mhurhangee/ep-ind-claims huggingface dataset:
An intravascular blood pump for percutaneous insertion into a patient's blood vessel, comprising a catheter and a pumping device attached to the catheter, the pumping device having a blood flow inlet, a blood flow outlet and a rotor so as to cause blood to flow from the blood flow inlet to the blood flow outlet, the blood pump further comprising: - a ring seal disposed on the pumping device between the blood flow inlet and the blood flow outlet, the ring seal configured to assume a collapsed configuration and an expanded configuration and configured to contact and seal against an inner wall of the patient's blood vessel when inserted therein in the expanded configuration so as to separate a proximal area of the blood vessel from a distal area of the blood vessel, and - a support member (12; 13) disposed inside the ring seal in order to support the ring seal from the inside, wherein the support member (12; 13) is configured to collapse at least partially when a predetermined pressure difference between the proximal area and the distal area of the blood vessel acts on the ring seal, wherein the support member (12; 13) withstands a pressure difference of up to 100 mmHg before it collapses. - a ring seal disposed on the pumping device between the blood flow inlet and the blood flow outlet, the ring seal configured to assume a collapsed configuration and an expanded configuration and configured to contact and seal against an inner wall of the patient's blood vessel when inserted therein in the expanded configuration so as to separate a proximal area of the blood vessel from a distal area of the blood vessel, and - a support member (12; 13) disposed inside the ring seal in order to support the ring seal from the inside, wherein the support member (12; 13) is configured to collapse at least partially when a predetermined pressure difference between the proximal area and the distal area of the blood vessel acts on the ring seal, wherein the support member (12; 13) withstands a pressure difference of up to 100 mmHg before it collapses.
A battery module comprising a front battery, a rear battery and a heat sink, the front battery and the rear battery being placed in parallel on the side of the heat sink, wherein the area of the heat sink is divided into two halves parts, one of the two halves parts being a front part and the other part being a rear part, wherein the heat sink comprises: - a cooling channel through which a coolant suitable for cooling a secondary battery by an indirect cooling method can pass to cool a secondary battery comprising a cell assembly in which at least two unit cells are stacked, the cooling channel having: - a common inlet and a common outlet provided at the front part, and - one front separated channel for cooling the front battery and one rear separated channel for cooling the rear battery fluidly connecting the common inlet to the common outlet, wherein each of the two separated channels have a branch point (311, 321) inside to allow a coolant to flow in each of the two separated channels, characterized in that the front separated channel and the rear separated channel are vertically arranged so that the front separated channel is disposed between the rear separated channel and the front battery. - a cooling channel through which a coolant suitable for cooling a secondary battery by an indirect cooling method can pass to cool a secondary battery comprising a cell assembly in which at least two unit cells are stacked, the cooling channel having: - a common inlet and a common outlet provided at the front part, and - one front separated channel for cooling the front battery and one rear separated channel for cooling the rear battery fluidly connecting the common inlet to the common outlet,
A composition for temperature sensors including graphene oxide, a duplex in which a DNAzyme strand and a PNA strand are complementarily linked, and a DNAzyme cofactor.
An apparatus for mitigating on-board diagnostic, OBD, faults generated by an OBD system of an internal combustion engine, ICE, system having a selective catalytic reduction system with a diesel exhaust fluid, DEF, decomposition tube, comprising: a fault mitigation module configured to monitor at least one OBD signal of the OBD system and issue a request for regenerating the DEF decomposition tube when a value of the at least one OBD signal reaches a predetermined regeneration threshold corresponding with the at least one OBD signal, the regeneration threshold being reachable prior to an OBD fault threshold corresponding with the at least one OBD signal; a regeneration module configured to regenerate the DEF decomposition tube according to the issued request; characterised in that the fault mitigation module further comprises a regeneration frequency module configured to monitor the period of time between a previous exhaust after-treatment system regeneration event and the request for regenerating the DEF decomposition tube, wherein the regeneration frequency module delays an initiation of the requested regeneration of the DEF decomposition tube if the period of time is less than a time threshold. a fault mitigation module configured to monitor at least one OBD signal of the OBD system and issue a request for regenerating the DEF decomposition tube when a value of the at least one OBD signal reaches a predetermined regeneration threshold corresponding with the at least one OBD signal, the regeneration threshold being reachable prior to an OBD fault threshold corresponding with the at least one OBD signal; a regeneration module configured to regenerate the DEF decomposition tube according to the issued request; characterised in that the fault mitigation module further comprises a regeneration frequency module configured to monitor the period of time between a previous exhaust after-treatment system regeneration event and the request for regenerating the DEF decomposition tube, wherein the regeneration frequency module delays an initiation of the requested regeneration of the DEF decomposition tube if the period of time is less than a time threshold.
