mhurhangee/ep-ind-claims huggingface dataset:
Lock, in particular a secondary lock with two hook bolts (3, 4) mounted in a lock case so as to be able to rotate about a respective axis of rotation, which each have a hook section (3', 4') which, controlled by a drive slide, can be displaced towards one another from a retracted position into an advanced position through a respective bolt passage opening of a forend in the opposite direction of rotation, wherein each of the two hook bolts (3, 4) has a blocking flank (6, 7), to each of which blocking flanks (6, 7) in the forwardly closed position a respective blocking flank of a blocking element, which is controlled by the drive slide and drivable in rotation about an axis of rotation, lies opposite in such a manner that when a torque is applied to the hook portions (3', 4') into the retracted position the blocking flanks (6, 7) step against the blocking flanks in a rotationally blocking action, characterized in that the axis of rotation lies between the two blocking flanks.
A cloud computing system, comprising: at least one cloud radio gateway, CRG, node, at least one macro cloud, MC, node and at least one distributive unit, DU, node, wherein the at least one CRG node is located at the top layer in a core network of a mobile cellular network, the at least one MC node and the at least one DU node are located in an access network of the mobile cellular network, the at least one CRG node, the at least one MC node, and the at least one DU node are all capable of performing cloud computing, the at least one DU node is located in coverage of the at least one MC node, and the at least one MC node is located in coverage of the at least one CRG node, wherein the at least one CRG node is configured to: receive network data of a user from a public data network, PDN, / public switched telephone network, PSTN; allocate the received network data to one node of the at least one CRG node, the at least one MC node, the at least one DU node, and another CRG node in the core network, or allocate the received network data to multiple nodes of the at least one CRG node, the at least one MC node, the at least one DU node, and the another CRG node; and if receiving the allocated network data, perform signal processing of an air interface protocol stack on the allocated network data to generate a downlink baseband signal, and send the generated downlink baseband signal to the at least one MC node or to the at least one DU node through the at least one MC node; the at least one MC node is configured to: if receiving the allocated network data, perform signal processing of an air interface protocol stack on the allocated network data to generate a downlink baseband signal, and send the generated downlink baseband signal to the user via a remote radio unit, RRU, or to the at least one DU node; and if receiving the downlink baseband signal from the at least one CRG node, the another CRG node, the at least one DU node or, another MC node in the access network, send the received downlink baseband signal to the user via a remote radio unit, RRU, or to the at least one DU node; and the at least one DU node is configured to: if receiving the allocated network data, perform signal processing of an air interface protocol stack on the allocated network data to generate a downlink baseband signal, and send the generated downlink baseband signal to the user via a remote radio unit, RRU; and if receiving the downlink baseband signal from the at least one MC node or from the at least one CRG node, the another CRG node or the another MC node through the at least one MC node, send the received downlink baseband signal to the user via a remote radio unit, RRU.
A vector comprising a nucleic acid sequence encoding a paracrine protein or peptide for use in a method of treating, ameliorating or protecting a subject suffering from congestive heart failure comprising providing and administering or delivering the vector to a cell of the subject, or to a subject in need thereof wherein the paracrine protein or peptide comprises a Urocortin-2 (UCn-2) protein or peptide, and the vector is an adeno-associated virus.
A process to form an ethylene-based polymer, said process comprising polymerizing a mixture comprising ethylene, in the presence of at least one free-radical initiator, and in a tubular reactor system comprising at least two ethylene-based feed streams, and a reactor configuration that comprises at least three reaction zones; and wherein the inlet pressure of the first reaction zone is less than, or equal to, 320000 kPa (3200 Bar); and the polymerization has an ethylene conversion ≥ 28%, and an m value from 20 mole% to 70 mole%, where m = mol% of ethylene-based feed stream to the first reaction zone, based on the total moles of ethylene-based feed streams fed to the reactor configuration; and wherein the ratio of a "MWD B of a broad polymer polymerized", to a "MWD N of a narrow polymer polymerized", is as follows: { ∗ (-2.3 x log(m) + 7)} ≤ Q ≤{ ∗ (-13.0 x log(m) + 29.8)}; and wherein the "MWD B polymer" and the "MWD N polymer" both have the same melt index; and wherein the "T" is the "chain transfer activity ratio" and "T" is from 0.6 to 1.6, and T is defined as follows: T = {[0.1 ∗ ln (Cs narrow MWD process /Cs broad MWD process)] +1}; wherein Cs narrow MWD process and Cs broad MWD process are average Cs values of the CTA system at the outlet of the reactor configuration used to produce, respectively, the narrow and the broad MWD polymers, and wherein MWD B > MWD N.
