mhurhangee/ep-ind-claims huggingface dataset:
A battery micro-short circuit detection method, comprising: obtaining a target initial battery parameter value of a target battery at an initial moment, and determining a reference initial battery parameter value of a virtual reference battery at the initial moment, wherein a response of the virtual reference battery is the same as a response of the target battery when a same excitation condition is given; obtaining a target battery parameter value of the target battery at a specified moment; determining a reference battery parameter value of the virtual reference battery at the specified moment based on the target battery parameter value and the reference initial battery parameter; and calculating a difference between the target battery parameter value and the reference battery parameter value, and determining, based on the difference, that the target battery is micro-short-circuited. obtaining a target initial battery parameter value of a target battery at an initial moment, and determining a reference initial battery parameter value of a virtual reference battery at the initial moment, wherein a response of the virtual reference battery is the same as a response of the target battery when a same excitation condition is given; obtaining a target battery parameter value of the target battery at a specified moment; determining a reference battery parameter value of the virtual reference battery at the specified moment based on the target battery parameter value and the reference initial battery parameter; and calculating a difference between the target battery parameter value and the reference battery parameter value, and determining, based on the difference, that the target battery is micro-short-circuited.
A thermotherapy device, in particular an incubator, for treating newborns, having a bordered reclining surface that is freely accessible from above for receiving a newborn, a hood that is movable between a closed position covering the bordered reclining surface and an open position freeing the bordered reclining surface, and a radiant heating system that is suspended on a supporting structure and is directed at the bordered reclining surface, wherein the hood is suspended on the supporting structure in such a way that after the movement out of the closed position into the open position it lies with its end, which faces the supporting structure, vertically at least at the level of the radiant heating system and horizontally further away from the supporting structure than the heating system so that the hood occupies a position outside the radiation cone from the radiant heating system to the reclining surface, characterised in that the end of the hood that faces the supporting structure is guided by a coupling mechanism on a circular path about a point of rotation on the supporting structure.
A device for cutting area substrates loaded with active agents, in particular transdermal systems, such as plasters containing active agents, or orally administered active agent films, wherein the substrate is embodied as a continuous substrate, which is continuously transported for transport by means of feeding means (2, 3), wherein the feeding means (2, 3) comprise a first and a second roller pair exerting feeding torques upon the continuous substrate, and the continuous substrate is tensioned between the roller pairs (2, 3) in a suspended manner, and wherein the device comprises a cutting region between the roller pairs (2, 3), having a cutting laser for the segment-type cutting of the substrate, which executes a contact-free cutting along a predetermined contour, characterized in that the cutting laser executes the contact-free cutting at an adjustable cutting depth, wherein the cutting laser may separate variable layers of various cutting depths in the continuous substrate by means of focusing means, and/or via a power regulation.
Infrastructure equipment for use in a telecommunications system, the infrastructure equipment comprising: transceiver circuitry and control circuitry, whereby the transceiver circuitry, under control of the control circuitry, is configured to: transmit first data to a first mobile device and second data to a second mobile device, wherein the transmission period of the second data is shorter than the transmission period of the first data and the second data is transmitted by occupying a subset of the resources allocated to the first data; transmit to the first mobile device re-transmit data that contains information indicating a delay at which retransmission of the first data whose resources were allocated to the second data will take place after the transmission of the first data. transceiver circuitry and control circuitry, whereby the transceiver circuitry, under control of the control circuitry, is configured to: transmit first data to a first mobile device and second data to a second mobile device, wherein the transmission period of the second data is shorter than the transmission period of the first data and the second data is transmitted by occupying a subset of the resources allocated to the first data; transmit to the first mobile device re-transmit data that contains information indicating a delay at which retransmission of the first data whose resources were allocated to the second data will take place after the transmission of the first data.
A drive device for a bending press comprising a press frame with a press table and a press beam which is adjustable relative to the press table via a hydraulic system comprising a hydraulic pump with a controllable drive motor, switching and control means and pressure lines and a pressure store with pressure cylinders chargeable by a pressure medium, and that the hydraulic system with a ring line comprising the hydraulic pump forms a switchable flow circuit closed by control valves (39, 41, 58, 84, 86, 87, 88, 89) for the pressure medium with a first line section of the ring line between a pressure chamber of at least one pressure cylinder and the hydraulic pump and with a second line section of the ring line between an additional pressure chamber of the pressure cylinder and the hydraulic pump and the pressure store is flow-connected via at least one of the control valves (58, 84, 86) optionally to the first line section or the second line section of the ring line for holding or releasing a stored volume of the pressure medium, characterized in that a piston active surface crucial for applying the pressing force onto the press beam of a piston separating a cylinder chamber into the pressure chambers (22, 23) is smaller than a piston active surface opposite said piston active surface and a surface ratio of the piston active surfaces (32, 33) is greater than 1 to less than 1.5 and the line sections (51, 53) are flow-connected to the pressure chambers (22, 23) of the pressure cylinder directly via a bypass line by means of suitable hydraulic valve combinations.
