mhurhangee/ep-ind-claims huggingface dataset:
Joining head for joining studs having a radially projecting flange section to workpieces, comprising a holding device for holding a stud and a shank-clamping device, wherein the shank-clamping device is designed in order to accommodate a shank section of the stud by means of a shank-locating section, wherein the shank-clamping device comprises a plurality of radially elastic arms which narrow at their respective free end in such a way that they form an insertion cone, said insertion cone forming a centring section, wherein the holding device comprises a collet component which has a clamping section and a hollow insertion section, wherein a stud can be inserted via the insertion section to the clamping section, wherein the clamping section is formed by clamping surfaces which are provided at the free ends of a plurality of clamping arms and which are designed in order to exert a radially inwardly directed clamping force for clamping the stud in place, and wherein a securing device, past which a flange section of the stud can be directed, is arranged on the insertion section and is designed with respect to the clamping section in such a way that a flange section which is directed past the securing device is mounted in a secured manner in a securing position between the securing device and the clamping section, characterized in that a groove is provided radially on the outside on the shank-locating section, and in that the clamping arms are of the same length and at least two of the clamping arms each have, as securing device, a radially inwardly directed securing lug designed in order to exert a radially inwardly directed force on the outer surface of the centring section for preventing the stud from falling out of the holding device when the stud is pushed through past the clamping surfaces by means of the shank clamping device.
A method of selecting an inter-radio access technology for an electronic device, the method comprising: determining that a first radio signal strength associated with a first radio access technology is below a first threshold; measuring a second radio signal strength associated with a second radio access technology in response to the first radio signal strength being below the first threshold; selecting the second radio access technology if the second radio signal strength is above a second threshold; setting a back-off timer if the second radio signal strength is not above the second threshold; measuring a third radio signal strength associated with the second radio access technology in response to the back-off timer expiring; and determining that the electronic device is stationary; and waiting until the electronic device is in motion to measure a fourth radio signal strength associated with the second radio access technology. determining that a first radio signal strength associated with a first radio access technology is below a first threshold; measuring a second radio signal strength associated with a second radio access technology in response to the first radio signal strength being below the first threshold; selecting the second radio access technology if the second radio signal strength is above a second threshold; setting a back-off timer if the second radio signal strength is not above the second threshold; measuring a third radio signal strength associated with the second radio access technology in response to the back-off timer expiring; and determining that the electronic device is stationary; and waiting until the electronic device is in motion to measure a fourth radio signal strength associated with the second radio access technology.
A refrigeration system, comprising: a refrigeration loop having a compressor, an exhaust port of the compressor, a condenser, a throttle element, an evaporator, and a suction port of the compressor that are connected in sequence by using a flow path, wherein a first valve is disposed between the throttle element and the condenser, and the first valve is at least capable of cutting off a refrigerant flow from the throttle element to the condenser; and a second valve is disposed close to the suction port of the compressor, and the second valve is used to control on/off of a flow path between the evaporator and the compressor; characterised in that the apparatus comprises a three-way valve that is disposed between the exhaust port of the compressor and the condenser; and a hot air bypass branch, wherein an outlet of the hot air bypass branch is connected to a flow path between the evaporator and the throttle element, and an inlet of the hot air bypass branch is connected to the three-way valve; wherein a third valve is disposed on the hot air bypass branch, and the third valve is at least capable of cutting off a refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch; and wherein the third valve is a one-way valve for cutting off the refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch. a refrigeration loop having a compressor, an exhaust port of the compressor, a condenser, a throttle element, an evaporator, and a suction port of the compressor that are connected in sequence by using a flow path, wherein a first valve is disposed between the throttle element and the condenser, and the first valve is at least capable of cutting off a refrigerant flow from the throttle element to the condenser; and a second valve is disposed close to the suction port of the compressor, and the second valve is used to control on/off of a flow path between the evaporator and the compressor; characterised in that the apparatus comprises a three-way valve that is disposed between the exhaust port of the compressor and the condenser; and a hot air bypass branch, wherein an outlet of the hot air bypass branch is connected to a flow path between the evaporator and the throttle element, and an inlet of the hot air bypass branch is connected to the three-way valve; wherein a third valve is disposed on the hot air bypass branch, and the third valve is at least capable of cutting off a refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch; and wherein the third valve is a one-way valve for cutting off the refrigerant flow from the outlet of the hot air bypass branch to the inlet of the hot air bypass branch.