Method for operating a communication network (15, 15') which comprises a plurality of motor vehicles (1, 16-19), wherein the motor vehicles (1, 16-19) each have a sensor device having at least one environment sensor (10, 11), characterised in that at least one motor vehicle in the event of a malfunction of an environment sensor determined by a sensor device transmit(s) the status data which describe the malfunction and which comprise position data of the motor vehicle to at least one external evaluation device, which establishes a disruption region information item which describes a disruption region for environment sensors of the motor vehicles (1, 16-19).
A method of additive manufacturing comprising: moving a nozzle and a workpiece relative to each other in at least five dimensions comprising: moving the nozzle in three dimensions defined by an x-axis, a y-axis, and a z-axis, rotating the nozzle in a first plane, and rotating a build plate for the workpiece in a second plane not parallel to the first plane; depositing a printer filament (14, 112, 398) from the nozzle onto the workpiece, characterized in that the deposited printer filament (14, 112, 398) forms a manufactured part (48, 424), wherein the printer filament (14, 112, 398) is a polymer matrix composite material; and comprises a coated carbon fiber; and performing a post-processing step that transforms the manufactured part (48, 424) from the polymer matrix composite into a ceramic matrix composite; wherein a coating is applied to the manufactured part (48, 424) prior to transformation, and wherein the transformation is enabled by pyrolysis of the manufactured part (48, 424), whereby deformation of the manufactured part (48, 424) is prevented. moving a nozzle and a workpiece relative to each other in at least five dimensions comprising: moving the nozzle in three dimensions defined by an x-axis, a y-axis, and a z-axis, rotating the nozzle in a first plane, and rotating a build plate for the workpiece in a second plane not parallel to the first plane; moving the nozzle in three dimensions defined by an x-axis, a y-axis, and a z-axis, rotating the nozzle in a first plane, and rotating a build plate for the workpiece in a second plane not parallel to the first plane; depositing a printer filament (14, 112, 398) from the nozzle onto the workpiece, characterized in that the deposited printer filament (14, 112, 398) forms a manufactured part (48, 424), wherein the printer filament (14, 112, 398) is a polymer matrix composite material; and comprises a coated carbon fiber; and performing a post-processing step that transforms the manufactured part (48, 424) from the polymer matrix composite into a ceramic matrix composite; wherein a coating is applied to the manufactured part (48, 424) prior to transformation, and wherein the transformation is enabled by pyrolysis of the manufactured part (48, 424), whereby deformation of the manufactured part (48, 424) is prevented.
A battery module comprising: a cell assembly comprising a plurality of secondary batteries; a module housing comprising at least one side wall (220a-d) and configured to accommodate the cell assembly in an internal space defined by the at least one side wall; and an end frame comprising: a body frame that comprises a main wall and at least one side wall extending from an outer circumference of the main wall in a direction where the module housing is positioned; and a coupling plate, wherein the at least one side wall (220a-d) includes a top wall, a bottom wall, a left wall, and a right wall, wherein the module housing is configured as a mono frame in which the top wall, the bottom wall, the left wall, and the right wall are integrated, wherein the coupling plate comprises a body portion combined to the at least one side wall of the body frame, and a stepped portion having a step with respect to the body portion and extending from a side end portion of the body portion to be adhered to an inner surface of the module housing, and wherein a recessed portion, in which one region of an outer surface is recessed in an inward direction and a recessed region extends from one end to the other end, is formed at the body portion of the coupling plate, and an embedded fixing portion, in which a portion of the at least one side wall of the body frame is embedded in the recessed portion, is formed. a cell assembly comprising a plurality of secondary batteries; a module housing comprising at least one side wall (220a-d) and configured to accommodate the cell assembly in an internal space defined by the at least one side wall; and an end frame comprising: a body frame that comprises a main wall and at least one side wall extending from an outer circumference of the main wall in a direction where the module housing is positioned; and a coupling plate, wherein the at least one side wall (220a-d) includes a top wall, a bottom wall, a left wall, and a right wall, wherein the module housing is configured as a mono frame in which the top wall, the bottom wall, the left wall, and the right wall are integrated, wherein the coupling plate comprises a body portion combined to the at least one side wall of the body frame, and a stepped portion having a step with respect to the body portion and extending from a side end portion of the body portion to be adhered to an inner surface of the module housing, and wherein a recessed portion, in which one region of an outer surface is recessed in an inward direction and a recessed region extends from one end to the other end, is formed at the body portion of the coupling plate, and an embedded fixing portion, in which a portion of the at least one side wall of the body frame is embedded in the recessed portion, is formed.