A method comprising: providing a biological sample on a swab, wherein said swab has been chemically modified to enhance selectivity for an analyte, wherein said chemical modification binds analyte or analytes of interest, and wherein said swab is coated with ODS/C18 (octadecyl), polydimethylsiloxane ("PDMS"), Oasis MAX (mixed-mode cation exchange), Oasis HLB (hydrophilic-lipophilic-balanced), Oasis MCX (mixed-mode cation exchange), C18 (octadecyl), C18 (octadecyl) EC (end capped), HLB (hydrophilic lipophilic balanced particles) and/or divinyl benzene ("DVB"); directing a spray of charged droplets onto a surface of said swab in order to generate a plurality of analyte ions, wherein directing said spray of charged droplets onto said swab comprises ionising said sample using Desorption Electrospray lonisation ("DESI") or desorption electroflow focusing ionisation ("DEFFI"); mass analysing and/or ion mobility analysing said analyte ions or ions derived from said analyte ions in order to obtain mass spectrometric and/or ion mobility data; and analysing said mass spectrometric data and/or said ion mobility data. providing a biological sample on a swab, wherein said swab has been chemically modified to enhance selectivity for an analyte, wherein said chemical modification binds analyte or analytes of interest, and wherein said swab is coated with ODS/C18 (octadecyl), polydimethylsiloxane ("PDMS"), Oasis MAX (mixed-mode cation exchange), Oasis HLB (hydrophilic-lipophilic-balanced), Oasis MCX (mixed-mode cation exchange), C18 (octadecyl), C18 (octadecyl) EC (end capped), HLB (hydrophilic lipophilic balanced particles) and/or divinyl benzene ("DVB"); directing a spray of charged droplets onto a surface of said swab in order to generate a plurality of analyte ions, wherein directing said spray of charged droplets onto said swab comprises ionising said sample using Desorption Electrospray lonisation ("DESI") or desorption electroflow focusing ionisation ("DEFFI"); mass analysing and/or ion mobility analysing said analyte ions or ions derived from said analyte ions in order to obtain mass spectrometric and/or ion mobility data; and analysing said mass spectrometric data and/or said ion mobility data.
A water-sport mask comprising: a visor; a frame having an upper part and surrounding the visor; a flexible skirt mounted on the frame, the skirt comprising a partition delimiting an upper chamber for the vision and a lower chamber for the respiration, the partition being arranged to bear upon the top of the user's nose so that the user's mouth and nose are positioned within the lower chamber, while the user's eyes are positioned within the upper chamber, the partition having at least one passageway arranged to allow circulation of ambient air directed from the upper chamber to the lower chamber during an inhalation phase; a conduit having an inlet channel enabling entry of ambient air and at least a first escape channel enabling exit of exhaust air, said conduit extending at an upper part of the frame, the inlet channel opening into the upper chamber, while the first escape channel communicates with the lower chamber; the water-sport mask being characterized in that: the frame is rigid; and in that the frame comprises at least one first inner duct enabling exit of exhaust air, said first inner duct having an upper end opening into the first escape channel, and a lower end in fluid communication with the lower chamber. a visor; a frame having an upper part and surrounding the visor; a flexible skirt mounted on the frame, the skirt comprising a partition delimiting an upper chamber for the vision and a lower chamber for the respiration, the partition being arranged to bear upon the top of the user's nose so that the user's mouth and nose are positioned within the lower chamber, while the user's eyes are positioned within the upper chamber, the partition having at least one passageway arranged to allow circulation of ambient air directed from the upper chamber to the lower chamber during an inhalation phase; a conduit having an inlet channel enabling entry of ambient air and at least a first escape channel enabling exit of exhaust air, said conduit extending at an upper part of the frame, the inlet channel opening into the upper chamber, while the first escape channel communicates with the lower chamber; the water-sport mask being characterized in that: the frame is rigid; and in that the frame comprises at least one first inner duct enabling exit of exhaust air, said first inner duct having an upper end opening into the first escape channel, and a lower end in fluid communication with the lower chamber. the frame is rigid; and in that the frame comprises at least one first inner duct enabling exit of exhaust air, said first inner duct having an upper end opening into the first escape channel, and a lower end in fluid communication with the lower chamber.
