mhurhangee/ep-ind-claims huggingface dataset:
Method of handling communication from a mobile terminal in a communication network for communication via circuit-switched domain and packet-switched domain of the communication network, wherein at least one information element is provided to the mobile terminal, which comprises instructions on usage of Mobile Originating circuit-switched (MO-CS) services in case of unavailability of the packet-switched network and in that instructions from the information element are used when trying to start an Mobile Originating circuit-switched (MO-CS) service from the mobile terminal after detection of unavailability of the PS network, characterized in that the information element is included in an Accept message from the mobility management entity, namely in an Attach Accept message or a Tracking Area Update message of the initial attach or tracking area update procedure of the UE at the packet switched network, is transmitted to the mobile terminal and is stored at the mobile terminal.
A system for storing information, comprising: an interface that receives an input stream of information, wherein the stream of information includes a sequence of segments, data in each of the segments comprises a sequence of integer values where each integer value is represented using a number of bytes; a processor coupled to the interface and configured to: perform a format identification process to identify breakpoints between each of the segments and select a correct format identifier for a segment when a fitting penalty is determined to be lowest for a format identifier applied to the segment; determine whether numeric values of the stream of information satisfy a continuity property based on how the stream of information fits a particular format identifier, wherein each format identifier used in the format identification process comprises different values forming a tuple including: a data representation size, k, corresponding to the number of bytes used to store the values, a group size, t, corresponding to a number of channels, where t is greater than one, and a number of bytes for an alignment, a, between values of corresponding segments and, as the continuity property, a fitting penalty is assigned to various choices of the tuples (k,t,a) based on the difference between respective consecutive values of each channel; and compress at least a portion of the stream of information using a compression technique selected based on the continuity property and the correct format identifier to produce a compressed stream; and a memory that stores the compressed stream. an interface that receives an input stream of information, wherein the stream of information includes a sequence of segments, data in each of the segments comprises a sequence of integer values where each integer value is represented using a number of bytes; a processor coupled to the interface and configured to: perform a format identification process to identify breakpoints between each of the segments and select a correct format identifier for a segment when a fitting penalty is determined to be lowest for a format identifier applied to the segment; determine whether numeric values of the stream of information satisfy a continuity property based on how the stream of information fits a particular format identifier, wherein each format identifier used in the format identification process comprises different values forming a tuple including: a data representation size, k, corresponding to the number of bytes used to store the values, a group size, t, corresponding to a number of channels, where t is greater than one, and a number of bytes for an alignment, a, between values of corresponding segments and, as the continuity property, a fitting penalty is assigned to various choices of the tuples (k,t,a) based on the difference between respective consecutive values of each channel; and compress at least a portion of the stream of information using a compression technique selected based on the continuity property and the correct format identifier to produce a compressed stream; and a memory that stores the compressed stream.
An apparatus for the industrial measurement of bores in a measurement object (11, 11'), in particular a workpiece, having a measurement probe which can be introduced into the bore and at which at least one distance sensor is provided with which the instantaneous distance of a reference point of the measurement probe from a wall of the bore can be determined, wherein the measurement probe is rotatably supported at a holder (12, 12') which is fixed with respect to the measurement object (M, M') and/or whose position relative to the measurement object (11, 11') is known, and wherein an evaluation device of the apparatus is designed to receive a number of sequentially determined distances in the course of a rotation of the measurement probe, characterized in that the apparatus has means for determining the inclination of the measurement probe relative to the holder (12, 12') and correction means for compensating own movements and error positions of the measurement probe with reference to the inclination.
A mobile terminal, comprising: a main body, defining a chamber; a rotating member, received in the chamber and rotatably connected to the main body; a sliding mechanism, comprising a sliding rail and a sliding member matching with the sliding rail; wherein the sliding rail is arranged on one of the main body and the rotating member, the sliding member is arranged on the other one of the main body and the rotating member; wherein the sliding member is capable of sliding in and relative to the sliding rail; and a driving mechanism, configured to drive the rotating member to rotate out and into the chamber; characterized in that the sliding rail is an arc-shaped groove, and the sliding member is a restriction post inserted into the arc-shaped groove; wherein a rotation axis of the rotating member coincides with a center of an arc of the arc-shaped groove. a main body, defining a chamber; a rotating member, received in the chamber and rotatably connected to the main body; a sliding mechanism, comprising a sliding rail and a sliding member matching with the sliding rail; wherein the sliding rail is arranged on one of the main body and the rotating member, the sliding member is arranged on the other one of the main body and the rotating member; wherein the sliding member is capable of sliding in and relative to the sliding rail; and a driving mechanism, configured to drive the rotating member to rotate out and into the chamber; characterized in that the sliding rail is an arc-shaped groove, and the sliding member is a restriction post inserted into the arc-shaped groove; wherein a rotation axis of the rotating member coincides with a center of an arc of the arc-shaped groove.