A multi-band antenna, comprising a feeding matching circuit, a feeding part, a capacitor component, a radiation part, and a grounding part; wherein the feeding part is connected to the capacitor component to form a feeding circuit, and the feeding matching circuit is electrically connected to the feeding circuit, and the feeding matching circuit is electrically connectable to a feeding radio frequency circuit, such that the feeding matching circuit is electrically connected between the feeding circuit and the feeding radio frequency circuit; and the radiation part is electrically connected both to the feeding circuit and the grounding part; the grounding part is electrically connectable to a ground plane; a first resonant circuit is formed from the feeding circuit to an end that is of the radiation part and that is away from the grounding part; the first resonant circuit is configured to generate a first resonance frequency and a second resonance frequency; and the second resonance frequency is a multiplied frequency of the first resonance frequency, and the second resonance frequency is a Wireless-Fidelity frequency; wherein the multi-band antenna is a composite right/left handed antenna; wherein the first resonance frequency is a global positioning system, GPS, frequency, a length of the first resonant circuit ranges from 0.12 times to 0.18 times as great as a wavelength corresponding to the first resonance frequency, and a width of the grounding part ranges from 0.5 millimeter to 2.5 millimeters.
A method of secure communication between mobile applications, comprising: providing, from a first mobile application to a second mobile application, a first encryption information that includes a public key associated with a private-public key pair generated by the first mobile application and an identifier associated with a data storage location on a mobile device; generating, by the second mobile application, a second encryption information that at least includes a second encryption key that is an encrypted version of the public key associated with the private-public key pair generated by the first mobile application using a private key associated with a private-public key pair generated by the second mobile application and an application identifier associated with the second mobile application, and providing the second encryption information to the data storage location; retrieving, by the first mobile application from the data storage location, the second encryption information associated with the second mobile appplication; validating, by the first mobile application an identity of the second mobile application based at least in part on the application identifier included in the second encryption information; and transferring data securely between the first mobile application and the second mobile application via the data storage location by encrypting the data using the second encryption key included in the second encryption information. providing, from a first mobile application to a second mobile application, a first encryption information that includes a public key associated with a private-public key pair generated by the first mobile application and an identifier associated with a data storage location on a mobile device; generating, by the second mobile application, a second encryption information that at least includes a second encryption key that is an encrypted version of the public key associated with the private-public key pair generated by the first mobile application using a private key associated with a private-public key pair generated by the second mobile application and an application identifier associated with the second mobile application, and providing the second encryption information to the data storage location; retrieving, by the first mobile application from the data storage location, the second encryption information associated with the second mobile appplication; validating, by the first mobile application an identity of the second mobile application based at least in part on the application identifier included in the second encryption information; and transferring data securely between the first mobile application and the second mobile application via the data storage location by encrypting the data using the second encryption key included in the second encryption information.
A method for managing the time of use of a video game console carrying out a first step for comparing data between a time allowed for the use of said console and an actually elapsed time counted by a counter from the beginning of its use without resetting said counter, and then a second step for visually or acoustically or tactilely alerting the user of a predetermined duration preceding an extinction step of said console if the result of the first step indicates that the allowed time of use has been exceeded, characterized in that the method determines the actually elapsed time between the beginning of the use of the console by establishing a connection with the console, by simulating a wireless game joystick.
