mhurhangee/ep-ind-claims huggingface dataset:
A method for allocating requests for observations of geographic areas to be carried out to a plurality of satellites, said method including steps of: - decomposition of each geographic area to be observed into one or more elementary areas to be acquired, each elementary area being adapted to be acquired by an observation instrument of one of the satellites during an overflight of said geographic area by said satellite, - for each elementary area: determination of at least one acquisition opportunity of said elementary area corresponding to the overflight of this elementary area by at least one of the satellites, over a predetermined time window, - provisional allocation of the elementary areas to the plurality of satellites, depending on the acquisition opportunities and depending on a preliminary model which approximately models the attitude manoeuvres and acquisitions of each satellite, characterised in that said method comprises a step of: - for each satellite: evaluation of feasibility over the time window of the acquisitions of the elementary areas provisionally allocated to said satellite depending on an operational model which accurately models the attitude manoeuvres and the acquisitions of said satellite, and definitive allocation to said satellite of each elementary area which is provisionally allocated to said satellite and whose acquisition is validated according to the operational model of said satellite over the time window. - decomposition of each geographic area to be observed into one or more elementary areas to be acquired, each elementary area being adapted to be acquired by an observation instrument of one of the satellites during an overflight of said geographic area by said satellite, - for each elementary area: determination of at least one acquisition opportunity of said elementary area corresponding to the overflight of this elementary area by at least one of the satellites, over a predetermined time window, - provisional allocation of the elementary areas to the plurality of satellites, depending on the acquisition opportunities and depending on a preliminary model which approximately models the attitude manoeuvres and acquisitions of each satellite, - for each satellite: evaluation of feasibility over the time window of the acquisitions of the elementary areas provisionally allocated to said satellite depending on an operational model which accurately models the attitude manoeuvres and the acquisitions of said satellite, and definitive allocation to said satellite of each elementary area which is provisionally allocated to said satellite and whose acquisition is validated according to the operational model of said satellite over the time window.
A method for cleaning a ballast bed of a track by means of track-bound machines (8, 18, 21), with ballast located below a track panel being removed by means of a cleaning machine using a ballast removal device, with cleaned and/or new ballast being placed behind, in relation to a working direction, in the track in several layers by means of a ballast placement device and a ballast train, and with the placed ballast being compacted by means of a tamping machine and a stabilizing machine, characterized in that, prior to a first tamping process, all layers of the new and/or cleaned ballast are placed by means of the ballast placement device and the ballast train, that the ballast bed is compacted in different depth layers during the first tamping process by means of a deep tamping unit, that the track is then stabilized by means of the stabilizing machine, that the track panel is then immediately tamped in only one depth layer by means of the same or a further tamping machine in a second tamping process, and that the track is stabilized after the second tamping process by means of the same or a further stabilizing machine.
A system for modulating the nervous system to reduce inflammation, comprising: a pulse generator, wherein the pulse generator generates pulsed electrical signals; a lead; one or more electrodes communicatively coupled to the pulse generator via the lead, wherein the pulse generator is configured to apply the pulsed electrical signal to one or more nerves via the one or more electrodes; and a processor configured to: deliver a vagus nerve stimulation, VNS, therapy to a vagus nerve of a patient for the treatment of inflammation via the one or more electrodes according to a first set of parameters; and deliver a secondary nerve stimulation, SNS, therapy to a secondary nerve of the patient for affecting a sleep quality of the patient via the one or more electrodes according to a second set of parameters different from the first set of parameters, wherein the secondary nerve comprises one or more of the hypoglossal nerve, the carotid sinus nerve, the aortic depressor nerve, the greater splanchnic nerve, the splenic nerve, the trigeminal nerve, and the paravertebral ganglia of sympathetic nerves. a pulse generator, wherein the pulse generator generates pulsed electrical signals; a lead; one or more electrodes communicatively coupled to the pulse generator via the lead, wherein the pulse generator is configured to apply the pulsed electrical signal to one or more nerves via the one or more electrodes; and a processor configured to: deliver a vagus nerve stimulation, VNS, therapy to a vagus nerve of a patient for the treatment of inflammation via the one or more electrodes according to a first set of parameters; and deliver a secondary nerve stimulation, SNS, therapy to a secondary nerve of the patient for affecting a sleep quality of the patient via the one or more electrodes according to a second set of parameters different from the first set of parameters, wherein the secondary nerve comprises one or more of the hypoglossal nerve, the carotid sinus nerve, the aortic depressor nerve, the greater splanchnic nerve, the splenic nerve, the trigeminal nerve, and the paravertebral ganglia of sympathetic nerves. deliver a vagus nerve stimulation, VNS, therapy to a vagus nerve of a patient for the treatment of inflammation via the one or more electrodes according to a first set of parameters; and deliver a secondary nerve stimulation, SNS, therapy to a secondary nerve of the patient for affecting a sleep quality of the patient via the one or more electrodes according to a second set of parameters different from the first set of parameters, wherein the secondary nerve comprises one or more of the hypoglossal nerve, the carotid sinus nerve, the aortic depressor nerve, the greater splanchnic nerve, the splenic nerve, the trigeminal nerve, and the paravertebral ganglia of sympathetic nerves.
