mhurhangee/ep-ind-claims huggingface dataset:
A communication device for a long term evolution, LTE, communication system, the communication device comprising: a controller and a transceiver, wherein the controller is configured to control the communication device to: establish and engage in Voice over LTE, VoLTE, communication via a communication connection with a base station; obtain information indicating at least one criterion for determining whether VoLTE communication via the communication connection with the base station can be sustained; perform signal measurements for signals received from the base station; and determine whether VoLTE communication via the communication connection with the base station can be sustained based on whether or not the signal measurements meet the at least one criterion, wherein the determination of whether or not the signal measurements meet the at least one criterion is based on a comparison of said signal measurements with at least one threshold, the controller is further configured to control the communication device to receive assistance information to assist with selection of and/or connection to at least one non-LTE radio access technology, RAT, for establishing a voice call, the assistance information, in case of a target RAT is a Wireless Local Area Network, WLAN, includes information that allows the communication device to skip authentication in the WLAN security, and when moving from a network to the WLAN, the same credentials as used in the network and included in the assistance information are used to skip the authentication and connect to the WLAN. a controller and a transceiver, wherein the controller is configured to control the communication device to: establish and engage in Voice over LTE, VoLTE, communication via a communication connection with a base station; obtain information indicating at least one criterion for determining whether VoLTE communication via the communication connection with the base station can be sustained; perform signal measurements for signals received from the base station; and determine whether VoLTE communication via the communication connection with the base station can be sustained based on whether or not the signal measurements meet the at least one criterion, wherein the determination of whether or not the signal measurements meet the at least one criterion is based on a comparison of said signal measurements with at least one threshold, the controller is further configured to control the communication device to receive assistance information to assist with selection of and/or connection to at least one non-LTE radio access technology, RAT, for establishing a voice call, the assistance information, in case of a target RAT is a Wireless Local Area Network, WLAN, includes information that allows the communication device to skip authentication in the WLAN security, and when moving from a network to the WLAN, the same credentials as used in the network and included in the assistance information are used to skip the authentication and connect to the WLAN.
A mixture comprising a first composition comprising 95% w/w curcuminoids and a second composition comprising 20% w/w Garcinol for use in the therapeutic management of non-alcoholic fatty liver (NAFL) in a mammal.
Blade row of a continuous flow machine having at least one blade channel which is delimited in the peripheral direction (u) by a pressure-side wall of a blade leaf and by an opposite suction-side wall of an adjacent blade leaf, which is delimited in the radial direction (z) by two opposite boundary walls, and which is delimited in the direction of a main flow by leading edges (10a, 10b) and by trailing edges (12a, 12b) of the blade leaves (2a, 2b), wherein at least one of the boundary walls is provided with at least one suction-side recess and has at least one pressure-side elevation, wherein the suction-side recess is spaced apart from the suction-side wall in the peripheral direction (u) and is arranged with a section upstream and with a section downstream of the leading edges (10a, 10b), passes the pressure-side elevation in the pressure-side wall and is arranged in a front blade leaf region, and wherein a pressure-side recess is provided which is arranged upstream of the pressure-side elevation, characterised in that the suction-side recess, the pressure-side elevation and the pressure-side recess are spaced apart from one another by non-contoured boundary wall sections.
Arrangement of a trim element on a window pillar structure, by means of a fastening device, in a zone for joining to a roof lining in which the roof lining passes beneath the window pillar trim element, the trim element of the window pillar having a curved profile formed by a lateral part and a frontal part that are connected by a bent linking part, and the device comprising a fastening plate with a substantially longitudinal orientation, having an inner face connected to the window pillar structure and an opposite outer face provided: - with a first fastening means that is able to cooperate with a catching means carried by the lateral part of the window pillar trim element and with a second fastening means that is able to cooperate with a receiving means carried by the bent part of the window pillar trim element, - and with a first means (56, 560, 562) for pressing the roof lining into the lateral part of the trim of the window pillar, disposed between the fastening means and, and with a second means for pressing the roof lining into the frontal part of the window pillar trim element, the second pressing means extending from the front edge of the plate in the direction of the frontal part of the window pillar trim element, characterized in that the device has a third means for pressing the roof lining into the bent part of the window pillar trim element, disposed on the outer face of the plate above the second fastening means. - with a first fastening means that is able to cooperate with a catching means carried by the lateral part of the window pillar trim element and with a second fastening means that is able to cooperate with a receiving means carried by the bent part of the window pillar trim element, - and with a first means (56, 560, 562) for pressing the roof lining into the lateral part of the trim of the window pillar, disposed between the fastening means and, and with a second means for pressing the roof lining into the frontal part of the window pillar trim element, the second pressing means extending from the front edge of the plate in the direction of the frontal part of the window pillar trim element, characterized in that the device has a third means for pressing the roof lining into the bent part of the window pillar trim element, disposed on the outer face of the plate above the second fastening means.
