d1) an upstream tube section and d2) a downstream tube section, d4) while the supply tube (16', 17') runs through the distal robot arm and through the robot wrist to the application device, d1) an upstream tube section and d2) a downstream tube section, d4) while the supply tube (16', 17') runs through the distal robot arm and through the robot wrist to the application device, e) wherein the upstream tube section has a larger internal cross section than the downstream tube section, characterized in that d3) the whole supply tube (16', 17') is formed as one piece, f) the downstream tube section with the smaller internal cross section is essentially limited to the robot wrist, and g) the upstream tube section with the larger internal cross section essentially extends over the whole distal robot arm or at least a major portion thereof.
Apparatus configured to provide a functionality to a small form-factor pluggable module having a connector that may be plugged into a cage socket of an SFP cage, the apparatus comprising: a first connector configured to be inserted into a cage socket, the cage socket configured to receive a connector of a conventional SFP module; processing functionality circuitry (107, 250) that is electrically connected to the connector and provides the functionality; and a socket electrically connected to the functionality circuitry, and configured to receive the connector of the conventional SFP module, and to electrically connect the conventional SFP module to the functionality circuitry. a first connector configured to be inserted into a cage socket, the cage socket configured to receive a connector of a conventional SFP module; processing functionality circuitry (107, 250) that is electrically connected to the connector and provides the functionality; and a socket electrically connected to the functionality circuitry, and configured to receive the connector of the conventional SFP module, and to electrically connect the conventional SFP module to the functionality circuitry.
A brake caliper for an automobile vehicle, for overlapping an outer edge of a brake disk, comprising a first pad and a second pad to be located on either side of the disk, each pad (7, 8) having a base (9, 19) through which it is swingably mounted in the caliper and a free end (11, 21) for protruding from the outer edge of the disk, characterised in that the caliper comprises an actuator comprising an electric motor, a mechanical axis translationally movable along its own longitudinal direction (AX') and passing through the ends (11, 21) of the pads (7, 8), a pinion as well as a first stop and a second stop carried by the mechanical axis, the first and second stops (27, 28) adjoining the first pad and the second pad respectively to enclose them, wherein the pinion is rigidly integral with the mechanical axis and one of the stops (27, 28) is rotatably locked and screwed on this mechanical axis, and wherein the electric motor rotatably drives the pinion through a reducer to move these stops closer to and away from each other based on whether the brake is activated or deactivated.
An orthopaedic implant (200, 300), comprising: an implant body (204, 304) comprising a biocompatible material and configured to be implanted at an anatomical location, said implant body (204, 304) defining a surface; and a porous material (202, 302) at least one of attached to and integral with said surface of said implant body (204, 304), said porous material having a plurality of grooves (206, 208, 306) formed therein; characterized in that: said implant body (204, 304) is a semi-spherical shell defining an apex and a bottom and at least a first groove of said plurality of grooves (206, 208, 306) extends in a helical manner from at least one of said apex towards said bottom and said bottom towards said apex. an implant body (204, 304) comprising a biocompatible material and configured to be implanted at an anatomical location, said implant body (204, 304) defining a surface; and a porous material (202, 302) at least one of attached to and integral with said surface of said implant body (204, 304), said porous material having a plurality of grooves (206, 208, 306) formed therein; characterized in that: said implant body (204, 304) is a semi-spherical shell defining an apex and a bottom and at least a first groove of said plurality of grooves (206, 208, 306) extends in a helical manner from at least one of said apex towards said bottom and said bottom towards said apex.
Method for controlling a data interchange between a control apparatus of a motor vehicle and an external apparatus, wherein the control apparatus is used to perform a plurality of vehicle functions with each of which is associated at least one subservice which is provided for use by a plurality of vehicle functions and on the basis of which the respective vehicle function is performed; characterised in that by means of the at least one subservice, the data interchange between the control apparatus and the external apparatus is effected independently and irrespective of whether the vehicle function is currently activated or deactivated, wherein, due to the activated subservice, even if the vehicle function is not currently being controlled, a corresponding data collection as well as a data transmission from the control apparatus of the motor vehicle to the external apparatus occurs, comprising the steps: - if the control apparatus receives a deactivation signal for at least one of the vehicle functions, the control apparatus deactivates this at least one vehicle function and checks whether the at least one subservice associated with the deactivated vehicle function is associated with at least one other vehicle function that is currently activated; and - if the at least one subservice is not associated with a currently activated vehicle function, the control apparatus deactivates this at least one subservice and thereby terminates the data interchange effected by means of the at least one subservice between the control apparatus and the external device; wherein a link between each vehicle function with the respective at least one subservice is stored in the control apparatus and the control apparatus checks, on the basis of the stored link, whether the at least one subservice associated with the deactivated vehicle function is associated with at least one other vehicle function which is currently activated. - if the control apparatus receives a deactivation signal for at least one of the vehicle functions, the control apparatus deactivates this at least one vehicle function and checks whether the at least one subservice associated with the deactivated vehicle function is associated with at least one other vehicle function that is currently activated; and - if the at least one subservice is not associated with a currently activated vehicle function, the control apparatus deactivates this at least one subservice and thereby terminates the data interchange effected by means of the at least one subservice between the control apparatus and the external device;
Method for manufacturing a tear line in the rear side of an interior trim material for vehicles which preferably in at least one section is made of plastic, using an apparatus, which apparatus comprises: a support by which the covering material can be supported, and a tool which is mounted at a distance thereabove and can be moved back and forth by motor in the direction of the support and which can be sunk in the rear side of the covering material and moved forwards, following the path of the desired tear line, wherein the back and forth movement of the tool is caused at a frequency from 16 to 70 kHz, preferably 18 to 40 kHz, characterised in that the tool is formed by a drill bit, which drill bit, seen parallel to the direction of the back and forth movement, has a point angle which becomes increasingly larger in the direction of the cutting edge. a support by which the covering material can be supported, and a tool which is mounted at a distance thereabove and can be moved back and forth by motor in the direction of the support and which can be sunk in the rear side of the covering material and moved forwards, following the path of the desired tear line, wherein the back and forth movement of the tool is caused at a frequency from 16 to 70 kHz, preferably 18 to 40 kHz, characterised in that the tool is formed by a drill bit, which drill bit, seen parallel to the direction of the back and forth movement, has a point angle which becomes increasingly larger in the direction of the cutting edge.