Implantable device for use in the human and/or animal body for closure or partial closure of defect openings, cavities, organ passages, etc. or for providing a defined communicating opening between walls, organs, cavities, etc., comprising a carrier structure, which in a primary form has a large ratio of length to transverse extent along an axis (x) and in a secondary form has a smaller ration of length to transverse extent along the axis (x), wherein the carrier structure has a proximal and a distal portion (10, 11) and is formed in the manner of a weft and/or mesh and/or layered cloth and/or gauze, wherein at least the one portion in the secondary form has a first part facing outwardly away from the other portion and a second part, which deploys first from the primary form into the secondary from and which is folded back in a direction towards or away from the other portion on to the first part, characterized in that the folded-over part is folded back inwardly into the implantable device.
A method for a managing mobile transceiver assigning radio resources to one or more other mobile transceivers in a group of mobile transceivers in a communication environment having two or more radio access technologies available, the method comprising obtaining information on desired services and desired qualities of service from the mobile transceivers in the group of mobile transceivers; obtaining information on a quality of service available in the two or more radio access technologies; and allocating radio resources of at least one of the two or more radio access technologies to the mobile transceivers of the group of mobile transceivers based on the information on the desired services and desired qualities of service and based on the information on the quality of service available. obtaining information on desired services and desired qualities of service from the mobile transceivers in the group of mobile transceivers; obtaining information on a quality of service available in the two or more radio access technologies; and allocating radio resources of at least one of the two or more radio access technologies to the mobile transceivers of the group of mobile transceivers based on the information on the desired services and desired qualities of service and based on the information on the quality of service available.
A radiation curable composition for additive fabrication comprising: a) from 40 to 95 wt.%, based on the total weight of the composition, of a urethane methacrylate oligomer having at least one polymerizable group, wherein the urethane methacrylate oligomer is the reaction product of a diisocyanate, a polyol, and a hydroxy-functional methacrylate, and wherein the urethane methacrylate oligomer has a number average molecular weight (M n) from 750 to 4000 g/mol; b) an effective quantity of a monofunctional reactive diluent monomer; c) from 2 to 20 wt.%, based on the total weight of the composition, of a methacrylate-functional network building agent comprising a number average of greater than 1.5 polymerizable groups; wherein at least one of the polymerizable groups of the methacrylate-functional NBA is able to (co)polymerize with the at least one polymerizable group of the urethane methacrylate oligomer, and wherein the methacrylate-functional NBA possesses an M n value that is less than the M n value of the urethane methacrylate oligomer and higher than the M n of the reactive diluent monomer; d) optionally, one or more photoinitiators; and e) optionally, one or more additives; wherein M n is measured by size exclusion chromatography calibrated with a polystyrene standard in tetrahydrofuran. a) from 40 to 95 wt.%, based on the total weight of the composition, of a urethane methacrylate oligomer having at least one polymerizable group, wherein the urethane methacrylate oligomer is the reaction product of a diisocyanate, a polyol, and a hydroxy-functional methacrylate, and wherein the urethane methacrylate oligomer has a number average molecular weight (M n) from 750 to 4000 g/mol; wherein the urethane methacrylate oligomer is the reaction product of a diisocyanate, a polyol, and a hydroxy-functional methacrylate, and wherein the urethane methacrylate oligomer has a number average molecular weight (M n) from 750 to 4000 g/mol; b) an effective quantity of a monofunctional reactive diluent monomer; c) from 2 to 20 wt.%, based on the total weight of the composition, of a methacrylate-functional network building agent comprising a number average of greater than 1.5 polymerizable groups; wherein at least one of the polymerizable groups of the methacrylate-functional NBA is able to (co)polymerize with the at least one polymerizable group of the urethane methacrylate oligomer, and wherein the methacrylate-functional NBA possesses an M n value that is less than the M n value of the urethane methacrylate oligomer and higher than the M n of the reactive diluent monomer; wherein at least one of the polymerizable groups of the methacrylate-functional NBA is able to (co)polymerize with the at least one polymerizable group of the urethane methacrylate oligomer, and wherein the methacrylate-functional NBA possesses an M n value that is less than the M n value of the urethane methacrylate oligomer and higher than the M n of the reactive diluent monomer; d) optionally, one or more photoinitiators; and e) optionally, one or more additives;