A data privacy method for a cluster system comprising a redundant array of independent nodes networked together, each node being configured to provide object-based storage, the method comprising: - sharing a session key across the nodes of the cluster system by storing n key pieces, which result from splitting the session key, into respective configuration files on respective nodes of the cluster system, any t key pieces of the n key pieces enabling to reconstruct the session key; - running, on each node at startup of the cluster system, a process which reads the respective configuration file and contacts plural nodes of the cluster system via multicast asking for their key pieces to obtain a sufficient t value for reconstructing the session key; - reconstructing the session key by joining t key pieces to reconstruct the session key once a configurable number of nodes are available to provide their respective key pieces of the session key to obtain the sufficient t value for reconstructing the session key; - using the session key to decrypt a second key; - mounting, in each of the t nodes cooperating to reconstruct the session key, at least one drive by using the decrypted second key; and - destroying the session key upon demand to restrict access to data stored in the cluster system. - sharing a session key across the nodes of the cluster system by storing n key pieces, which result from splitting the session key, into respective configuration files on respective nodes of the cluster system, any t key pieces of the n key pieces enabling to reconstruct the session key; - running, on each node at startup of the cluster system, a process which reads the respective configuration file and contacts plural nodes of the cluster system via multicast asking for their key pieces to obtain a sufficient t value for reconstructing the session key; - reconstructing the session key by joining t key pieces to reconstruct the session key once a configurable number of nodes are available to provide their respective key pieces of the session key to obtain the sufficient t value for reconstructing the session key; - using the session key to decrypt a second key; - mounting, in each of the t nodes cooperating to reconstruct the session key, at least one drive by using the decrypted second key; and - destroying the session key upon demand to restrict access to data stored in the cluster system.
A method for power management of a portable electronic device, the method comprising: tracking over time, with a power manager of the portable electronic device, a usage pattern of occurrences of a power consumption event in the portable electronic device; forecasting, with the power manager, based on at least the usage pattern of occurrences, a likely future occurrence of the power consumption event in the portable electronic device, the forecasted power consumption event having a power consumption requirement; selecting, in response to the forecasting, one of a plurality of energy storage devices in an energy storage device farm for the portable electronic device, the selecting being based at least on the power consumption requirement of the forecasted power consumption event and on one or more characteristics of the one of the plurality of energy storage devices; and executing, upon its occurrence, the forecasted power consumption event in the portable electronic device using energy stored in the selected one of the plurality of energy storage devices. tracking over time, with a power manager of the portable electronic device, a usage pattern of occurrences of a power consumption event in the portable electronic device; forecasting, with the power manager, based on at least the usage pattern of occurrences, a likely future occurrence of the power consumption event in the portable electronic device, the forecasted power consumption event having a power consumption requirement; selecting, in response to the forecasting, one of a plurality of energy storage devices in an energy storage device farm for the portable electronic device, the selecting being based at least on the power consumption requirement of the forecasted power consumption event and on one or more characteristics of the one of the plurality of energy storage devices; and executing, upon its occurrence, the forecasted power consumption event in the portable electronic device using energy stored in the selected one of the plurality of energy storage devices.
A case for a gas turbine engine, the case comprising: a case wall; and a boss (124;124';124") that extends from the case wall, the boss (124;124';124") including a flat top surface, a perimeter step atop the boss (124;124';124"), wherein the perimeter step is radiused, characterised in that: the perimeter step defines a height parallel to the flat top surface of the boss (124;124';124"), the perimeter step being of a uniform height. a case wall; and a boss (124;124';124") that extends from the case wall, the boss (124;124';124") including a flat top surface, a perimeter step atop the boss (124;124';124"), wherein the perimeter step is radiused, characterised in that: the perimeter step defines a height parallel to the flat top surface of the boss (124;124';124"), the perimeter step being of a uniform height.