A brassiere comprising a pair of cup sections, a joint linking together the front center sides of the cup sections, wing sections, and straps where its edges are connected between the pair of cup sections and the wing sections, and the brassiere having an anti-vibration section comprising one or more selected from the group consisting of: a sub-wing section joined to a body section at both a first region on a portion of the cup section and a second region on a portion of the wing section, wherein when the brassiere is situated so that a line segment extending from a bust top of the cup section to a back center of the wing section is longest, and a plane is defined having a normal in the same direction as the line segment, two joining sections (107aS, 107bS) are present between the sub-wing section and the body section, a first joining section on the plane at a location 5 % to 25 % on the line segment from the bust top toward the back center and a second joining section on the plane at a location 55% to 90% on the line segment from the bust top toward the back center, and the sub-wing section has a region that is not joined to the body section, an upper edge high-stress section in the cup section, the upper edge high-stress section extending along the top edge of the cup, the ratio S2/S1 between the expansion stress S2 of the upper edge high-stress section and the expansion stress S1 of the cup center section being between 2/1 and 400/1, and a lower edge high-stress section in the cup section, the lower edge high-stress section extending along the cup lower edge, the ratio S3/S1 between the expansion stress S3 of the lower edge high-stress section and the expansion stress S1 of the cup center section being between 2/1 and 400/1. a sub-wing section joined to a body section at both a first region on a portion of the cup section and a second region on a portion of the wing section, wherein when the brassiere is situated so that a line segment extending from a bust top of the cup section to a back center of the wing section is longest, and a plane is defined having a normal in the same direction as the line segment, two joining sections (107aS, 107bS) are present between the sub-wing section and the body section, a first joining section on the plane at a location 5 % to 25 % on the line segment from the bust top toward the back center and a second joining section on the plane at a location 55% to 90% on the line segment from the bust top toward the back center, and the sub-wing section has a region that is not joined to the body section, an upper edge high-stress section in the cup section, the upper edge high-stress section extending along the top edge of the cup, the ratio S2/S1 between the expansion stress S2 of the upper edge high-stress section and the expansion stress S1 of the cup center section being between 2/1 and 400/1, and a lower edge high-stress section in the cup section, the lower edge high-stress section extending along the cup lower edge, the ratio S3/S1 between the expansion stress S3 of the lower edge high-stress section and the expansion stress S1 of the cup center section being between 2/1 and 400/1.
Method for supporting selection of PDN connections for a mobile terminal, wherein said mobile terminal is connected to an access point using a radio access technology, and wherein said mobile terminal is in active mode having at least one ongoing session to an APN via a PDN gateway - first PDN gateway -, characterized in the steps of monitoring whether a more suitable PDN gateway - second PDN gateway - than said first PDN gateway becomes available for said mobile terminal, if available, establishing any new sessions of said mobile terminal to said APN via an access point using said radio access technology by establishing a new PDN connection to said second PDN gateway, while keeping already ongoing sessions associated with the existing PDN connection to said first PDN gateway.
Method for selecting an operating mode of a cable modem between first and second operating modes, the first operating mode allowing reception of data in a downlink occupying a first frequency band and the transmission of data in an uplink occupying a second frequency band, the first and second frequency bands being separated by a third frequency band, the second operating mode allowing the reception of data in a downlink occupying a fourth frequency band and the transmission of data in an uplink occupying a fifth frequency band, the fourth and fifth frequency bands being separated by a sixth frequency band, the third frequency band lying in the fifth frequency band and the sixth frequency band lying in the first frequency band, the data transmitted and received being in accordance with a first and/or second standard, characterised in that the method comprises the steps, performed by the cable modem, of: - setting the cable modem in the second operating mode, - analysing the signals included in at least the part of the fifth frequency band comprising the third frequency band, - determining whether signals analysed are not signals in accordance with the first or second standard, - setting the cable modem in a data transmission and reception mode according to the second standard if signals analysed are not signals in accordance with the first and second standards and are not included in the third frequency band. - setting the cable modem in the second operating mode, - analysing the signals included in at least the part of the fifth frequency band comprising the third frequency band, - determining whether signals analysed are not signals in accordance with the first or second standard, - setting the cable modem in a data transmission and reception mode according to the second standard if signals analysed are not signals in accordance with the first and second standards and are not included in the third frequency band.
