mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication method, comprising: a step of setting a radio bearer between a radio base station (DeNB) and a relay node in an attach process of the relay node; a step of notifying the relay node, by the radio base station (DeNB), of information to designate a data radio bearer for each radio bearer of a plurality of radio bearers to be set and an information element indicating whether it is necessary for the data radio bearer to perform integrity protection, by using an information element settable within "RRC Connection Reconfiguration"; a step of generating, by the relay node, a key for integrity protection, for the data radio bearer for which it is necessary to perform integrity protection, with reference to the information element notified by the "RRC Connection Reconfiguration"; and a step of generating, by the radio base station (DeNB), a key for performing integrity protection for the data radio bearer for which it is necessary to perform integrity protection, in a security mode command process performed in an attach process of the relay node. a step of setting a radio bearer between a radio base station (DeNB) and a relay node in an attach process of the relay node; a step of notifying the relay node, by the radio base station (DeNB), of information to designate a data radio bearer for each radio bearer of a plurality of radio bearers to be set and an information element indicating whether it is necessary for the data radio bearer to perform integrity protection, by using an information element settable within "RRC Connection Reconfiguration"; a step of generating, by the relay node, a key for integrity protection, for the data radio bearer for which it is necessary to perform integrity protection, with reference to the information element notified by the "RRC Connection Reconfiguration"; and a step of generating, by the radio base station (DeNB), a key for performing integrity protection for the data radio bearer for which it is necessary to perform integrity protection, in a security mode command process performed in an attach process of the relay node.
A bioprocessing container tote system comprising a flexible inflatable bioprocessing bag and a tote for said bioprocessing bag, wherein the bioprocessing bag comprises a top wall, a bottom wall, and opposing side walls, providing an interior volume therein, characterized in that: (a) the system comprises a bioprocessing container tube management system comprising (i) said flexible bioprocessing bag; (ii) a tube support comprising a plate including a plurality of slots, wherein the tube support is attached to a wall of the bag; and, (iii) a plurality of hollow tubes attached to the bag and in fluid communication with the interior volume of the bag, wherein the tubes are retained in the slots of the tube support; and in that (b) the tote further comprises a tube management frame engageable with the tube support, wherein the tube management frame is attached to the tote, and, once the tube management frame is engaged with the tube support and the bioprocessing bag is inflated, the inflation of the bag pivots the tube management frame, guiding the plurality of tubes to a desired position on the tote. (a) the system comprises a bioprocessing container tube management system comprising (i) said flexible bioprocessing bag; (ii) a tube support comprising a plate including a plurality of slots, wherein the tube support is attached to a wall of the bag; and, (iii) a plurality of hollow tubes attached to the bag and in fluid communication with the interior volume of the bag, wherein the tubes are retained in the slots of the tube support; and in that (i) said flexible bioprocessing bag; (ii) a tube support comprising a plate including a plurality of slots, wherein the tube support is attached to a wall of the bag; and, (iii) a plurality of hollow tubes attached to the bag and in fluid communication with the interior volume of the bag, wherein the tubes are retained in the slots of the tube support; (b) the tote further comprises a tube management frame engageable with the tube support, wherein the tube management frame is attached to the tote, and, once the tube management frame is engaged with the tube support and the bioprocessing bag is inflated, the inflation of the bag pivots the tube management frame, guiding the plurality of tubes to a desired position on the tote.