A positron emission tomography "PET" apparatus comprising: a PET detector comprising a plurality of arrayed rings in each of which a plurality of detector crystals are arrayed; an acquisition unit configured to acquire a first crystal efficiency for each detector crystal based on a measured gamma ray emitted from a line source, a second crystal efficiency for each detector crystal, which is calculated based on a simulation assuming a gamma ray emitted from a cylinder source, and a third crystal efficiency for each detector crystal, which is calculated based on a simulation assuming a gamma ray emitted from a line source; and a calculation unit configured to calculate a fourth crystal efficiency for each detector crystal based on the first crystal efficiency, the second crystal efficiency, and the third crystal efficiency. a PET detector comprising a plurality of arrayed rings in each of which a plurality of detector crystals are arrayed; an acquisition unit configured to acquire a first crystal efficiency for each detector crystal based on a measured gamma ray emitted from a line source, a second crystal efficiency for each detector crystal, which is calculated based on a simulation assuming a gamma ray emitted from a cylinder source, and a third crystal efficiency for each detector crystal, which is calculated based on a simulation assuming a gamma ray emitted from a line source; and a calculation unit configured to calculate a fourth crystal efficiency for each detector crystal based on the first crystal efficiency, the second crystal efficiency, and the third crystal efficiency.
A method of supplying a thermoplastic polymer film with a longitudinal orientation by stretching in solid state by use of stretching rollers characterised in that at least one stretching roller is a smooth roller having a diameter which is 40 mm or less and in that such stretching roller is supported by several short support rollers (2, 3), which are assembled along its length, and the axes of which are mutually displaced so as to nest the said stretching roller.
A rotary-wing aircraft (10; 10A) comprising: a center portion of the rotary-wing aircraft provided at the center of the rotary-wing aircraft as viewed from above; a plurality of rotary wings (12A; 12B; 12C; 12D;) having rotary shafts arranged at equal intervals on a circle centered on the center portion as viewed from above arm portions (14A; 14B; 14C; 14D) that support the plurality of rotary wings (12A; 12B; 12C; 12D); a first mounting portion for mounting an object; and a connecting portion (16; 16A) that connects the first mounting portion to the arm portions (14A; 14B; 14C; 14D) via a support rod and the center portion, the connecting portion is configured to rotatably support the movement of the first mounting portion and the support rod within a predetermined range with respect to the body of the rotary-wing aircraft, characterized in that a center U of lift generated in the rotary-wing craft by rotation of the plurality of rotary wings (12A; 12B; 12C; 12D) coincides with a center C of rotation of the connecting portion (16; 16A) defined by the center of the circle on a plane passing through the position of d/3 from the upper end of each of the rotary wings (12A, 12B, 12C, 12D) in the axial direction thereof and through which the rotation shafts of the rotary wings pass, when the height in the axial direction of each of the rotary wings (12A, 12B, 12C, and 12D) is d. a center portion of the rotary-wing aircraft provided at the center of the rotary-wing aircraft as viewed from above; a plurality of rotary wings (12A; 12B; 12C; 12D;) having rotary shafts arranged at equal intervals on a circle centered on the center portion as viewed from above arm portions (14A; 14B; 14C; 14D) that support the plurality of rotary wings (12A; 12B; 12C; 12D); a first mounting portion for mounting an object; and a connecting portion (16; 16A) that connects the first mounting portion to the arm portions (14A; 14B; 14C; 14D) via a support rod and the center portion, the connecting portion is configured to rotatably support the movement of the first mounting portion and the support rod within a predetermined range with respect to the body of the rotary-wing aircraft, characterized in that a center U of lift generated in the rotary-wing craft by rotation of the plurality of rotary wings (12A; 12B; 12C; 12D) coincides with a center C of rotation of the connecting portion (16; 16A) defined by the center of the circle on a plane passing through the position of d/3 from the upper end of each of the rotary wings (12A, 12B, 12C, 12D) in the axial direction thereof and through which the rotation shafts of the rotary wings pass, when the height in the axial direction of each of the rotary wings (12A, 12B, 12C, and 12D) is d.