An illumination module, comprising a first heat dissipation means, a light engine arranged on the first heat dissipation means, and a second heat dissipation means connected to the first heat dissipation means, wherein the first heat dissipation means comprises at least one first heat dissipation structure configured as through hole, and the second heat dissipation means comprises at least one second heat dissipation structure, wherein the second heat dissipation structure comprises a heat dissipating hole opened on the second heat dissipation means and a protrusion consisting of a part to be removed from the second heat dissipation means for opening the heat dissipating hole, wherein the first heat dissipation means comprises an accommodation cavity, characterized in that the accommodation cavity is configured to protrude away from the illuminating direction of the illumination module to receive the light engine, and in that the second heat dissipation means is formed with a recessed portion, and the first heat dissipation means is connected to the second heat dissipation means in such a manner that the accommodation cavity is embedded into the recessed portion.
A method comprising: detecting that a first virtual port channel peer (504A, 614) is down, the first virtual port channel peer being paired with a second virtual port channel peer (504B, 616) to create a virtual port channel having a virtual address, wherein an endpoint host is configured to communicate with a network via the virtual port channel; setting a reachability cost for the first virtual port channel peer with regards to the virtual address to an inflated value, wherein the inflated value is an artificial reachability cost greater than an original cost metric such that the network is configured to prefer to route a packet, addressed to the virtual address, to the second virtual port channel peer instead of the first virtual port channel peer when the reachability cost for the first virtual port channel peer with regards to the virtual address is set to the inflated value; performing, at the first virtual port channel peer, a synchronization of virtual port channel state information with the second virtual port channel peer; and upon completion of the synchronization, lowering the reachability cost for the first virtual port channel peer. detecting that a first virtual port channel peer (504A, 614) is down, the first virtual port channel peer being paired with a second virtual port channel peer (504B, 616) to create a virtual port channel having a virtual address, wherein an endpoint host is configured to communicate with a network via the virtual port channel; setting a reachability cost for the first virtual port channel peer with regards to the virtual address to an inflated value, wherein the inflated value is an artificial reachability cost greater than an original cost metric such that the network is configured to prefer to route a packet, addressed to the virtual address, to the second virtual port channel peer instead of the first virtual port channel peer when the reachability cost for the first virtual port channel peer with regards to the virtual address is set to the inflated value; performing, at the first virtual port channel peer, a synchronization of virtual port channel state information with the second virtual port channel peer; and upon completion of the synchronization, lowering the reachability cost for the first virtual port channel peer.
A method of fault detection in synchronous machines; the method comprising: using at least one sensor to determine parameters linked to the magnetic field generated within the synchronous machine including parameters based on one or more of magnetic field strength, rotor current or voltage, stator current or voltage, and vibration; processing the sensor measurements to identify data artefacts linked to the magnetic field, wherein the processing includes one or more signal processing techniques based on time, frequency, and both time and frequency; and analysing the output of the signal processing in order to identify and categorise irregularities in the magnetic field that are indicative of a fault in the synchronous machine, wherein the analysing includes recognising patterns in the processed sensor measurements, via use of computer aided pattern recognition techniques such as via machine learning algorithms; characterized in that: the at least one sensor comprises one or more existing sensor(s) comprising one or more voltage or current sensor(s) configured for use during operation of the synchronous machine for monitoring and/or control of the machine; and the method is carried out during a time period in which there is a transient magnetic field of the type that arises during start-up or shut-down of the machine. using at least one sensor to determine parameters linked to the magnetic field generated within the synchronous machine including parameters based on one or more of magnetic field strength, rotor current or voltage, stator current or voltage, and vibration; processing the sensor measurements to identify data artefacts linked to the magnetic field, wherein the processing includes one or more signal processing techniques based on time, frequency, and both time and frequency; and analysing the output of the signal processing in order to identify and categorise irregularities in the magnetic field that are indicative of a fault in the synchronous machine, wherein the analysing includes recognising patterns in the processed sensor measurements, via use of computer aided pattern recognition techniques such as via machine learning algorithms; characterized in that: the at least one sensor comprises one or more existing sensor(s) comprising one or more voltage or current sensor(s) configured for use during operation of the synchronous machine for monitoring and/or control of the machine; and the method is carried out during a time period in which there is a transient magnetic field of the type that arises during start-up or shut-down of the machine. the at least one sensor comprises one or more existing sensor(s) comprising one or more voltage or current sensor(s) configured for use during operation of the synchronous machine for monitoring and/or control of the machine; and the method is carried out during a time period in which there is a transient magnetic field of the type that arises during start-up or shut-down of the machine.
