mhurhangee/ep-ind-claims huggingface dataset:
A paging method, comprising: (a)receiving, by a terminal device (900, 1100), paging configuration information and beam configuration information, both of which are sent from a network device (1000, 1200) to the terminal device (900, 1100), wherein the paging configuration information is used to indicate a first paging time unit that carries the paging information, and the beam configuration information comprises a correspondence between a beam and a time unit; and (b)determining, by the terminal device (900, 1100), a first beam mapped to the first paging time unit based on the correspondence; and (c)determining, by the terminal device (900, 1100), a target time window based on the first beam, wherein the target time window is a time interval for performing one round of beam scanning starting from the first beam; and (d) listening, by the terminal device (900, 1100), on a channel in a target time interval to obtain paging information, wherein the target time interval belongs to the target time window, the target time interval being an entire time period occupied by the target time window or a part of the time period in the target time window, and all time units to which a plurality of beams in the target time window are mapped carry the paging information, wherein the plurality of beams are sent by the network device (1000, 1200) and comprise the first beam. (a)receiving, by a terminal device (900, 1100), paging configuration information and beam configuration information, both of which are sent from a network device (1000, 1200) to the terminal device (900, 1100), wherein the paging configuration information is used to indicate a first paging time unit that carries the paging information, and the beam configuration information comprises a correspondence between a beam and a time unit; and (b)determining, by the terminal device (900, 1100), a first beam mapped to the first paging time unit based on the correspondence; and (c)determining, by the terminal device (900, 1100), a target time window based on the first beam, wherein the target time window is a time interval for performing one round of beam scanning starting from the first beam; and (d) listening, by the terminal device (900, 1100), on a channel in a target time interval to obtain paging information, wherein the target time interval belongs to the target time window, the target time interval being an entire time period occupied by the target time window or a part of the time period in the target time window, and all time units to which a plurality of beams in the target time window are mapped carry the paging information, wherein the plurality of beams are sent by the network device (1000, 1200) and comprise the first beam.
A system for identifying security vulnerabilities related to an application programming interface, the system comprising: a processor; and a memory accessible by the processor, the processor configured to: search for any security policy specified in an API proxy bundle, the API proxy bundle including a configuration of an API proxy for the API, wherein the API proxy is executable in an API gateway of an API management platform, and wherein the configuration of the API proxy identifies zero or more security policies associated with the API proxy and enforceable by the API gateway; determine a compliance failure, which is a failure of the configuration of the API proxy to comply with a set of security rules, wherein the set of security rules indicate a plurality of categories of policies are to be enabled in the configuration of the API proxy, and the indication of the compliance failure includes an indication of a relative number of polices that are not enabled in each of the categories; cause an indication of the compliance failure to be outputted; and update the API proxy bundle to correct the compliance failure. a processor; and a memory accessible by the processor, the processor configured to: search for any security policy specified in an API proxy bundle, the API proxy bundle including a configuration of an API proxy for the API, wherein the API proxy is executable in an API gateway of an API management platform, and wherein the configuration of the API proxy identifies zero or more security policies associated with the API proxy and enforceable by the API gateway; determine a compliance failure, which is a failure of the configuration of the API proxy to comply with a set of security rules, wherein the set of security rules indicate a plurality of categories of policies are to be enabled in the configuration of the API proxy, and the indication of the compliance failure includes an indication of a relative number of polices that are not enabled in each of the categories; cause an indication of the compliance failure to be outputted; and update the API proxy bundle to correct the compliance failure. search for any security policy specified in an API proxy bundle, the API proxy bundle including a configuration of an API proxy for the API, wherein the API proxy is executable in an API gateway of an API management platform, and wherein the configuration of the API proxy identifies zero or more security policies associated with the API proxy and enforceable by the API gateway; determine a compliance failure, which is a failure of the configuration of the API proxy to comply with a set of security rules, wherein the set of security rules indicate a plurality of categories of policies are to be enabled in the configuration of the API proxy, and the indication of the compliance failure includes an indication of a relative number of polices that are not enabled in each of the categories; cause an indication of the compliance failure to be outputted; and update the API proxy bundle to correct the compliance failure.