A mainframe injection component for manipulating at least one data packet communicated between at least one emulator and at least one mainframe, thereby adapting the functionality of the at least one mainframe without changing the software and hardware of the at least one mainframe and of the at least one emulator, wherein the MIC comprises: a. a packet processor being a runtime component and adapted for receiving the at least one data packet, for manipulating the at least one received data packet to produce at least one modified data packet and for injecting the at least one modified data packet into the communication between the at least one emulator and the at least one mainframe during runtime; characterized in that: b. the packet processor being a runtime component is further adapted for retrieving at least one processing instruction from a repository according to at least one pre-defined processing rule and for applying the at least one processing instruction on the at least one received data packet to produce the at least one modified data packet during runtime, c. the MIC further comprises a designer component, adapted for defining the at least one processing rule during design time, wherein the at least one processing rule defines at least one processing instruction to be applied to a particular data packet during runtime, and d. the designer component is adapted for identifying during design time at least one data field in the at least one data packet, wherein the at least one processing rule defines at least one processing instruction to be applied to the at least one data field during runtime. a. a packet processor being a runtime component and adapted for receiving the at least one data packet, for manipulating the at least one received data packet to produce at least one modified data packet and for injecting the at least one modified data packet into the communication between the at least one emulator and the at least one mainframe during runtime; b. the packet processor being a runtime component is further adapted for retrieving at least one processing instruction from a repository according to at least one pre-defined processing rule and for applying the at least one processing instruction on the at least one received data packet to produce the at least one modified data packet during runtime, c. the MIC further comprises a designer component, adapted for defining the at least one processing rule during design time, wherein the at least one processing rule defines at least one processing instruction to be applied to a particular data packet during runtime, and d. the designer component is adapted for identifying during design time at least one data field in the at least one data packet, wherein the at least one processing rule defines at least one processing instruction to be applied to the at least one data field during runtime.
A method for operating a user equipment, UE, (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110) in a millimeter wave, mmWave, communications system (100; 200; 400; 450; 500; 550; 575; 900), the method comprising: receiving, by the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110), a first wide beam beam-formed reference signal from a mmWave evolved NodeB, eNB, (105; 210-222; 405; 455; 505; 580; 905; 1105) during an initial time interval, the first wide beam beam-formed reference signal carrying timing information; detecting, by the UE, (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110) a wide beam boundary between the first wide beam beam-formed reference signal and a second wide beam beam-formed reference signal during a subsequent time interval, wherein both the first wide beam beam-formed reference signal and the second wide beam beam-formed reference signal are rotated by a narrow beam beam-width during each intermediate time interval between the initial time interval and the subsequent time interval, and wherein the first wide beam beam-formed reference signal and the second wide beam beam-formed reference signal are adjacent wide beam beam-formed reference signals; and informing, by the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110), the mmWave eNB (105; 210-222; 405; 455; 505; 580; 905; 1105) of an indication that the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110) detected the wide beam boundary during the subsequent time interval, the indication being used to assign a narrow beam direction to the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110). receiving, by the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110), a first wide beam beam-formed reference signal from a mmWave evolved NodeB, eNB, (105; 210-222; 405; 455; 505; 580; 905; 1105) during an initial time interval, the first wide beam beam-formed reference signal carrying timing information; detecting, by the UE, (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110) a wide beam boundary between the first wide beam beam-formed reference signal and a second wide beam beam-formed reference signal during a subsequent time interval, wherein both the first wide beam beam-formed reference signal and the second wide beam beam-formed reference signal are rotated by a narrow beam beam-width during each intermediate time interval between the initial time interval and the subsequent time interval, and wherein the first wide beam beam-formed reference signal and the second wide beam beam-formed reference signal are adjacent wide beam beam-formed reference signals; and informing, by the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110), the mmWave eNB (105; 210-222; 405; 455; 505; 580; 905; 1105) of an indication that the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110) detected the wide beam boundary during the subsequent time interval, the indication being used to assign a narrow beam direction to the UE (110, 112, 114; 225, 227, 229; 410; 460; 510; 585; 1110).
