mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an element management system, EMS, in a communication system, the method comprising: receiving (S401, S500), from each of a plurality of base stations, performance statistics information including first information on a number of times of radio resource control, RRC, connection establishment attempts and on a number of times of RRC connection establishment success; identifying second information, based on the first information, wherein the second information comprises at least one of a downlink data transmission size or a base station availability ratio of each of the plurality of base stations; identifying at least one first base station from among the plurality of base stations, based on the second information, wherein each of the at least one first base station provides a cell in which an amount of data transmission is equal to or less than a reference value for a certain time period; identifying, based on the first information, at least one second base station of which the number of times of RRC connection establishment attempts is equal to or less than a first threshold or a rate of RRC connection establishment success is equal to or less than a second threshold, from among remaining base stations other than the at least one first base station among the plurality of base stations, wherein each of the at least one second base station provides a cell in an abnormal state; and based on identifying the at least one second base station from among the remaining base stations, transmitting an alarm message for the at least one second base station. receiving (S401, S500), from each of a plurality of base stations, performance statistics information including first information on a number of times of radio resource control, RRC, connection establishment attempts and on a number of times of RRC connection establishment success; identifying second information, based on the first information, wherein the second information comprises at least one of a downlink data transmission size or a base station availability ratio of each of the plurality of base stations; identifying at least one first base station from among the plurality of base stations, based on the second information, wherein each of the at least one first base station provides a cell in which an amount of data transmission is equal to or less than a reference value for a certain time period; identifying, based on the first information, at least one second base station of which the number of times of RRC connection establishment attempts is equal to or less than a first threshold or a rate of RRC connection establishment success is equal to or less than a second threshold, from among remaining base stations other than the at least one first base station among the plurality of base stations, wherein each of the at least one second base station provides a cell in an abnormal state; and based on identifying the at least one second base station from among the remaining base stations, transmitting an alarm message for the at least one second base station.
A wearable device for extracorporeal life support of a patient comprising: a catheter; a pump; a modular extracorporeal life support component that is a lung membrane; and another modular extracorporeal life support component that is a dialysis membrane or a liver membrane; wherein the pump, the lung membrane, and the another modular extracorporeal life support component are configured to be attached to a garment; the pump is fluidly connected in series with the lung membrane and the catheter; and the another modular extracorporeal life support component is fluidly connected in parallel with the lung membrane. a catheter; a pump; a modular extracorporeal life support component that is a lung membrane; and another modular extracorporeal life support component that is a dialysis membrane or a liver membrane; wherein the pump, the lung membrane, and the another modular extracorporeal life support component are configured to be attached to a garment; the pump is fluidly connected in series with the lung membrane and the catheter; and the another modular extracorporeal life support component is fluidly connected in parallel with the lung membrane.
An alerting system for a seat assembly of an aircraft, comprising: a tactile module mountable to the seat assembly and including: a vibrating unit configured to, when activated, cause the upper portion of the seat bottom to vibrate; and a probing unit having an axially movable, elongated probing element configured to, when activated, reciprocatively probe an upper portion of a seat assembly seat bottom to cause movement thereof in order to stimulate the occupant; said alerting system further comprising: a controller communicatively coupled to the tactile module and being configured to perform activating and deactivating of the tactile module in response to the respective occurrence of a triggering event and a deactivating event, the controller being configured to progressively increase at least one of a probe travel and a probing frequency of the probing unit until the occurrence of a deactivating event; in which the controller is configured in such a way that said triggering event comprises external communications from an air traffic control, and said deactivating event comprises communicating verbally externally to an air traffic control. a vibrating unit configured to, when activated, cause the upper portion of the seat bottom to vibrate; and a probing unit having an axially movable, elongated probing element configured to, when activated, reciprocatively probe an upper portion of a seat assembly seat bottom to cause movement thereof in order to stimulate the occupant; said alerting system further comprising: a controller communicatively coupled to the tactile module and being configured to perform activating and deactivating of the tactile module in response to the respective occurrence of a triggering event and a deactivating event, the controller being configured to progressively increase at least one of a probe travel and a probing frequency of the probing unit until the occurrence of a deactivating event; in which the controller is configured in such a way that said triggering event comprises external communications from an air traffic control, and said deactivating event comprises communicating verbally externally to an air traffic control. a controller communicatively coupled to the tactile module and being configured to perform activating and deactivating of the tactile module in response to the respective occurrence of a triggering event and a deactivating event, the controller being configured to progressively increase at least one of a probe travel and a probing frequency of the probing unit until the occurrence of a deactivating event; in which the controller is configured in such a way that said triggering event comprises external communications from an air traffic control, and said deactivating event comprises communicating verbally externally to an air traffic control.