Fastening device for rigidly fastening a pipe at a certain distance from a solid ground or a mounting rail with one or more pipe clamps for clasping and rigidly holding the pipe, wherein the pipe clamps each have a threaded connection and can be fastened at a distance on the ground or the mounting rail by means of threaded bolts or hanger bolts, wherein a length-adjustable adjusting element (15; 25; 35) which is formed of at least two pieces is provided between the pipe clamps and the threaded bolts or hanger bolts, and can be screwed to the threaded connection of one of the pipe clamps and also to the threaded bolt or the hanger bolt, and wherein a first part (15a; 25a; 35a) of the adjustment element (15; 25; 35) can be directly or indirectly screwed to the threaded connection of the pipe clamp and a second part (15b; 25b; 35b) of the adjustment element (15; 25; 35) can be directly or indirectly screwed to the threaded bolt or the hanger bolt, wherein the first part (15a; 25a; 35a) is rotatably connected to the second part (15b; 25b; 35b), wherein, due to the rotatability of the first part (15a; 25a; 35a) with respect to the second part (15b; 25b; 35b), the adjustment element (15; 25; 35) can be mounted with different screwing depths on the threaded bolt or the hanger bolt or on the threaded connection of the pipe clamp and wherein at least one screwing end of one of the two parts (15a; 25a; 35a or 15b; 25b; 35b) of the adjustment element (15; 25; 35) is designed with an outer thread (25a', 35a', 35b'), characterized in that the part (25a; 35a) of the adjustment element (25; 35) together with the outer thread (25a', 35a') comprises a through bore in which a longitudinal bolt (25b"; 35b") can be mounted to be rotatable about its axis, which at the other end is rigidly connected to the other part (25b; 35b) of the adjustment element (25; 35), wherein the free end of the longitudinal bolt (25"; 35b") that projects through the through bore is mechanically secured to prevent the longitudinal bolt (25b", 35b") from slipping out of the through bore, and that the inside diameter of the through bore is only slightly larger than the outer diameter of the longitudinal bolt (25b", 35b") such that the longitudinal bolt (25b"; 35b") remains radially rotatable about its axis even after being inserted through the through bore.
An actuator comprising: a piezoelectric element; a vibration plate that has the piezoelectric element joined thereto and is configured to bend and vibrate in accordance with expansion and contraction of the piezoelectric element; a support configured to support the vibration plate on a base to allow bending and vibration of the vibration plate; a holder configured to hold an object of vibration to the vibration plate; a first fixing portion coupled to the support and configured to fix the support to the base; and a second fixing portion coupled to the holder and configured to fix the object of vibration to the holder; characterized in that the first fixing portion and the second fixing portion are each configured to be deformed in a direction orthogonal to the expansion and contraction direction of the piezoelectric element. a piezoelectric element; a vibration plate that has the piezoelectric element joined thereto and is configured to bend and vibrate in accordance with expansion and contraction of the piezoelectric element; a support configured to support the vibration plate on a base to allow bending and vibration of the vibration plate; a holder configured to hold an object of vibration to the vibration plate; a first fixing portion coupled to the support and configured to fix the support to the base; and a second fixing portion coupled to the holder and configured to fix the object of vibration to the holder; characterized in that the first fixing portion and the second fixing portion are each configured to be deformed in a direction orthogonal to the expansion and contraction direction of the piezoelectric element.
A method for wireless communication, wherein the method is performed by a first mobile user equipment, UE, and comprises: determining a location of the first mobile UE; determining a maximum travel speed of a region corresponding to the location of the first mobile UE based on a speed limit of the region; determining a travel speed of the first UE based on the maximum travel speed; determining, based on the travel speed of the first UE, a transmission configuration of the first UE for device-to-device communication; and transmitting the device-to-device communication based on the transmission configuration to a second mobile UE. determining a location of the first mobile UE; determining a maximum travel speed of a region corresponding to the location of the first mobile UE based on a speed limit of the region; determining a travel speed of the first UE based on the maximum travel speed; determining, based on the travel speed of the first UE, a transmission configuration of the first UE for device-to-device communication; and transmitting the device-to-device communication based on the transmission configuration to a second mobile UE.