A computer-implemented system for individual record encryption, comprising: a plurality of records (17, 25) associated with incoming calls to a call center; a key generator adapted to randomly generate for each of the records, a unique encryption key (15, 27) based on a unique key counter assigned to that record; an encryption module (13a-b) adapted to uniquely encrypt each of the records (17, 25) using the encryption key (15, 27) generated for that record (17, 25); wherein the system is adapted to assign a separate identification code to each of the encrypted records (17, 25) and the associated encryption key(15, 27); and a database (14, 16, 24, 26) adapted to store the unique encryption keys (15, 27) with their assigned identification codes in a location separate from the encrypted records (17, 25). a plurality of records (17, 25) associated with incoming calls to a call center; a key generator adapted to randomly generate for each of the records, a unique encryption key (15, 27) based on a unique key counter assigned to that record; an encryption module (13a-b) adapted to uniquely encrypt each of the records (17, 25) using the encryption key (15, 27) generated for that record (17, 25); wherein the system is adapted to assign a separate identification code to each of the encrypted records (17, 25) and the associated encryption key(15, 27); and a database (14, 16, 24, 26) adapted to store the unique encryption keys (15, 27) with their assigned identification codes in a location separate from the encrypted records (17, 25).
A system (50, 300) for making braided barbed sutures comprising: a filament winding assembly; and a guide assembly including at least one barbed insert dispenser opening defining a passageway for orienting a barbed insert (100, 304), said guide assembly being adapted to dispense at least one barbed insert from said dispenser opening into said filament winding assembly, wherein said passageway of said dispenser opening is adapted to allow longitudinal movement of said at least one barbed insert relative to said passageway while simultaneously preventing twisting movement of said at least one barbed insert relative to said passageway. a filament winding assembly; and a guide assembly including at least one barbed insert dispenser opening defining a passageway for orienting a barbed insert (100, 304), said guide assembly being adapted to dispense at least one barbed insert from said dispenser opening into said filament winding assembly, wherein said passageway of said dispenser opening is adapted to allow longitudinal movement of said at least one barbed insert relative to said passageway while simultaneously preventing twisting movement of said at least one barbed insert relative to said passageway.
A system, comprising: driver circuitry configured to provide electrical power to energize a motor to control movement of a rotor and a shaft of the motor; a mechanical relay system configured to couple to a first conductor; a solid-state relay system configured to couple to a second conductor, wherein the first conductor and the second conductor are configured to couple to an electromagnetic brake, and wherein the electromagnetic brake is configured to control movement of the rotor by applying friction to the rotor; and a control system configured to: receive a request to stop the movement of the rotor; send a first signal to the solid-state relay system in response to receiving the request, wherein the first signal is configured to cause a solid-state relay to open; and send a second signal to the mechanical relay system after sending the first signal to the solid-state relay system, wherein the second signal is configured to cause a mechanical relay to open, wherein the mechanical relay and the solid-state relay are electrically coupled parallel to the driver circuitry. driver circuitry configured to provide electrical power to energize a motor to control movement of a rotor and a shaft of the motor; a mechanical relay system configured to couple to a first conductor; a solid-state relay system configured to couple to a second conductor, wherein the first conductor and the second conductor are configured to couple to an electromagnetic brake, and wherein the electromagnetic brake is configured to control movement of the rotor by applying friction to the rotor; and a control system configured to: receive a request to stop the movement of the rotor; send a first signal to the solid-state relay system in response to receiving the request, wherein the first signal is configured to cause a solid-state relay to open; and send a second signal to the mechanical relay system after sending the first signal to the solid-state relay system, wherein the second signal is configured to cause a mechanical relay to open, receive a request to stop the movement of the rotor; send a first signal to the solid-state relay system in response to receiving the request, wherein the first signal is configured to cause a solid-state relay to open; and send a second signal to the mechanical relay system after sending the first signal to the solid-state relay system, wherein the second signal is configured to cause a mechanical relay to open, wherein the mechanical relay and the solid-state relay are electrically coupled parallel to the driver circuitry.
A junction box (100, 200), comprising a casing (120, 220), wherein the casing (120, 220) comprises a first installation space (1282, 2212) and a second installation space (1225, 2232); the junction box (100, 200) further comprises a connection part (150, 250) arranged in the casing (120, 220); the connection part (150, 250) comprises a main body (152, 252), a first connection end (153, 253), and a second connection end (155, 255); the main body (152, 252) is used for connecting to a cable; the first connection end (153, 253) is connected to the main body (152, 252), is located in the first installation space (1282, 2212) and is used for connecting to a contactor; and the second connection end (155, 255) is arranged on the first connection end (153, 253) and is located in the second installation space (1225, 2232), characterized in that the main body (152, 252) is located on one side of the junction box (100, 200), and the first connection end (153, 253) and the second connection end (155, 255) are located on the other, opposite side of the junction box (100, 200).
