mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting sub-valvular location in medical imaging, the method comprising: acquiring a sequence of frames of medical imaging data, each of the fames representing a volume of at least a region of a heart of a patient; detecting a valve bounding box enclosing a valve of the heart in each of the frames; detecting, in each of the frames, a sub-valvular bounding box enclosing the sub-valvular structure location based on the valve bounding box; detecting, in each of the frames, candidate locations of sub-valvular location within the sub-valvular bounding box; removing the candidate locations outside a spatial constraint; selecting one of the candidate locations remaining after the removing in each of the frames as the sub-valvular location, the selecting being a function of the candidate locations across the frames; and highlighting the sub-valvular location in an image of at least the region of the heart of the patient, wherein detecting the valve bounding box comprises detecting a plurality of candidate mitral valve bounding boxes in each frame, and characterised in that detecting the sub-valvular bounding box comprises detecting a respective plurality of candidate papillary bounding boxes in each frame and selecting a papillary bounding box for each frame as a Random Sample Consensus of the candidate papillary bounding boxes across the frames. acquiring a sequence of frames of medical imaging data, each of the fames representing a volume of at least a region of a heart of a patient; detecting a valve bounding box enclosing a valve of the heart in each of the frames; detecting, in each of the frames, a sub-valvular bounding box enclosing the sub-valvular structure location based on the valve bounding box; detecting, in each of the frames, candidate locations of sub-valvular location within the sub-valvular bounding box; removing the candidate locations outside a spatial constraint; selecting one of the candidate locations remaining after the removing in each of the frames as the sub-valvular location, the selecting being a function of the candidate locations across the frames; and highlighting the sub-valvular location in an image of at least the region of the heart of the patient, wherein detecting the valve bounding box comprises detecting a plurality of candidate mitral valve bounding boxes in each frame, and characterised in that detecting the sub-valvular bounding box comprises detecting a respective plurality of candidate papillary bounding boxes in each frame and selecting a papillary bounding box for each frame as a Random Sample Consensus of the candidate papillary bounding boxes across the frames.
Medical device for administering a solution, said device comprising • pumping means, • a reservoir, • means of communication between said reservoir and said pumping means, • a patient line for connecting the medical device to a patient, and • means for determining the physical/ chemical characteristics of the solution as a function of time by means of a mathematical model that takes account of a modification in the solution over the course of time as a function of the permeability of the reservoir walls or of the exposure to temperature, or of the permeability of the reservoir walls, or to humidity, or to a pressure of the solution, or of the ageing of the reservoir. • pumping means, • a reservoir, • means of communication between said reservoir and said pumping means, • a patient line for connecting the medical device to a patient, and • means for determining the physical/ chemical characteristics of the solution as a function of time by means of a mathematical model that takes account of a modification in the solution over the course of time as a function of the permeability of the reservoir walls or of the exposure to temperature, or of the permeability of the reservoir walls, or to humidity, or to a pressure of the solution, or of the ageing of the reservoir.
An all-solid-state battery comprising: an electrode body in which a cathode layer that contains a cathode active material and a solid electrolyte, an electrolyte layer that is formed of the solid electrolyte, and an anode layer that contains an anode active material and the solid electrolyte are stacked in this order in an up-down direction, wherein the cathode active material is a compound represented by a chemical formula Li 2 Fe (1-x) M x P (2-y) A y O 7, contains at least one metal of Ti, V, Cr, Ni, and Co as the M in the chemical formula, and contains at least one element of B, C, Al, Si, Ga, and Ge as the A in the chemical formula, the x in the chemical formula satisfies 0.8<x≤1, the y in the chemical formula satisfies 0≤y≤0.07, and the anode active material is an anatase titanium oxide represented by a chemical formula TiO 2. an electrode body in which a cathode layer that contains a cathode active material and a solid electrolyte, an electrolyte layer that is formed of the solid electrolyte, and an anode layer that contains an anode active material and the solid electrolyte are stacked in this order in an up-down direction, wherein the cathode active material is a compound represented by a chemical formula Li 2 Fe (1-x) M x P (2-y) A y O 7, contains at least one metal of Ti, V, Cr, Ni, and Co as the M in the chemical formula, and contains at least one element of B, C, Al, Si, Ga, and Ge as the A in the chemical formula, the x in the chemical formula satisfies 0.8<x≤1, the y in the chemical formula satisfies 0≤y≤0.07, and the anode active material is an anatase titanium oxide represented by a chemical formula TiO 2.