A presence counting device for a zone called an MBS or Multicast Broadcast Service zone, for distributing a data or content broadcasting service via multiple base stations of a wireless local communication network i) including at least one access network (RAi), comprising at least one service flow authorization agent, able to evaluate service requests coming from users of communication terminals based on their user profiles, and at least one base station, and ii) in which is defined at least one MBS zone associated with a zone identifier and with an MBS service server through which all of the traffic data intended for said MBS zone travels, said zone encompassing at least one base station and containing at least one geographic messaging zone associated with a messaging controller able to store, for each terminal connected to said MBS zone, its last known position, a preferential base station and its assigned geographic messaging zone, the counting device being coupled to the MBS service server and to each service flow authorization agent of said MBS zone, and is arranged to receive information related to said terminals known and transmitted by those MBS service servers and service flow authorization agents, and to deduce from that received the number of terminals actually present in said MBS zone.
A magnetic resonance imaging apparatus comprising, in the following order with regard to the radial direction, an examination space, an innermost set of coils (208, 206, 204, 203) comprising primary gradient coils for generating magnetic field gradients along x-, y- and z- directions in the examination space; a set of secondary, shielding, gradient coils; and an outermost coil comprising a main magnetic field coil; wherein the primary gradient coils comprise, in order, an innermost x-axis gradient coil comprising current-carrying tubing having a coolant channel; a y-axis primary gradient coil; a second x-axis gradient coil electrically connected in series with the innermost x-axis coil said innermost x-axis gradient coil and said second x-axis gradient coil together forming the x-axis primary gradient coil as a current carrying coil split into two connected layers; and a z-axis primary gradient coil wherein the z-axis primary gradient coil comprises a coolant-carrying channel, wherein the innermost x-axis gradient coil is constructed of copper tubing and the second x-axis gradient coil is composed of a solid copper sheet that carries no coolant.
A computer implemented method of instantiating an encrypted disk image for a virtualised computer system comprising: providing a software component executing in a first virtual machine for instantiation in a first hypervisor, wherein the software component invokes a second hypervisor within the first virtual machine; and providing by the software component a basic input output system, BIOS, for the second hypervisor, the BIOS being configured to decrypt and load the encrypted disk image to instantiate the virtualised computer system as a second virtual machine in the second hypervisor and wherein the software component is further configured to migrate the second virtual machine at a runtime of the second virtual machine to the first hypervisor so as to provide a wholly encrypted disk image for the second virtual machine executing in the first hypervisor. providing a software component executing in a first virtual machine for instantiation in a first hypervisor, wherein the software component invokes a second hypervisor within the first virtual machine; and providing by the software component a basic input output system, BIOS, for the second hypervisor, the BIOS being configured to decrypt and load the encrypted disk image to instantiate the virtualised computer system as a second virtual machine in the second hypervisor and wherein the software component is further configured to migrate the second virtual machine at a runtime of the second virtual machine to the first hypervisor so as to provide a wholly encrypted disk image for the second virtual machine executing in the first hypervisor.
A navigation system for tracking an object, said navigation system comprising: an optical sensor; a tracker (44, 46, 48) for mounting to the object, said tracker (44, 46, 48) including three markers and a non-optical sensor, wherein said optical sensor is configured to receive optical signals sequentially from said markers and said non-optical sensor is configured to generate non-optical signals; and a computing system configured to: determine a position of a first of said markers at a first time based on a first optical signal from said first marker; characterised in that the computer system is further configured to: determine a position of each of a second and a third (50b; 50c) of said markers at said first time based on said first optical signal and a non-optical signal from said non-optical sensor; and correlate said determined positions of said first, second, and third (50b; 50c) markers to the object to track a position of the object. an optical sensor; a tracker (44, 46, 48) for mounting to the object, said tracker (44, 46, 48) including three markers and a non-optical sensor, wherein said optical sensor is configured to receive optical signals sequentially from said markers and said non-optical sensor is configured to generate non-optical signals; and a computing system configured to: determine a position of a first of said markers at a first time based on a first optical signal from said first marker; characterised in that the computer system is further configured to: determine a position of each of a second and a third (50b; 50c) of said markers at said first time based on said first optical signal and a non-optical signal from said non-optical sensor; and correlate said determined positions of said first, second, and third (50b; 50c) markers to the object to track a position of the object. determine a position of each of a second and a third (50b; 50c) of said markers at said first time based on said first optical signal and a non-optical signal from said non-optical sensor; and correlate said determined positions of said first, second, and third (50b; 50c) markers to the object to track a position of the object.