A hydrant comprising a hydrant housing, a valve seat arranged inside said hydrant housing, a valve body resting against said valve seat when said hydrant is closed, characterized in that, said valve seat is arranged on an inner bayonet ring being connected to an outer bayonet ring through a bayonet coupling and wherein said outer bayonet ring is connected to said hydrant housing. a hydrant housing, a valve seat arranged inside said hydrant housing, a valve body resting against said valve seat when said hydrant is closed, characterized in that, said valve seat is arranged on an inner bayonet ring being connected to an outer bayonet ring through a bayonet coupling and wherein said outer bayonet ring is connected to said hydrant housing.
Pack for a cigarette group, comprising an inner pack, with an inner blank for wrapping the cigarette group, and having an outer pack designed in the form of a hinge-lid pack and comprising a box part, a lid, with a lid inner flap folded against the inner side of a lid front wall, and a collar, which is formed from a separate blank and has a collar front wall and collar side flaps, wherein the collar front wall forms a recess, which is open in the direction of the lid, or of an inner end wall of the inner pack, and in the region of which is arranged a closure label for opening and closing a removal opening of the inner pack, characterized in that the lid inner flap and the recess of the collar front wall are coordinated with one another in respect of size and/or (geometrical) shape and/or positioning, or position, such that the lid inner flap is located entirely within the recess when the lid is closed, and in that the closure label is connected to the lid inner flap by adhesive bonding.
A substrate for use in an electrophoretic light modulator, the substrate comprising: - multiple interlaced mesh electrodes (210, 230) extending in a two-dimensional pattern across the substrate, at least two mesh electrodes of the multiple mesh electrodes on the substrate crossing at a plurality of crossing points spread across the substrate, wherein the at least two mesh electrodes on the substrate each comprise multiple main lines extending in a first direction across the substrate, the multiple main lines of the at least two mesh electrodes being arranged alternatingly with respect to each other on the substrate, each of the at least two mesh electrodes comprising - multiple interconnecting lines electrically connecting the multiple main lines of the mesh electrode together, the multiple main lines of the mesh electrode being connected through the multiple interconnecting lines, the multiple interconnecting lines of the mesh electrode crossing with another mesh electrode on the substrate forming the plurality of crossing points, the multiple mesh electrodes being configured for an electric potential applied to the multiple mesh electrodes to obtain an electric field between the multiple mesh electrodes to provide electrophoretic movement of particles. - multiple interlaced mesh electrodes (210, 230) extending in a two-dimensional pattern across the substrate, at least two mesh electrodes of the multiple mesh electrodes on the substrate crossing at a plurality of crossing points spread across the substrate, wherein the at least two mesh electrodes on the substrate each comprise multiple main lines extending in a first direction across the substrate, the multiple main lines of the at least two mesh electrodes being arranged alternatingly with respect to each other on the substrate, each of the at least two mesh electrodes comprising - multiple interconnecting lines electrically connecting the multiple main lines of the mesh electrode together, the multiple main lines of the mesh electrode being connected through the multiple interconnecting lines, the multiple interconnecting lines of the mesh electrode crossing with another mesh electrode on the substrate forming the plurality of crossing points, the multiple mesh electrodes being configured for an electric potential applied to the multiple mesh electrodes to obtain an electric field between the multiple mesh electrodes to provide electrophoretic movement of particles.
Coupling element for a shift carriage for the shift-enabling transmission of a pivoting movement of a selector lever to a motor vehicle transmission, in particular to a motor vehicle automatic transmission, the coupling element comprising a passage for receiving a section of the selector lever, and a ring with a bore, into which the selector lever section can be introduced, the ring being introduced into a receptacle of the passage, which receptacle is configured to pivotably hold the ring, characterized by a stop in the region of the ring receptacle, which stop is set up to interact with a corresponding stop which is connected to the ring in a stationary manner, in order to limit a pivoting angle of the ring.