Method for determining the absolute carriage position (s x) of a carriage of an electric linear direct drive, wherein the carriage can be moved along a guide in the direction of travel, wherein permanent magnets are arranged along the guide and wherein one or more electromagnets are arranged on the carriage so that when the electromagnets are energized, the carriage is driven, comprising the following steps: a) detecting a magnetic field characteristic of the permanent magnets in the carriage position (s x) to be determined by means of at least one magnetic field sensor arranged on the carriage, b) retaining reference characteristics (1' to n') of the magnetic fields of the permanent magnets and of a carriage position (s 1 to s n) associated with the relevant reference characteristic (1' to n'), c) ascertaining whether there is a correlation between the detected magnetic field characteristic and the respective reference characteristics (1' to n'), and d) when correlating the detected magnetic field characteristic with a reference characteristic (1' to n'), outputting the carriage position (s 1 to s n) assigned to this reference characteristic (1' to n') as the absolute, instantaneous carriage position (s x). a) detecting a magnetic field characteristic of the permanent magnets in the carriage position (s x) to be determined by means of at least one magnetic field sensor arranged on the carriage, b) retaining reference characteristics (1' to n') of the magnetic fields of the permanent magnets and of a carriage position (s 1 to s n) associated with the relevant reference characteristic (1' to n'), c) ascertaining whether there is a correlation between the detected magnetic field characteristic and the respective reference characteristics (1' to n'), and d) when correlating the detected magnetic field characteristic with a reference characteristic (1' to n'), outputting the carriage position (s 1 to s n) assigned to this reference characteristic (1' to n') as the absolute, instantaneous carriage position (s x).
A method for automatically provisioning part of a multi-part application programming interface, API, to a client device (210, 212; 304, 306) within a device ecosystem, wherein functionalities of the API are separated into at least two groups, the at least two groups comprising: a first group comprising interface functionalities that are configured to be implemented in a client-resident client library (206; 312) that is distributed with an application executing on the client device; and a second group comprising implementation functionalities that are configured to be implemented in a platform implementation package (110; 208; 316), wherein the platform implementation package provides functionality not provided by the client library; the method comprising automatically provisioning the platform implementation package to the client device by: receiving at the client device and via the client library, a request for functionality provided by the platform implementation package; automatically determining, by the client device, that the requested functionality requires an update to the platform implementation package; in response to the determining, communicating a request for the update to the platform implementation package to a computing system; receiving by the client device, from the computing system, the update to the platform implementation package; installing the update to the platform implementation package on the client device; and providing, by the updated platform implementation package, the requested functionality to the application. a first group comprising interface functionalities that are configured to be implemented in a client-resident client library (206; 312) that is distributed with an application executing on the client device; and a second group comprising implementation functionalities that are configured to be implemented in a platform implementation package (110; 208; 316), wherein the platform implementation package provides functionality not provided by the client library; receiving at the client device and via the client library, a request for functionality provided by the platform implementation package; automatically determining, by the client device, that the requested functionality requires an update to the platform implementation package; in response to the determining, communicating a request for the update to the platform implementation package to a computing system; receiving by the client device, from the computing system, the update to the platform implementation package; installing the update to the platform implementation package on the client device; and providing, by the updated platform implementation package, the requested functionality to the application.