A system comprising an underwater device and a base situated on the surface, wherein the underwater device is remotely controlled from the base via at least one first optical fiber and includes an onboard supply of energy, the system comprising: a positive buoyancy element, referred to as a "float" that is connected by wire to the underwater device solely via the first optical fiber; and a negative buoyancy element referred to as a "plunger" connected to the base; wherein the float and the plunger are connected together by wire via a first flexible link; the system being characterized in that it further comprises: a first winder and unwinder device for winding the first optical fiber in and out, which device is provided on the float and/or on the underwater device; and a second winder and unwinder device for winding the first flexible link in and out, which device is provided on the float and/or on the plunger. a positive buoyancy element, referred to as a "float" that is connected by wire to the underwater device solely via the first optical fiber; and a negative buoyancy element referred to as a "plunger" connected to the base; wherein the float and the plunger are connected together by wire via a first flexible link; the system being characterized in that it further comprises: a first winder and unwinder device for winding the first optical fiber in and out, which device is provided on the float and/or on the underwater device; and a second winder and unwinder device for winding the first flexible link in and out, which device is provided on the float and/or on the plunger. a first winder and unwinder device for winding the first optical fiber in and out, which device is provided on the float and/or on the underwater device; and a second winder and unwinder device for winding the first flexible link in and out, which device is provided on the float and/or on the plunger.
Method for coordinating transport logistics, wherein the method has the following steps of: receiving a request signal from a work machine via an interface of a coordination apparatus, wherein the request signal signals a transport requirement of the work machine; transmitting a control signal to a transport machine via an interface of the apparatus in order to guide the transport machine to the work machine when the request signal has been received, wherein the control signal comprises an item of path information relating to a path (106, 112) of the work machine in order to guide the transport machine parallel to the path during the loading process, wherein the path information is a planned trajectory of the work machine in a work environment, on which the work machine will presumably move; receiving a coupling signal via an interface of the apparatus when the transport machine has reached a loading position relative to the work machine; transmitting a loading signal via an interface of the apparatus in order to start a loading process to cover the transport requirement when the coupling signal has been received; identifying, on the basis of the planned trajectory, when the work machine will carry out a change of direction; transmitting a loading interrupt signal in order to interrupt the loading process via an interface of the apparatus when the change of direction of the work machine is imminent; and determining a trajectory for guiding the transport machine while the work machine carries out a turn, and transmitting the trajectory to the transport machine via an interface of the apparatus. receiving a request signal from a work machine via an interface of a coordination apparatus, wherein the request signal signals a transport requirement of the work machine; transmitting a control signal to a transport machine via an interface of the apparatus in order to guide the transport machine to the work machine when the request signal has been received, wherein the control signal comprises an item of path information relating to a path (106, 112) of the work machine in order to guide the transport machine parallel to the path during the loading process, wherein the path information is a planned trajectory of the work machine in a work environment, on which the work machine will presumably move; receiving a coupling signal via an interface of the apparatus when the transport machine has reached a loading position relative to the work machine; transmitting a loading signal via an interface of the apparatus in order to start a loading process to cover the transport requirement when the coupling signal has been received; identifying, on the basis of the planned trajectory, when the work machine will carry out a change of direction; transmitting a loading interrupt signal in order to interrupt the loading process via an interface of the apparatus when the change of direction of the work machine is imminent; and determining a trajectory for guiding the transport machine while the work machine carries out a turn, and transmitting the trajectory to the transport machine via an interface of the apparatus.
Milling system for introducing an installation slot into a ground surface, which system has a carrier vehicle and a milling device which is arranged on the front of the carrier vehicle, is connected to the carrier vehicle, and has a milling wheel, at least one hydraulic drive, and a milling wheel housing having an ejection window provided on the front of the milling wheel, on which ejection window a conveyor belt is provided during operation of the milling system, characterized in that a front hydraulic support cylinder which is oriented vertically in a working position of the milling system and can be extended downward is provided on the milling wheel housing in front of the axis of rotation of the milling wheel in the forward direction of travel of the milling system; a rear hydraulic support cylinder which is oriented vertically in a working position of the milling system and can be extended upward is provided on the milling wheel housing behind the axis of rotation of the milling wheel in the forward direction of travel of the milling system; and a hydraulic compensating cylinder which hydraulically couples the front and the rear hydraulic support cylinder (81, 83) is provided on the milling wheel housing.