An electric cleaning device comprising: an electric vacuum cleaner main body that is capable of autonomously traveling; and a beacon device (12, 60) that guides the electric vacuum cleaner main body, wherein the beacon device (12, 60) includes a transmitting part (55, 63) that transmits a guide signal (SL, SR) for guiding the electric vacuum cleaner main body, the electric vacuum cleaner main body includes: a main body case including an imaging part that images an object, a drive wheel that enable the main body case to travel, a control part that makes the main body case autonomously travel by controlling driving of the drive wheel, and a receiving part that receives the guide signal (SL, SR) transmitted by the transmitting part (55, 63), characterized in that, the transmitting part (55, 63) transmits the guide signal (SL, SR) in which a set direction where the electric vacuum cleaner main body should direct the imaging part toward an object is set, the control part has an imaging mode in which the control part makes the main body case travel so as to approach the beacon device (12, 60) in line with the guide signal (SL, SR) received by the receivingpart, and performs imaging in the set direction by the imaging part based on the guide signal (SL, SR) when the main body case reaches a position at a predetermined distance from the beacon device (12, 60). a main body case including an imaging part that images an object, a drive wheel that enable the main body case to travel, a control part that makes the main body case autonomously travel by controlling driving of the drive wheel, and a receiving part that receives the guide signal (SL, SR) transmitted by the transmitting part (55, 63), characterized in that, the transmitting part (55, 63) transmits the guide signal (SL, SR) in which a set direction where the electric vacuum cleaner main body should direct the imaging part toward an object is set, the control part has an imaging mode in which the control part makes the main body case travel so as to approach the beacon device (12, 60) in line with the guide signal (SL, SR) received by the receivingpart, and performs imaging in the set direction by the imaging part based on the guide signal (SL, SR) when the main body case reaches a position at a predetermined distance from the beacon device (12, 60).
A medical device comprising: a catheter portion; a first graft portion that is attached to the catheter portion via a first connector; and a second graft portion that is attached to the catheter portion via a second connector, wherein the catheter portion differs in composition from the first graft portion and the second graft portion, wherein the catheter portion has a crush force that is greater than both a crush force of the first graft portion and a crush force of the second graft portion, and wherein one or both of the first graft portion and the second graft portion comprise an inner layer of polymeric material, an outer layer of polymeric material, and a porous tube disposed between the inner layer of polymeric material and the outer layer of polymeric material, the porous tube comprising a metal alloy. a catheter portion; a first graft portion that is attached to the catheter portion via a first connector; and a second graft portion that is attached to the catheter portion via a second connector, wherein the catheter portion differs in composition from the first graft portion and the second graft portion, wherein the catheter portion has a crush force that is greater than both a crush force of the first graft portion and a crush force of the second graft portion, and wherein one or both of the first graft portion and the second graft portion comprise an inner layer of polymeric material, an outer layer of polymeric material, and a porous tube disposed between the inner layer of polymeric material and the outer layer of polymeric material, the porous tube comprising a metal alloy.
A light source system (200, 500, 600, 700, 1000, 1100, 1200, 1600, 2200, 2400, 2600), comprising: a light generating device adapted to sequentially generate a first light and a second light; a light division system adapted to divide the first light from the light generating device into a light in a first wavelength range and a light in a second wavelength range, to output them along a first light path and a second light path, respectively, and to output at least a part of the second light from the light generating device along the first light path; a first spatial light modulator (211, 511, 611, 711, 1011, 1111, 1211, 1611, 1811, 2211, 2411, 2611, 2811, 3111) adapted to modulate the lights outputted along the first light path by the light division system; and a second spatial light modulator (213, 513, 613, 713, 1013, 1113, 1213, 1613, 1813, 2213, 2413, 2613, 2813, 3113) adapted to modulate at least a part of the light outputted along the second light path by the light division system, and characterized in that the light generating device comprises at least a first light source (201, 501, 601, 701, 1001, 1101, 1201, 1401b, 11b, 1801, 2201B, 2401, 2601A, 2601B, 2801, 2802, 3102) adapted to generate blue light or UV light, and wherein the first light is a yellow light and the second light is a blue light. a light generating device adapted to sequentially generate a first light and a second light; a light division system adapted to divide the first light from the light generating device into a light in a first wavelength range and a light in a second wavelength range, to output them along a first light path and a second light path, respectively, and to output at least a part of the second light from the light generating device along the first light path; a first spatial light modulator (211, 511, 611, 711, 1011, 1111, 1211, 1611, 1811, 2211, 2411, 2611, 2811, 3111) adapted to modulate the lights outputted along the first light path by the light division system; and a second spatial light modulator (213, 513, 613, 713, 1013, 1113, 1213, 1613, 1813, 2213, 2413, 2613, 2813, 3113) adapted to modulate at least a part of the light outputted along the second light path by the light division system, and characterized in that the light generating device comprises at least a first light source (201, 501, 601, 701, 1001, 1101, 1201, 1401b, 11b, 1801, 2201B, 2401, 2601A, 2601B, 2801, 2802, 3102) adapted to generate blue light or UV light, and wherein the first light is a yellow light and the second light is a blue light.