A chemical heat storage device comprising: a reactor (11, 41) which has a heat storage material (24, 44) which generates heat by a chemical reaction with a reactive medium and desorbs the reactive medium by heat absorption, and a receptacle which houses the heat storage material (24, 44) therein; a reservoir which stores the reactive medium; a connecting pipe through which the reactor (11, 41) and the reservoir communicate with each other and the reactive medium is allowed to flow between the reactor (11, 41) and the reservoir, wherein the reactive medium is ammonia, the receptacle is made of a metallic material, characterized in that at least a portion of an inner surface (20a, 21b, 22b, 23d) of the receptacle which comes into contact with the ammonia is formed with a nickel layer containing 90% nickel by mass or more. a reactor (11, 41) which has a heat storage material (24, 44) which generates heat by a chemical reaction with a reactive medium and desorbs the reactive medium by heat absorption, and a receptacle which houses the heat storage material (24, 44) therein; a reservoir which stores the reactive medium; a connecting pipe through which the reactor (11, 41) and the reservoir communicate with each other and the reactive medium is allowed to flow between the reactor (11, 41) and the reservoir, wherein the reactive medium is ammonia, the receptacle is made of a metallic material, characterized in that at least a portion of an inner surface (20a, 21b, 22b, 23d) of the receptacle which comes into contact with the ammonia is formed with a nickel layer containing 90% nickel by mass or more.
A method for producing an object and for self-repairing said object, wherein said object comprises a matrix of a material in a continuous solid form with optically resonant particles dispersed there within, and wherein said matrix is made by at least partially fusing together particles and/or particulates of said material in a non-continuous solid form with heat transferred from said optically resonant particles that is generated thereby when optically resonating induced by their exposure to building electromagnetic radiation, and wherein the method comprises exposing a damaged region of said object to repairing electromagnetic radiation to be absorbed by at least some of said optically resonant particles that are dispersed therein, to optically resonate to generate heat to at least partially fuse together portions of said matrix in thermal contact therewith.
A passivation composition for treating a metal substrate, the passivation composition comprising water and the following components: dissolved phosphate ions; dissolved trivalent chromium ions; dissolved anions of at least one complex fluoride of the element Si; and a quaternized ammonium compound as an organic inhibitor; wherein the mixture contains less than 0.04 percent by weight of hexavalent chromium and further includes a hydroxyorganic acid. dissolved phosphate ions; dissolved trivalent chromium ions; dissolved anions of at least one complex fluoride of the element Si; and a quaternized ammonium compound as an organic inhibitor; wherein the mixture contains less than 0.04 percent by weight of hexavalent chromium and further includes a hydroxyorganic acid.
A labeling unit (100; 200) for labeling containers (119; 219) with labels (118; 218) from a pre-glued label tape (103; 203), comprising a label-tape conveying unit (107; 207) for conveying the pre-glued label tape (103; 203), a cutting device (108; 208) for cutting the label tape (103; 203) for obtaining labels (118; 218), characterized in that the cutting device (108; 208) comprises a cutting element (112; 212) and a rotatable counter-pressure cylinder (113; 213) and that the labeling unit further comprises the following: a rotatable label transfer cylinder (115; 215_1; 215_2) and a rotatable application cylinder (116; 216) for applying the labels (118; 218) to the containers, wherein the label transfer cylinder (115; 215_1; 215_2) is arranged in conveying direction (114; 214) of the labels (118; 218) after the cutting device (108; 208) and before the application cylinder (116; 216), and the glued side (117; 217) of the labels faces the surface of one of the conveying elements counter-pressure cylinder (113; 213) or label transfer cylinder (115; 215_1; 215_2), and a first drive for operating the label transfer cylinder (115; 215_1; 215_2) with a first tangential velocity and a second drive for operating the application cylinder (116; 216) with a second tangential velocity, wherein the first and the second drive are designed such that the first tangential velocity is higher than a conveying speed (114; 214) of the labels (118; 218) in the cutting device (108; 208) and lower than the second tangential velocity. a rotatable label transfer cylinder (115; 215_1; 215_2) and a rotatable application cylinder (116; 216) for applying the labels (118; 218) to the containers, wherein the label transfer cylinder (115; 215_1; 215_2) is arranged in conveying direction (114; 214) of the labels (118; 218) after the cutting device (108; 208) and before the application cylinder (116; 216), and the glued side (117; 217) of the labels faces the surface of one of the conveying elements counter-pressure cylinder (113; 213) or label transfer cylinder (115; 215_1; 215_2), and a first drive for operating the label transfer cylinder (115; 215_1; 215_2) with a first tangential velocity and a second drive for operating the application cylinder (116; 216) with a second tangential velocity, wherein the first and the second drive are designed such that the first tangential velocity is higher than a conveying speed (114; 214) of the labels (118; 218) in the cutting device (108; 208) and lower than the second tangential velocity.