A peptide comprising an amino acid sequence selected from the group consisting of SEQ ID NOs: 3, 4 and 5, wherein said peptide is 100 or less, 50 or less, 20 or less, or 10 or less amino acids long.
An archive box made from a cut and folded blank, said blank being constituted by a strip having folding lines (7; 8; 9; 10) in order to successively define a front face, a bottom, a rear face, a top and a closing flap on the front face, said strip laterally carrying, on either side thereof, blanks (4-3; 32) hinged thereto by folding lines in order to constitute the lateral walls of the box once formed, at least one of the lateral walls being formed by appending two blanks, one blank being carried by the front face and the other blank being carried by the rear face, one being the inner blank and the other being the outer blank, each blank (4-3; 32) being connected to its associated face (12-19; 27) by a folding line (20-14; 35), the box being characterized in that each blank carries, on its edge opposite to said folding line (20-14; 35), a tab (24; 39), a notch (42-41; 21) being further formed on each of the folding lines (35; 20-14) of the blanks (32; 4-3) such that, when both blanks (32; 4-3) are appended, the tab (24; 39) of one of the blanks (4-3; 32) being configured to be inserted within the notch (42-41; 21) formed on the folding line (35; 20-14) of the other blank (32; 4-3), the tab of the outer blank is inserted within the notch formed on the folding line of the inner blank in order to close the lateral wall.
A microwave waveguide circulator composed of a Y-shaped junction forming waveguide and waveguides (32-1, 32-2, 32-3) of rectangular cross section which are positioned horizontally on a predetermined plane and extend in different three directions from the Y-shaped junction forming waveguide, wherein two ferrite members (18, 20) are placed in the Y-shaped junction forming waveguide so as to be oppositely disposed in the height direction of the Y-shaped junction forming waveguide, and at least one of the ferrite members is adhesively fixed to a pedestal disposed in the junction of the Y-shaped junction forming waveguide, a distance between the ferrite members is configured such that no arcing phenomenon appears, and the Y-shaped junction forming waveguide extends in the height direction forming an extended section of height, the height being greater than a height of the rectangular cross section waveguides (32-1, 32-2, 32-3) for compensating decreased impedance.
A user equipment, comprising: a determining unit, configured to detect a first reference signal, and determine, according to the detected first reference signal, a first resource on which the detected first reference signal is located, wherein the first reference signal comprises at least one of a cell-specific reference signal, CRS, and a channel state information reference signal, CSI-RS; a first power determining unit, configured to determine a reference signal received power, RSRP, of a target cell according to a received power of the first reference signal carried on the first resource; the determining unit, further configured to determine a second resource, wherein the second resource is used to not carry second reference information when a neighboring cell of the target cell is in a dormant state and used to carry the second reference information when the neighboring cell of the target cell changes from the dormant state to an active state, wherein the second reference information includes at least one of a primary synchronization signal, PSS, and a secondary synchronization signal, SSS; a second power determining unit, configured to determine a received signal strength indicator, RSSI, of the target cell according to a total received power on the second resource, wherein the first resource and the second resource are at different times; and a third power determining unit, configured to determine reference signal received quality, RSRQ, or a signal to interference plus noise ratio, SINR, of the target cell according to the RSRP and RSSI. a determining unit, configured to detect a first reference signal, and determine, according to the detected first reference signal, a first resource on which the detected first reference signal is located, wherein the first reference signal comprises at least one of a cell-specific reference signal, CRS, and a channel state information reference signal, CSI-RS; a first power determining unit, configured to determine a reference signal received power, RSRP, of a target cell according to a received power of the first reference signal carried on the first resource; the determining unit, further configured to determine a second resource, wherein the second resource is used to not carry second reference information when a neighboring cell of the target cell is in a dormant state and used to carry the second reference information when the neighboring cell of the target cell changes from the dormant state to an active state, wherein the second reference information includes at least one of a primary synchronization signal, PSS, and a secondary synchronization signal, SSS; a second power determining unit, configured to determine a received signal strength indicator, RSSI, of the target cell according to a total received power on the second resource, wherein the first resource and the second resource are at different times; and a third power determining unit, configured to determine reference signal received quality, RSRQ, or a signal to interference plus noise ratio, SINR, of the target cell according to the RSRP and RSSI.