A method for performing a measurement report in a wireless communication system, the method comprising: receiving, by a terminal, a measurement configuration for acquiring a measurement result; acquiring, by the terminal, the measurement result based on the measurement configuration; activating or deactivating a positioning for acquiring location information, wherein the positioning is activated if the measurement configuration indicates an acquisition of the location information and if a user consent for the acquisition of the location information is valid, wherein the positioning is deactivated if the measurement configuration indicates the acquisition of the location information and if the user consent for the acquisition of the location information is not valid, and wherein the user consent is valid if the terminal camps on a specific cell in a specific cell list and if the terminal camps on a cell other than the cell included in the cell list, the user consent is no longer valid; and transmitting (S1540, S1550) a measurement report message to a network, wherein if the positioning is activated, the measurement report message includes the measurement result and the location information related to the measurement result, and wherein if the positioning is not activated, the measurement report message includes only the measurement result. receiving, by a terminal, a measurement configuration for acquiring a measurement result; acquiring, by the terminal, the measurement result based on the measurement configuration; activating or deactivating a positioning for acquiring location information, wherein the positioning is activated if the measurement configuration indicates an acquisition of the location information and if a user consent for the acquisition of the location information is valid, wherein the positioning is deactivated if the measurement configuration indicates the acquisition of the location information and if the user consent for the acquisition of the location information is not valid, and wherein the user consent is valid if the terminal camps on a specific cell in a specific cell list and if the terminal camps on a cell other than the cell included in the cell list, the user consent is no longer valid; and transmitting (S1540, S1550) a measurement report message to a network, wherein if the positioning is activated, the measurement report message includes the measurement result and the location information related to the measurement result, and wherein if the positioning is not activated, the measurement report message includes only the measurement result.
A system for a vascular medical device (10, 20) retrieval, the system comprising: an elongate sleeve, and an elongate shaft received within the sleeve, the shaft having a flexible distal extension, the extension folded-back inwardly at a distal opening to form a flap and a more proximal opening; wherein the proximal opening is sized to receive and pass an enlarged end (12, 22) of the medical device (10, 20) therethrough, characterized in that the system is adapted so the enlarged end (12, 22) of the medical device (10, 20) is secured in a pocket within the distal extension when the sleeve is advanced over the distal extension, and wherein the system is adapted for reversing the flap from being positioned inwardly to positioned outwardly for releasing the enlarged end (12, 22) of the medical device (10, 20), wherein the adaptation for reversing the flap is a pusher (64, 200) received within a lumen of the shaft. an elongate sleeve, and an elongate shaft received within the sleeve, the shaft having a flexible distal extension, the extension folded-back inwardly at a distal opening to form a flap and a more proximal opening; wherein the proximal opening is sized to receive and pass an enlarged end (12, 22) of the medical device (10, 20) therethrough, characterized in that the system is adapted so the enlarged end (12, 22) of the medical device (10, 20) is secured in a pocket within the distal extension when the sleeve is advanced over the distal extension, and wherein the system is adapted for reversing the flap from being positioned inwardly to positioned outwardly for releasing the enlarged end (12, 22) of the medical device (10, 20), wherein the adaptation for reversing the flap is a pusher (64, 200) received within a lumen of the shaft.
A method for communication in a communication network, carried out by a component in the communication network, in which the component assigns an authorization level to a subscriber at a time when a resource is accessed in the communication network, dependent upon the applicable scenario at the time when the authorization level is assigned to the subscriber in the communication network, characterized in that the authorization level is assigned automatically dependent upon a parameter set that characterizes the scenario and comprises at least the temporary function of the subscriber, and the authorization level is adapted dynamically to changes in the parameter set.
A method of detecting a plurality of targets in a biological sample, comprising: (a) simultaneously contacting the biological sample with a plurality of target-binding probes comprising multiple sets of target-binding probes, comprising a target-binding moiety and an independently detectable moiety, to form a plurality of target-bound probes and further removing any un-bound probes by washing the biological sample with a suitable buffer; (b) covalently attaching at least one of the target-bound probes to the biological sample; (c) observing a first set of signals from a first set of the plurality of covalently attached target-bound probes; (d) modifying the observed first set of signals by applying a chemical agent; (e) after step (d) generating a second set of signals from a second set of the plurality of multiple sets of target-bound probes by associating a signal-generating moiety with the independently detectable moiety of said second set of the plurality of target-bound probes; and (f) observing the second set of signals. (a) simultaneously contacting the biological sample with a plurality of target-binding probes comprising multiple sets of target-binding probes, comprising a target-binding moiety and an independently detectable moiety, to form a plurality of target-bound probes and further removing any un-bound probes by washing the biological sample with a suitable buffer; (b) covalently attaching at least one of the target-bound probes to the biological sample; (c) observing a first set of signals from a first set of the plurality of covalently attached target-bound probes; (d) modifying the observed first set of signals by applying a chemical agent; (e) after step (d) generating a second set of signals from a second set of the plurality of multiple sets of target-bound probes by associating a signal-generating moiety with the independently detectable moiety of said second set of the plurality of target-bound probes; and (f) observing the second set of signals.