A method for managing quality of service, QoS, information in a fibre channel fabric, the method comprising: identifying a first plurality of devices in a first zone in the fibre channel fabric; subsequently, assigning a first quality of service level to the first zone, wherein assigning the first quality of service level to the first zone comprises assigning the first quality of service level to communications between the first plurality of devices; identifying a second plurality of devices in a second zone in the fibre channel fabric; and subsequently, assigning a second quality of service level to the second zone, wherein assigning the second quality of service level to the second zone comprises assigning the second quality of service level to communications between the second plurality of devices. identifying a first plurality of devices in a first zone in the fibre channel fabric; subsequently, assigning a first quality of service level to the first zone, wherein assigning the first quality of service level to the first zone comprises assigning the first quality of service level to communications between the first plurality of devices; identifying a second plurality of devices in a second zone in the fibre channel fabric; and subsequently, assigning a second quality of service level to the second zone, wherein assigning the second quality of service level to the second zone comprises assigning the second quality of service level to communications between the second plurality of devices.
Partition wall for a hydromount having a supporting spring made of an elastomer between a supporting bearing and a support, a working chamber and a compensation chamber which are separated from one another by the partition wall made of two rigid nozzle discs (9, 10) with a flexible elastic diaphragm inserted between them, wherein the chambers (6, 7) are hydraulically connected to one another via a damping channel, wherein the diaphragm is clamped between the nozzle discs (9, 10) in predetermined regions and is arranged with axial play in regions adjacent to the predetermined clamped regions, and wherein the clamped regions sectorally comprise at least the outer periphery and the surfaces of the nozzle discs (9, 10) located between the peripheral sector and the centre of the partition wall, characterised in that the regions with play are formed by recesses on the inside of the wall of at least one of the nozzle discs.
An electronic device, comprising: a battery; a housing assembly, comprising: a first housing having a left side wall, a right side wall opposite the left side wall, and a bottom wall connecting the left side wall with the right side wall; a second housing, the second housing and the first housing corporately defining a receptacle receiving the battery; and two reinforcing features spaced apart from each other; and a display unit, whereby the two reinforcing features are embedded in the second housing, each of the two reinforcing features has a circular cross section, the two reinforcing features each extend along a length direction of the receptacle, one reinforcing feature is located at a left side of the receptacle, adjacent to the left side wall and a left side of the battery, and interposed between the left side wall and the left side of the battery, and the other reinforcing feature is located at a right side of the receptacle, adjacent to the right side wall and a right side of the battery, and interposed between the right side wall and the right side of the battery, the display unit is embedded in a front face of the housing assembly, and the two reinforcing features are arranged at two sides of the battery, and longitudinal axes of the two reinforcing features are in one plane, and a longitudinal central axis of the battery is in the same one plane. a battery; a housing assembly, comprising: a first housing having a left side wall, a right side wall opposite the left side wall, and a bottom wall connecting the left side wall with the right side wall; a second housing, the second housing and the first housing corporately defining a receptacle receiving the battery; and two reinforcing features spaced apart from each other; and a first housing having a left side wall, a right side wall opposite the left side wall, and a bottom wall connecting the left side wall with the right side wall; a second housing, the second housing and the first housing corporately defining a receptacle receiving the battery; and two reinforcing features spaced apart from each other; and a display unit, whereby the two reinforcing features are embedded in the second housing, each of the two reinforcing features has a circular cross section, the two reinforcing features each extend along a length direction of the receptacle, one reinforcing feature is located at a left side of the receptacle, adjacent to the left side wall and a left side of the battery, and interposed between the left side wall and the left side of the battery, and the other reinforcing feature is located at a right side of the receptacle, adjacent to the right side wall and a right side of the battery, and interposed between the right side wall and the right side of the battery, the display unit is embedded in a front face of the housing assembly, and the two reinforcing features are arranged at two sides of the battery, and longitudinal axes of the two reinforcing features are in one plane, and a longitudinal central axis of the battery is in the same one plane.