Vacuum pump, in particular rotating vane pump, comprising - a housing defining a cavity having an inlet and an outlet, - a drivable vane member for a rotary driven movement inside the cavity, - a rotor inside the cavity, - a rotatable central shaft extending into the cavity, wherein the vane member is coupled to the central shaft by means of an eccentric element on the central shaft, and slidably arranged in the rotor, the rotor being rotatable together with said vane member upon rotation of the vane member, wherein a rotational axis of the central shaft is offset from the rotational axis of the rotor and the point of action of the vane member is offset from the rotational axis of the central shaft by means of the eccentric element on the central shaft, and characterised in that the rotor encloses radially the eccentric element of the central shaft. - a housing defining a cavity having an inlet and an outlet, - a drivable vane member for a rotary driven movement inside the cavity, - a rotor inside the cavity, - a rotatable central shaft extending into the cavity,
A method of emulating operation of a graphics processor in a target computer system, the emulation being performed by a general purpose computer, the method comprising the steps of: receiving a sequence of graphics commands; storing the graphics commands in a command cache; and upon detecting a frame end, executing at least some of the commands in the command cache so as to at least partially render a frame represented by the commands in the command cache and thereby store image data in a video memory (VRAM); the executing step including an evaluation step comprising: comparing a current time value with an emulation time value to determine if the emulation is generating frames more slowly than the target computer system, thereby evaluating the ability of the general purpose computer to generate video frames fully synchronized with the target computer system; when the evaluation step indicates that the general purpose computer system is able to generate video frames fully synchronized with the target computer system, fully executing all the commands in the command cache so as to fully render the frame; and when the evaluation step indicates that the general purpose computer system is not able to generate video frames fully synchronized with the target computer system, executing a first subset of the commands in the command cache, and skipping execution of a second subset of the commands in the command cache, so as to partially render the frame. receiving a sequence of graphics commands; storing the graphics commands in a command cache; and upon detecting a frame end, executing at least some of the commands in the command cache so as to at least partially render a frame represented by the commands in the command cache and thereby store image data in a video memory (VRAM); comparing a current time value with an emulation time value to determine if the emulation is generating frames more slowly than the target computer system, thereby evaluating the ability of the general purpose computer to generate video frames fully synchronized with the target computer system;
A gate driver (200, 300, 400) comprising: a first input (202, 302, 402); a first output driver (224, 324, 424) having a gate drive signal output (232, 332, 432) and supplied by a first high side voltage (230, 330, 430), wherein the first output driver is connected to the first input; a second input (104, 304, 404); a second output driver (226, 326, 426) having a gate drive signal output (238, 338, 438) and supplied by a first low side voltage (236, 336, 436), wherein the second output driver is connected to the second input; a first converter (212, 312, 412) configured to convert an input voltage level to a first converted voltage level, wherein the first converter receives the input voltage from the first high side voltage; a multiplexer (222, 322, 422) with a first input connected to the first converter to receive the first converted voltage level, a second input connected to the first low side voltage, and an output; and an under voltage monitor (220, 320, 420) connected to the output of the multiplexer. a first input (202, 302, 402); a first output driver (224, 324, 424) having a gate drive signal output (232, 332, 432) and supplied by a first high side voltage (230, 330, 430), wherein the first output driver is connected to the first input; a second input (104, 304, 404); a second output driver (226, 326, 426) having a gate drive signal output (238, 338, 438) and supplied by a first low side voltage (236, 336, 436), wherein the second output driver is connected to the second input; a first converter (212, 312, 412) configured to convert an input voltage level to a first converted voltage level, wherein the first converter receives the input voltage from the first high side voltage; a multiplexer (222, 322, 422) with a first input connected to the first converter to receive the first converted voltage level, a second input connected to the first low side voltage, and an output; and an under voltage monitor (220, 320, 420) connected to the output of the multiplexer.
Method for producing a hole transport layer with the following work steps: - dissolving of rhenium heptoxide in a donor-containing solvent, - addition of a solution of a hole transport matrix material, - wet-chemical application of the formulation onto a lower layer, - successive removal of the donor solvent by means of thermolysis and displacement of the equilibrium between rhenium heptoxide and donor solvent molecule onto the side of the charge transfer complex with the hole transport matrix material according to the equation: wherein D stands for the donor function of the solvent and N(R 1, R 2; R 3) for a hole transport matrix material with donor function, such as the nitrogen donor function for example. - dissolving of rhenium heptoxide in a donor-containing solvent, - addition of a solution of a hole transport matrix material, - wet-chemical application of the formulation onto a lower layer, - successive removal of the donor solvent by means of thermolysis and displacement of the equilibrium between rhenium heptoxide and donor solvent molecule onto the side of the charge transfer complex with the hole transport matrix material according to the equation: wherein D stands for the donor function of the solvent and N(R 1, R 2; R 3) for a hole transport matrix material with donor function, such as the nitrogen donor function for example.