Method for obtaining a pair of ophthalmic lenses for correcting cylindrical and spherical refractive defects of the two eyes of a wearer, including: - a step of defining the cylindrical and spherical correction requirements of the wearer for various vision proximities, - a step of determining cylindrical and spherical powers of said ophthalmic lenses at vision points of various proximities, depending on the previously defined cylindrical and spherical correction requirements of the wearer, and - a step of producing said ophthalmic lenses on the basis of the cylindrical and spherical powers determined; characterized in that the powers of at least one of the two ophthalmic lenses are determined so as to limit the discrepancy obtained, between the two ophthalmic lenses of the pair, in at least one of the following quantities: - the equivalent spherical power addition between the vision points of various proximities, and - the variation in the cylindrical power vector between the vision points of various proximities. - a step of defining the cylindrical and spherical correction requirements of the wearer for various vision proximities, - a step of determining cylindrical and spherical powers of said ophthalmic lenses at vision points of various proximities, depending on the previously defined cylindrical and spherical correction requirements of the wearer, and - a step of producing said ophthalmic lenses on the basis of the cylindrical and spherical powers determined; - the equivalent spherical power addition between the vision points of various proximities, and - the variation in the cylindrical power vector between the vision points of various proximities.
A method of signal transmission and reception by a user equipment, UE, in a wireless communication system, the method comprising: receiving downlink control information, DCI, for scheduling a physical uplink shared channel, PUSCH; and transmitting the PUSCH based on the DCI, wherein the PUSCH is transmitted in a specific number of resource blocks, RBs, wherein the specific number is a largest number which is (i) equal to or less than the number of RBs allocated by the DCI and (ii) a multiple of 2, 3, and/or 5, and characterized by: wherein, based on the DCI being received in a common search space, CSS, (i) the PUSCH is transmitted within a lowest indexed RB-set among uplink RB sets intersected with a lowest indexed control channel element, CCE, in which the DCI is detected, and (ii) the PUSCH is transmitted within a RB-set with a lowest index in a bandwidth part, BWP, in case that there is no RB-set intersected with the CCE. receiving downlink control information, DCI, for scheduling a physical uplink shared channel, PUSCH; and transmitting the PUSCH based on the DCI, wherein the PUSCH is transmitted in a specific number of resource blocks, RBs, wherein the specific number is a largest number which is (i) equal to or less than the number of RBs allocated by the DCI and (ii) a multiple of 2, 3, and/or 5, and characterized by: wherein, based on the DCI being received in a common search space, CSS, (i) the PUSCH is transmitted within a lowest indexed RB-set among uplink RB sets intersected with a lowest indexed control channel element, CCE, in which the DCI is detected, and (ii) the PUSCH is transmitted within a RB-set with a lowest index in a bandwidth part, BWP, in case that there is no RB-set intersected with the CCE.
A separation disc for a centrifugal separator, the separation disc being of metal material and adapted to be compressed in a stack of separation discs inside a centrifugal rotor for separating a liquid mixture, the separation disc having a truncated conical shape with an inner surface and an outer surface and a plurality of spacing members (4, 5) extending a certain height above at least one of the inner surface and the outer surface for providing interspaces between mutually adjacent separation discs in the stack, wherein the outer diameter of the separation disc is at least 400 mm, characterized in that the spacing members (4, 5) are of such small size that each one of them has a width which is less than 2 mm along the surface (2, 3) of the separation disc, the surface (3, 4) of the separation disc being configured with a distribution pattern of the small-sized spacing members (4, 5), in such a way as to provide equidistant interspaces in the compressed disc stack, and wherein the thickness of the separation disc is less than 0.4 mm.