A method for mapping of at least one logical channel onto a radio frequency channel in a wireless broadcast system, the method comprising: mapping service data onto multiple physical layer pipes, PLPs, wherein each of the multiple PLPs includes arranged multiple data streams; generating at least one logical frame by mapping the multiple PLPs onto the at least one logical frame, wherein each of the at least one logical frame includes PLPs selected among the multiple PLPs and a signaling field including information on the PLPs in each of the at least one logical frame, characterised in that the method further comprises the steps of: determining a logical channel type of a first logical channel defined as a sequence of the at least one logical frame, from a plurality of logical channel types; and generating at least one physical frame on at least one radio frequency, RF, channel by mapping the at least one logical frame in the first logical channel to the at least one physical frame according to the logical channel type of the first logical channel, wherein the logical channel type indicates a mapping relation between one or more logical frames in a logical channel and one or more physical frames on one or more RF channels, wherein the plurality of logical channel types are classified based at least in part on whether a logical frame in a logical channel is mapped to a single physical frame. mapping service data onto multiple physical layer pipes, PLPs, wherein each of the multiple PLPs includes arranged multiple data streams; generating at least one logical frame by mapping the multiple PLPs onto the at least one logical frame, wherein each of the at least one logical frame includes PLPs selected among the multiple PLPs and a signaling field including information on the PLPs in each of the at least one logical frame, determining a logical channel type of a first logical channel defined as a sequence of the at least one logical frame, from a plurality of logical channel types; and generating at least one physical frame on at least one radio frequency, RF, channel by mapping the at least one logical frame in the first logical channel to the at least one physical frame according to the logical channel type of the first logical channel, wherein the logical channel type indicates a mapping relation between one or more logical frames in a logical channel and one or more physical frames on one or more RF channels, wherein the plurality of logical channel types are classified based at least in part on whether a logical frame in a logical channel is mapped to a single physical frame.
An integrated optical probe card for batch testing optical MEMS structures, comprising: a source configured to generate an input beam and to provide the input beam towards an optical MEMS structure, wherein the optical MEMS structure comprises an in-plane optical axis; a detector optically coupled to receive an output beam from the optical MEMS structure; characterized in that it further comprises a micro-optical bench component integrated on the integrated optical probe card and optically coupled to receive the input beam propagating from the source and to redirect the input beam from an out-of-plane direction perpendicular to the in-plane optical axis to an in-plane direction comprising the in-plane optical axis of the optical MEMS structure to inject the input beam into the optical MEMS structure in the in-plane direction, wherein the micro-optical bench component is further optically coupled to receive the output beam propagating in the in-plane direction from the optical MEMS structure and to redirect the output beam from the in-plane direction to the out-of-plane direction for propagating towards the detector. a source configured to generate an input beam and to provide the input beam towards an optical MEMS structure, wherein the optical MEMS structure comprises an in-plane optical axis; a detector optically coupled to receive an output beam from the optical MEMS structure; characterized in that it further comprises a micro-optical bench component integrated on the integrated optical probe card and optically coupled to receive the input beam propagating from the source and to redirect the input beam from an out-of-plane direction perpendicular to the in-plane optical axis to an in-plane direction comprising the in-plane optical axis of the optical MEMS structure to inject the input beam into the optical MEMS structure in the in-plane direction, wherein the micro-optical bench component is further optically coupled to receive the output beam propagating in the in-plane direction from the optical MEMS structure and to redirect the output beam from the in-plane direction to the out-of-plane direction for propagating towards the detector.