A battery storage system, comprising: a battery compartment accommodating a plurality of battery cells; an electrical component compartment accommodating electrical components electrically connectable with the battery cells; at least one disconnector compartment (28, 30) accommodating a disconnector (56, 74) for electrically connecting the electrical components to an electrical energy source (20, 52) in a closed position and for electrically disconnecting the electrical components from the energy source (20,52) in an opened position; wherein the disconnector compartment (28, 30) accommodates a locking mechanism (60, 80) for releasing a key (62, 82), when the disconnector (56, 74) is in the opened position; wherein the electrical component compartment comprises a first door for accessing the electrical components and the first door comprises a first lock openable and closable by the key (62, 82); wherein the battery compartment comprises a second door for accessing the battery cells and the second door comprises a second lock openable and closable by the key (62, 82). a battery compartment accommodating a plurality of battery cells; an electrical component compartment accommodating electrical components electrically connectable with the battery cells; at least one disconnector compartment (28, 30) accommodating a disconnector (56, 74) for electrically connecting the electrical components to an electrical energy source (20, 52) in a closed position and for electrically disconnecting the electrical components from the energy source (20,52) in an opened position; wherein the disconnector compartment (28, 30) accommodates a locking mechanism (60, 80) for releasing a key (62, 82), when the disconnector (56, 74) is in the opened position; wherein the electrical component compartment comprises a first door for accessing the electrical components and the first door comprises a first lock openable and closable by the key (62, 82); wherein the battery compartment comprises a second door for accessing the battery cells and the second door comprises a second lock openable and closable by the key (62, 82).
A digital mobile communication network component comprising - means for receiving a measurement value indicating a network traffic situation - means for detecting a traffic condition of a digital mobile communication network, using the received measurement value, - means for selecting a first or a second interleaving length, the selection being dependent on the detected traffic condition, - the means for selecting being coupled to means for communication over a digital mobile communication network, such as a UMTS network, the means for communication having interleaving means for data packets, characterized by the means for detecting a traffic condition being adapted to detect a congested or a non-congested situation during an ongoing communication session and the means for selecting of an interleaving length being adapted to select the first interleaving length when the network is in a non-congested traffic condition and the second interleaving length when the network is in a congested traffic condition, the second interleaving length being longer than the first interleaving length and supplying the interleaving length to the interleaving means for transmission over a network. - means for receiving a measurement value indicating a network traffic situation - means for detecting a traffic condition of a digital mobile communication network, using the received measurement value, - means for selecting a first or a second interleaving length, the selection being dependent on the detected traffic condition, - the means for selecting being coupled to means for communication over a digital mobile communication network, such as a UMTS network, the means for communication having interleaving means for data packets, characterized by the means for detecting a traffic condition being adapted to detect a congested or a non-congested situation during an ongoing communication session and the means for selecting of an interleaving length being adapted to select the first interleaving length when the network is in a non-congested traffic condition and the second interleaving length when the network is in a congested traffic condition, the second interleaving length being longer than the first interleaving length and supplying the interleaving length to the interleaving means for transmission over a network.
A method for checking the authenticity of a security element, in particular of the window security element of a value document, with the help of at least one sensor (21, 22, 23) for capturing the electromagnetic radiation remitted by the security element and transmitted through the security element and for generating a remission course (R(x)) which corresponds to the intensity remitted along the longitudinal direction (x) of the security element and a transmission course (T(x)) which corresponds to the intensity transmitted along the longitudinal direction (x) of the security element, wherein upon checking the authenticity of the security element a) the remission course (R(x)) and the transmission course (T(x)) are set off against each other pixel by pixel for determining a combination course (I(x), K(x)) along the longitudinal direction of the security element, and characterized in that upon checking the authenticity of the security element b) the combination course (I(x), K(x)) obtained by setting off pixel by pixel is checked with regard to an intensity modulation along the longitudinal direction (x) of the security element, and c) the authenticity of the security element is evaluated in dependence on the intensity modulation of the combination course (I(x), K(x)). a) the remission course (R(x)) and the transmission course (T(x)) are set off against each other pixel by pixel for determining a combination course (I(x), K(x)) along the longitudinal direction of the security element, and characterized in that upon checking the authenticity of the security element b) the combination course (I(x), K(x)) obtained by setting off pixel by pixel is checked with regard to an intensity modulation along the longitudinal direction (x) of the security element, and c) the authenticity of the security element is evaluated in dependence on the intensity modulation of the combination course (I(x), K(x)).