An inkjet printer, comprising: a printing unit including an inkjet head configured to form an image on a recording medium by ejecting ink on the recording medium; and an ink circulation unit configured to supply the ink to the inkjet head while circulating the ink, wherein the ink circulation unit comprises: an ink supply path for supplying the ink to the inkjet head; and an ink temperature adjustment device, wherein the ink temperature adjustment device comprises an ink temperature adjustment path connected to the ink supply path and for adjusting a temperature of the ink supplied to the inkjet head, and wherein the ink temperature adjustment path comprises: an upflow path for the ink to flow upward in a vertical direction, and a downflow path for the ink to flow downward in the vertical direction, wherein a total cross-sectional area of the upflow path is larger than a total cross-sectional area of the downflow path and a flow speed of the ink in the downflow path is greater than a flow speed of the ink in the upflow path. a printing unit including an inkjet head configured to form an image on a recording medium by ejecting ink on the recording medium; and an ink circulation unit configured to supply the ink to the inkjet head while circulating the ink, wherein the ink circulation unit comprises: an ink supply path for supplying the ink to the inkjet head; and an ink temperature adjustment device, an ink supply path for supplying the ink to the inkjet head; and an ink temperature adjustment device, wherein the ink temperature adjustment device comprises an ink temperature adjustment path connected to the ink supply path and for adjusting a temperature of the ink supplied to the inkjet head, and wherein the ink temperature adjustment path comprises: an upflow path for the ink to flow upward in a vertical direction, and a downflow path for the ink to flow downward in the vertical direction, an upflow path for the ink to flow upward in a vertical direction, and a downflow path for the ink to flow downward in the vertical direction, wherein a total cross-sectional area of the upflow path is larger than a total cross-sectional area of the downflow path and a flow speed of the ink in the downflow path is greater than a flow speed of the ink in the upflow path.
An ultrasound diagnostic apparatus which determines reliability of an elasticity index of a blood vessel of a subject by transmitting ultrasonic beams toward the blood vessel of the subject and receiving ultrasonic echoes reflected by the blood vessel of the subject using an ultrasound probe abutted on an outer surface of the subject, comprising: control means for controlling transmission and reception of the ultrasonic beam; tracking means for tracking displacements in a transmission direction of a plurality of points of the blood vessel in the transmission direction of the ultrasonic beam; calculation means for calculating the elasticity index of the blood vessel based on the tracking result of the tracking means; acquisition means for acquiring the direction of a displacement and/or the amount of the displacement in the transmission direction of one or more specific points being on a posterior vascular wall of the blood vessel among the plurality of points; and determination means for determining reliability of the elasticity index based on the direction of the displacement and/or the amount of displacement of the one or more specific points acquired by the acquisition means, characterised in that the determination means is configured to determine that the reliability of the elasticity index is high, when the posterior vascular wall is displaced toward outside of the blood vessel in a heart contraction phase, based on the direction of the displacement of the one or more specific points being on the posterior vascular wall. control means for controlling transmission and reception of the ultrasonic beam; tracking means for tracking displacements in a transmission direction of a plurality of points of the blood vessel in the transmission direction of the ultrasonic beam; calculation means for calculating the elasticity index of the blood vessel based on the tracking result of the tracking means; acquisition means for acquiring the direction of a displacement and/or the amount of the displacement in the transmission direction of one or more specific points being on a posterior vascular wall of the blood vessel among the plurality of points; and determination means for determining reliability of the elasticity index based on the direction of the displacement and/or the amount of displacement of the one or more specific points acquired by the acquisition means, characterised in that the determination means is configured to determine that the reliability of the elasticity index is high, when the posterior vascular wall is displaced toward outside of the blood vessel in a heart contraction phase, based on the direction of the displacement of the one or more specific points being on the posterior vascular wall.
A method for adding an authentication algorithm program, comprising: • receiving, by an embedded universal integrated circuit card eUICC, a bound profile package sent by a local profile assistant LPA, wherein the bound profile package comprises initial secure channel information, storage metadata, an authentication algorithm program, and a profile, the authentication algorithm program corresponds to target information, and the target information is at least one of: firmware version information of the eUICC, an embedded universal integrated circuit card identifier EID issuer identifier of the eUICC, platform/operating system version information of the eUICC, or capability information of the eUICC (step 304); and • adding, by the eUICC, the authentication algorithm program into the eUICC (step 305). • receiving, by an embedded universal integrated circuit card eUICC, a bound profile package sent by a local profile assistant LPA, wherein the bound profile package comprises initial secure channel information, storage metadata, an authentication algorithm program, and a profile, the authentication algorithm program corresponds to target information, and the target information is at least one of: firmware version information of the eUICC, an embedded universal integrated circuit card identifier EID issuer identifier of the eUICC, platform/operating system version information of the eUICC, or capability information of the eUICC (step 304); and • adding, by the eUICC, the authentication algorithm program into the eUICC (step 305).