A contact arrangement for connecting a power supply to electrical components in a vehicle, said contact arrangement comprising: a first mechanical contact for connecting a first lead of said power supply to an electrical component; and a second mechanical contact for connecting a second lead of a power supply to said electrical component; said first and second mechanical contacts being configured to disconnect said power supply in the event of a collision; wherein said first mechanical contact is arranged substantially perpendicular to said second mechanical contact in relation to a transverse plane of said vehicle. a first mechanical contact for connecting a first lead of said power supply to an electrical component; and a second mechanical contact for connecting a second lead of a power supply to said electrical component; said first and second mechanical contacts being configured to disconnect said power supply in the event of a collision; wherein said first mechanical contact is arranged substantially perpendicular to said second mechanical contact in relation to a transverse plane of said vehicle.
A gas-liquid separator, comprising: - a cylindrical chamber extending in an axial direction (z) and having at least a flow chamber portion extending into a collection chamber portion, the chamber further has a distal portion at a bottom or downstream end and the chamber has an oppositely located proximal portion at an upper or upstream end, - a deflector (16; 160; 170) arranged in the flow chamber portion, the deflector having a deflector panel (17; 161; 171) extending radially outwardly (r) and in axial direction (z) to form a narrowing flow channel between the deflector (16; 160; 170) and a side wall of the chamber, wherein the deflector pane! (17; 161; 171) has a free edge (20; 169; 179) at a distal end thereof, - at least one gas outlet shielded by the deflector panel (17; 161; 171) and separated from the flow channel by the deflector panel (17; 161; 171) that has a closed surface and wherein the at least one gas outlet is arranged axially offset from the free edge (20; 169; 179) in proximal direction, - wherein an inlet duct extends into the chamber in axial direction (z) and wherein the inlet duct branches off into a plurality of radially extending inlets (32; 132; 152) at a proximal end of the chamber. - a cylindrical chamber extending in an axial direction (z) and having at least a flow chamber portion extending into a collection chamber portion, the chamber further has a distal portion at a bottom or downstream end and the chamber has an oppositely located proximal portion at an upper or upstream end, - a deflector (16; 160; 170) arranged in the flow chamber portion, the deflector having a deflector panel (17; 161; 171) extending radially outwardly (r) and in axial direction (z) to form a narrowing flow channel between the deflector (16; 160; 170) and a side wall of the chamber, wherein the deflector pane! (17; 161; 171) has a free edge (20; 169; 179) at a distal end thereof, - at least one gas outlet shielded by the deflector panel (17; 161; 171) and separated from the flow channel by the deflector panel (17; 161; 171) that has a closed surface and wherein the at least one gas outlet is arranged axially offset from the free edge (20; 169; 179) in proximal direction, - wherein an inlet duct extends into the chamber in axial direction (z) and wherein the inlet duct branches off into a plurality of radially extending inlets (32; 132; 152) at a proximal end of the chamber.
A treatment apparatus for a waste steam generator, comprising: a cutting part for cutting a body of a waste steam generator; a driving part for driving the cutting part; and a support frame for supporting the cutting part and the driving part, wherein the support frame is coupled to an outer peripheral surface of the body of the waste steam generator in a divided state, and the cutting part is driven and cuts the body in a state in which the support frame is coupled to the outer peripheral surface of the body, characterised in that the cutting part is provided in plural numbers and is a circular cutter having a circular saw, wherein the plurality of cutting parts is spaced apart from each other, and other cutting parts repeatedly pass along a path along which one of the plurality of cutting parts passes. a cutting part for cutting a body of a waste steam generator; a driving part for driving the cutting part; and a support frame for supporting the cutting part and the driving part, wherein the support frame is coupled to an outer peripheral surface of the body of the waste steam generator in a divided state, and the cutting part is driven and cuts the body in a state in which the support frame is coupled to the outer peripheral surface of the body, characterised in that the cutting part is provided in plural numbers and is a circular cutter having a circular saw, wherein the plurality of cutting parts is spaced apart from each other, and other cutting parts repeatedly pass along a path along which one of the plurality of cutting parts passes.