Method for providing vehicle functions in a motor vehicle, wherein a plurality of vehicle functions are executed in a computing device of the motor vehicle and each of the executed vehicle functions generates command data for at least one respective actuator of an actuator device of the motor vehicle, wherein the vehicle functions and the actuator device are coupled via an integration component and the vehicle functions respectively output the command data to the integration component by means of a respective actuator-independent call routine, characterised in that each of the vehicle functions is unable to generate actuator specific control data for the actuator device but instead calls the respective call routine of the integration component and passes the command data to this, which indicates what the respective actuator should do wherein there is a uniform protocol for the call routine such that the vehicle function is hardware independent, and replacing an actuator thus does not require the vehicle function to be adjusted, and the integration component converts the command data into the respective actuator-specific control data and transmits the control data to the respective actuator by means of an actuator-specific drive routine.
A top cover for a power battery, characterized in that, comprising a top cover plate, a first electrode unit and a second electrode unit, wherein the first electrode unit comprises a connecting plate, a deformable plate, an insulating piece and a current interrupt plate, an assembling hole is formed in the top cover plate, the current interrupt plate is in direct contact with the top cover plate, the connecting plate is insulated from the top cover plate through the insulating piece and is formed with an accommodating chamber, the accommodating chamber faces to the assembling hole, the deformable plate is attached to the connecting plate and closes a bottom of the accommodating chamber, and the deformable plate is electrically connected with the current interrupt plate, the second electrode unit is electrically insulated from the top cover plate, and the deformable plate is configured to uncouple from the current interrupt plate when an internal pressure of the power battery goes beyond a reference pressure.
Cooking appliance comprising at least one cooking chamber that can be heated by steam from at least one steam source, a plurality of cooking levels being provided in the cooking chamber for cooking food, a steam guide being provided which comprises a plurality of steam inlet openings at a plurality of steam inlet levels (14, 15, 16, 17) in order to evenly distribute the steam, characterised in that the steam inlet openings are arranged in pairs in one of the walls of the cooking chamber and are oriented so as to face laterally away from one another, said openings outputting the steam along at least one wall of the cooking chamber, the steam inlet openings being arranged such that the cooking levels can each be heated by steam from above and from below via at least one steam inlet opening in each case.
A method performed by a first client device of updating encrypted biometric data of a user, the encrypted biometric data to be updated having been previously captured by the first client device and registered at a trusted network node, being characterized in comprising: capturing biometric data of the user to be used for updating the registered encrypted biometric data; encrypting the captured biometric data using a key shared with a second client device which subsequently is to access the updated encrypted biometric data; creating a first authentication token associated with the encrypted biometric data, which first token is configured to comprise a secret to be shared between the second client device and the trusted network node upon the second client device requesting the updated encrypted biometric data, the second client device providing an authentication response to a received authentication challenge using a shared secret and the authentication challenge upon requesting the updated encrypted biometric data, wherein the shared secret having been received earlier from the trusted network node upon the second client device acquiring a previously registered encrypted biometric data; and submitting the encrypted biometric data and the first authentication token to the trusted network node over a secure communication channel. capturing biometric data of the user to be used for updating the registered encrypted biometric data; encrypting the captured biometric data using a key shared with a second client device which subsequently is to access the updated encrypted biometric data; creating a first authentication token associated with the encrypted biometric data, which first token is configured to comprise a secret to be shared between the second client device and the trusted network node upon the second client device requesting the updated encrypted biometric data, the second client device providing an authentication response to a received authentication challenge using a shared secret and the authentication challenge upon requesting the updated encrypted biometric data, wherein the shared secret having been received earlier from the trusted network node upon the second client device acquiring a previously registered encrypted biometric data; and submitting the encrypted biometric data and the first authentication token to the trusted network node over a secure communication channel.