A hand-powered grease gun to inject grease into at least one operating aperture of an operating unit having a cylindrical main body, which has a chamber for a grease supply in its interior, a handle and an axially displaceable ejection piston on its control side, as well as a replaceable adapter on its operating side having at least one capillary tube, which is connected to the grease supply via a channel, wherein various adapters adapted to different operating units are provided, characterized in that for simultaneous filling of n>1 operating apertures the adapter comprises n>1 capillary tubes, which are arranged congruently to the n>1 operating apertures and have a diameter smaller than the diameter of the operating apertures, and n>1 channels and is constructed in two parts consisting of an adapter base, having the capillary tubes and the channels, and an adapter head with n>1 feedthroughs, which are arranged congruently to the n>1 capillary tubes, wherein the adapter base is arranged in the adapter head so as to be axially displaceable with the interposition of a spring.
Electromagnetic valve drive with a ferromagnetic yoke structure carrying at least one coil which may be supplied with electric current and containing two side yoke bodies (34a, 34b), spaced apart from one another and connected to one another in a magnetically conductive manner, with a pole plate unit conceived as an assembly, bridging the space between the two side yoke bodies (34a, 34b) and comprising two ferromagnetic pole plates (26a, 26b), each connected with one of the side yoke bodies (34a, 34b) in a magnetically conductive manner and with a magnetically non-conductive intermediate element arranged between them, and with an armature element arranged adjacent to the pole plate unit, overlapping the two pole plates (26a, 26b), and which may be driven by electrical activation of the coil to an operating movement varying the distance to the pole plate unit, characterised in that the two pole plates (26a, 26b) are separate from one another and arranged with clearance from one another, wherein they are permanently connected to one another through the intermediate element without direct mutual contact to form the pole plate unit.
A method for adjusting a reference voltage in a chip, the method comprising: decoding a default code configured in a reference voltage register in the chip to obtain an actual reference voltage; comparing the actual reference voltage with a benchmark value to obtain a deviation value between the two; configuring an adjustment code according to the deviation value; burning the adjustment code into a nonvolatile storage medium, sending the adjustment code when the chip is started; adjusting an active-voltage parameter of the chip to obtain an active-voltage configuration code for adjusting the active-voltage parameter; characterised by the method further comprising: decoding the adjustment code to obtain an output voltage when the chip is started; decoding the active-voltage configuration code to obtain an output voltage when a critical active voltage of the chip is being tested; and outputting the obtained output voltage. decoding a default code configured in a reference voltage register in the chip to obtain an actual reference voltage; comparing the actual reference voltage with a benchmark value to obtain a deviation value between the two; configuring an adjustment code according to the deviation value; burning the adjustment code into a nonvolatile storage medium, sending the adjustment code when the chip is started; adjusting an active-voltage parameter of the chip to obtain an active-voltage configuration code for adjusting the active-voltage parameter; characterised by the method further comprising: decoding the adjustment code to obtain an output voltage when the chip is started; decoding the active-voltage configuration code to obtain an output voltage when a critical active voltage of the chip is being tested; and outputting the obtained output voltage. decoding the adjustment code to obtain an output voltage when the chip is started; decoding the active-voltage configuration code to obtain an output voltage when a critical active voltage of the chip is being tested; and outputting the obtained output voltage.
An airfoil comprising: an airfoil body defining a longitudinal axis, the airfoil body including a leading edge and a trailing edge and a first side wall and a second side wall that is spaced apart from the first side wall, the first side wall and the second side wall joining the leading edge and the trailing edge and at least partially defining a cavity in the airfoil body; and a damper member enclosed in the cavity, the damper member including a first end and a second end, the first end being connected in a first joint to the first side wall at a first longitude inal location (L 1) and the second end being connected in a second joint to the second side wall at a second, different longitudinal location (L 2); characterised in that at least one of the first joint and the second joint is an articulated joint, the articulated joint including a socket and a socket member movably interlocked with the socket. an airfoil body defining a longitudinal axis, the airfoil body including a leading edge and a trailing edge and a first side wall and a second side wall that is spaced apart from the first side wall, the first side wall and the second side wall joining the leading edge and the trailing edge and at least partially defining a cavity in the airfoil body; and a damper member enclosed in the cavity, the damper member including a first end and a second end, the first end being connected in a first joint to the first side wall at a first longitude inal location (L 1) and the second end being connected in a second joint to the second side wall at a second, different longitudinal location (L 2); characterised in that at least one of the first joint and the second joint is an articulated joint, the articulated joint including a socket and a socket member movably interlocked with the socket.