A flat cable, comprising: at least two conductors disposed apart from each other and in parallel to each other, and an insulating covering disposed over a periphery of the at least two conductors, and formed of a vinyl chloride-based resin composition having a brittle temperature measured by JIS K6723 6.6 of from -40 Celsius degrees to -25 Celsius degrees, an hardness D measured by JIS K6253 of from 35 to 55, and heating deformation measured by JIS K6723 6.5 of 10% or below, wherein the vinyl chloride-based resin composition comprises polyvinyl chloride with an average degree of polymerization measured by JIS K6720 of from 700 to 3000 as a base resin, a plasticizer, a stabilizer, a filler and a processing aid, wherein the content of the plasticizer is from 35 parts by mass to 55 parts by mass based on 100 parts by mass of the base resin, and wherein the content of the processing aid is from 0.1 parts by mass to 10 parts by mass based on 100 parts by mass of the base resin. at least two conductors disposed apart from each other and in parallel to each other, and an insulating covering disposed over a periphery of the at least two conductors, and formed of a vinyl chloride-based resin composition having a brittle temperature measured by JIS K6723 6.6 of from -40 Celsius degrees to -25 Celsius degrees, an hardness D measured by JIS K6253 of from 35 to 55, and heating deformation measured by JIS K6723 6.5 of 10% or below, wherein the vinyl chloride-based resin composition comprises polyvinyl chloride with an average degree of polymerization measured by JIS K6720 of from 700 to 3000 as a base resin, a plasticizer, a stabilizer, a filler and a processing aid, wherein the content of the plasticizer is from 35 parts by mass to 55 parts by mass based on 100 parts by mass of the base resin, and wherein the content of the processing aid is from 0.1 parts by mass to 10 parts by mass based on 100 parts by mass of the base resin.
A method for measuring cell-mediated immune response activity, said method comprising: (a) providing an incubation composition by contacting a sample comprising immune cells capable of producing immune effector molecules following stimulation by a peptide antigen with at least one peptide antigen having a length selected from 5 to 100 amino acids and with at least one non-reducing sugar capable of increasing the interferon-gamma response of immune cells that respond to the antigen and/or capable of enhancing the production and/or release of immune effector molecules; and (b) detecting the presence or level of at least one immune effector molecule. (a) providing an incubation composition by contacting a sample comprising immune cells capable of producing immune effector molecules following stimulation by a peptide antigen with at least one peptide antigen having a length selected from 5 to 100 amino acids and with at least one non-reducing sugar capable of increasing the interferon-gamma response of immune cells that respond to the antigen and/or capable of enhancing the production and/or release of immune effector molecules; and (b) detecting the presence or level of at least one immune effector molecule.
A method for determining a functional significance of coronary artery stenosis comprising: obtaining a patient specific transluminal attenuation gradient, wherein TAG is defined as a spatial dispersion of contrast in the coronary artery of the patient, for the coronary artery of the patient; determining a time variation of a contrast at a predetermined location in the coronary artery of the patient, called an arterial input function or input bolus profile; calculating the coronary flow velocity and flow rate within the coronary artery from TAG and the arterial input function; calculating an estimate of the pressure gradient within the coronary artery using the coronary flow velocity, the arterial input function, information on the coronary luminal area, position and location within the artery; and using the PG to determine the functional significance of the coronary artery stenosis, wherein the method is executed using a computer readable medium. obtaining a patient specific transluminal attenuation gradient, wherein TAG is defined as a spatial dispersion of contrast in the coronary artery of the patient, for the coronary artery of the patient; determining a time variation of a contrast at a predetermined location in the coronary artery of the patient, called an arterial input function or input bolus profile; calculating the coronary flow velocity and flow rate within the coronary artery from TAG and the arterial input function; calculating an estimate of the pressure gradient within the coronary artery using the coronary flow velocity, the arterial input function, information on the coronary luminal area, position and location within the artery; and using the PG to determine the functional significance of the coronary artery stenosis,