Sheet material, comprising: - a sheet-like carrier material; and - at least one coating on at least one side of the sheet-like carrier material; wherein the coating comprises at least one cellulase and at least one dye; and the dye is black. - a sheet-like carrier material; and - at least one coating on at least one side of the sheet-like carrier material; wherein the coating comprises at least one cellulase and at least one dye; and the dye is black.
An applied-voltage electrical angle setting method for a synchronous motor, the method comprising: detecting an applied voltage applied to a stator coil of the synchronous motor, and a current flowing through the stator coil according to the applied voltage; calculating a present applied voltage phase (α) and calculating a current peak value (Ip) based on the detected applied voltage and current, and calculating a target current phase (βtarg) based on the current peak value (Ip) followed by calculating a target applied voltage phase (αtarg) corresponding to the target current phase (βtarg); and calculating a new applied voltage electrical angle instruction value (θvtarg), based on a change angle (Δθv) obtained by multiplying a difference between the present applied voltage phase (α) and the target applied voltage phase (αtarg) by a response time constant UR of the synchronous motor, where L is the inductance of the stator coil and R is the resistance of the stator coil, a rotational speed (w) calculated based on the detected applied voltage and current, and the previous applied voltage electrical angle instruction value (θvtarg(-1)). detecting an applied voltage applied to a stator coil of the synchronous motor, and a current flowing through the stator coil according to the applied voltage; calculating a present applied voltage phase (α) and calculating a current peak value (Ip) based on the detected applied voltage and current, and calculating a target current phase (βtarg) based on the current peak value (Ip) followed by calculating a target applied voltage phase (αtarg) corresponding to the target current phase (βtarg); and calculating a new applied voltage electrical angle instruction value (θvtarg), based on a change angle (Δθv) obtained by multiplying a difference between the present applied voltage phase (α) and the target applied voltage phase (αtarg) by a response time constant UR of the synchronous motor, where L is the inductance of the stator coil and R is the resistance of the stator coil, a rotational speed (w) calculated based on the detected applied voltage and current, and the previous applied voltage electrical angle instruction value (θvtarg(-1)).
Onboard power subsystem for a vehicle, in particular for a watercraft, wherein the onboard power subsystem has - at least one energy storage unit, - a closed-loop control device for the charging of the energy storage unit of the vehicle, - an onboard power connection for connection to electrical components of the vehicle, - a DC voltage connection for connection to a land-based charging station and - an energy subsystem, characterised in that a switching device is arranged between the onboard power connection and the energy subsystem, wherein a charger is arranged between the energy storage unit and the energy subsystem, wherein the DC voltage connection is electrically conductively connected to the energy subsystem, wherein the onboard power subsystem has at least one power converter that is connected on the AC voltage side to the energy subsystem and can be operated both as an AC/DC converter and as a DC/DC converter, wherein the power converter is configured, by way of the closed-loop control device, to operate the energy subsystem as a DC voltage system during the charging process and as an AC voltage system during independent operation of the vehicle. - at least one energy storage unit, - a closed-loop control device for the charging of the energy storage unit of the vehicle, - an onboard power connection for connection to electrical components of the vehicle, - a DC voltage connection for connection to a land-based charging station and - an energy subsystem,
A method for transmitting broadcast system information in a radio access network, the method comprising the steps of: mapping first system information including a master information block of a broadcast control logical channel to a broadcast transport channel, mapping second system information including a system information block of a broadcast control logical channel to a shared transport channel, transmitting the first system information via the broadcast transport channel, wherein the master information block comprises an indication of the shared transport channel on which the system information block of the second system information is transmitted; and transmitting the second system information via the shared transport channel; wherein the shared transport channel is used for data transmission on dynamically allocated resources, the method further comprising a step of transmitting control information, on a control channel associated to the shared transport channel, that dynamically indicates at least one of parameters of scheduling, modulation, and transport block size of the system information block that is mapped on the shared transport channel that uses the dynamically allocated resources. mapping first system information including a master information block of a broadcast control logical channel to a broadcast transport channel, mapping second system information including a system information block of a broadcast control logical channel to a shared transport channel, transmitting the first system information via the broadcast transport channel, wherein the master information block comprises an indication of the shared transport channel on which the system information block of the second system information is transmitted; and transmitting the second system information via the shared transport channel; wherein the shared transport channel is used for data transmission on dynamically allocated resources, the method further comprising a step of transmitting control information, on a control channel associated to the shared transport channel, that dynamically indicates at least one of parameters of scheduling, modulation, and transport block size of the system information block that is mapped on the shared transport channel that uses the dynamically allocated resources.