An energy storage system comprising a temperature control apparatus, a case with an inner space, a battery module provided inside the case, a temperature sensor provided inside the case and spaced apart from the battery module, and an a Heating, Ventilation and Air Conditioning system (HVAC system, 130) provided inside the inner space of the case and configured to heat, cool or ventilate the inner space of the case, the temperature control apparatus comprising: a first communication unit configured to receive first temperature information indicating a temperature of the battery module; a second communication unit configured to receive, from the temperature sensor, second temperature information indicating a temperature measured by the temperature sensor; and a control unit connected with the first communication unit and the second communication unit in an operable manner, and configured to determine whether or not the first temperature information is received by the first communication unit and to determine whether or not the second temperature information is received by the second communication unit, characterized in that the control unit is configured to control the HVAC system based on the first temperature information while the first temperature information is received by the first communication unit, to estimate the first temperature information based on the second temperature information while the first temperature information is not received by the first communication unit and the second temperature information is received by the second communication unit, and to control the HVAC system based on the estimated first temperature information. a first communication unit configured to receive first temperature information indicating a temperature of the battery module; a second communication unit configured to receive, from the temperature sensor, second temperature information indicating a temperature measured by the temperature sensor; and a control unit connected with the first communication unit and the second communication unit in an operable manner, and configured to determine whether or not the first temperature information is received by the first communication unit and to determine whether or not the second temperature information is received by the second communication unit, characterized in that the control unit is configured to control the HVAC system based on the first temperature information while the first temperature information is received by the first communication unit, to estimate the first temperature information based on the second temperature information while the first temperature information is not received by the first communication unit and the second temperature information is received by the second communication unit, and to control the HVAC system based on the estimated first temperature information.
A grate for the incineration of solid materials, comprising at least one series of grates with a plurality of grate elements arranged beside each other, wherein each grate element comprises at least one fluid channel, through which a cooling fluid can flow and which is provided with corresponding channel opening areas, wherein the channel opening areas of grate elements which are arranged next to each other are predominantly coaxial to each other, wherein coupling elements are provided for mutual coupling of coaxial channel opening areas, which are designed as coupling housings, through which fluids can flow, with at least one guide component and at least one centering component, characterized in that, the at least one guide component of the coupling element comprises a tapered, preferably conical external surface to ease mounting and sealing, and/or the at least one centering component of the coupling element comprises a tapered, preferably conical external surface.
A DC-DC converter assembly, comprising: a board having a first side and a second side opposite the first side; characterized by: a power stage die (502; 200) of a DC-DC converter mounted on the first side of the board and configured to deliver a phase current to a load mounted on the same side of the board as the power stage die (502; 200); and an output inductor (504; 100) electrically connected to an output of the power stage die (502; 200) and disposed over the power stage die (502; 200) on the first side of the board, the output inductor (504; 100) comprising a magnetic core and an electrical conductor having first and second terminals (106, 108) attached to the first side of the board, the output inductor (504; 100) accommodating the power stage die (502; 200) under the magnetic core so that the power stage die (502; 200) is interposed between the magnetic core and the board. a board having a first side and a second side opposite the first side; characterized by: a power stage die (502; 200) of a DC-DC converter mounted on the first side of the board and configured to deliver a phase current to a load mounted on the same side of the board as the power stage die (502; 200); and an output inductor (504; 100) electrically connected to an output of the power stage die (502; 200) and disposed over the power stage die (502; 200) on the first side of the board, the output inductor (504; 100) comprising a magnetic core and an electrical conductor having first and second terminals (106, 108) attached to the first side of the board, the output inductor (504; 100) accommodating the power stage die (502; 200) under the magnetic core so that the power stage die (502; 200) is interposed between the magnetic core and the board. a power stage die (502; 200) of a DC-DC converter mounted on the first side of the board and configured to deliver a phase current to a load mounted on the same side of the board as the power stage die (502; 200); and an output inductor (504; 100) electrically connected to an output of the power stage die (502; 200) and disposed over the power stage die (502; 200) on the first side of the board, the output inductor (504; 100) comprising a magnetic core and an electrical conductor having first and second terminals (106, 108) attached to the first side of the board, the output inductor (504; 100) accommodating the power stage die (502; 200) under the magnetic core so that the power stage die (502; 200) is interposed between the magnetic core and the board.