Mixture comprising the compound of formula (Ia), wherein the mixture contains less than 0.01 wt.-%, based on the total weight of the mixture, of compound of formula (Ib), preferably of compounds of formulae (lb) and also (Ic) and/or (Id)
A glow plug having a combustion pressure sensor in which a rodlike heater is disposed in a tubular housing in an axially displaceable manner with its forward end projecting from a forward end of the housing and with a gap retained between an inner circumferential surface of the housing and an outer circumferential surface of the heater and which has a sensor capable of sensing combustion pressure through detection of pressure or displacement generated as a result of the combustion pressure pressing the heater rearward from the forward end of the heater, wherein a holding member in a tubular shape formed in a deformable manner so as to allow the displacement of the heater and externally fitted to the heater so as to hold the heater is disposed in an annular gap between the outer circumferential surface of the heater and an inner circumferential surface of a forward end of the housing or a portion of the housing located toward the forward end of the housing, in such a manner as to partition the annular gap into axially forward and rearward parts, and is joined to the housing and to the heater along a circumferential direction, the holding member having a dual-tube structure consisting of an inner tubular holding member (160b, 260b) and an outer tubular holding member (160a, 260a); the glow plug being characterized in that: one tubular holding member is joined, at its rear end portion, to the housing along the circumferential direction, thereby forming a housing-side joint; the other tubular holding member is joined, at its forward end portion, to a forward end portion of the one tubular holding member along the circumferential direction, thereby forming an inter-tubular-holding-member joint; the other tubular holding member is joined, at its portion located rearward of the inter-tubular-holding-member joint, to the outer circumferential surface of the heater along the circumferential direction, thereby forming a heater-side joint; and the one tubular holding member and the other tubular holding member differ in axial length, and a material used to form the axially shorter tubular holding member is higher in thermal expansion coefficient than a material used to form the axially longer tubular holding member. one tubular holding member is joined, at its rear end portion, to the housing along the circumferential direction, thereby forming a housing-side joint; the other tubular holding member is joined, at its forward end portion, to a forward end portion of the one tubular holding member along the circumferential direction, thereby forming an inter-tubular-holding-member joint; the other tubular holding member is joined, at its portion located rearward of the inter-tubular-holding-member joint, to the outer circumferential surface of the heater along the circumferential direction, thereby forming a heater-side joint; and the one tubular holding member and the other tubular holding member differ in axial length, and a material used to form the axially shorter tubular holding member is higher in thermal expansion coefficient than a material used to form the axially longer tubular holding member.
An internal combustion engine comprising a combustion chamber and a fuel injector for injecting an over-enriched fuel and air mixture to the combustion chamber of the internal combustion engine, comprising a hydrocarbon liquid fuel spray nozzle, at least one supply of a gaseous carrier, a fuel mixing chamber and an injector nozzle to the engine combustion chamber, and is configured such that, during operation, liquid fuel is supplied to the fuel mixing chamber through the hydrocarbon liquid fuel spray nozzle, and heated compressed gaseous carrier is supplied to the fuel mixing chamber through the supply of gaseous carrier, in the mixing chamber said fuel and said gaseous carrier are mixed and fuel is evaporated as a result of elevated temperature, and the mixture of evaporated fuel with the heated compressed gaseous carrier thus formed reaches the combustion chamber, through the injector nozzle, wherein it is further configured such that: • the heated compressed gaseous carrier is air or flue gas or water vapour or any combination thereof, at elevated pressure and temperature, and • the composition of the mixture in the injector is outside the combustibility range, above the upper combustibility limit. a hydrocarbon liquid fuel spray nozzle, at least one supply of a gaseous carrier, a fuel mixing chamber and an injector nozzle to the engine combustion chamber, and is configured such that, during operation, liquid fuel is supplied to the fuel mixing chamber through the hydrocarbon liquid fuel spray nozzle, and heated compressed gaseous carrier is supplied to the fuel mixing chamber through the supply of gaseous carrier, in the mixing chamber said fuel and said gaseous carrier are mixed and fuel is evaporated as a result of elevated temperature, and the mixture of evaporated fuel with the heated compressed gaseous carrier thus formed reaches the combustion chamber, through the injector nozzle, wherein it is further configured such that: • the heated compressed gaseous carrier is air or flue gas or water vapour or any combination thereof, at elevated pressure and temperature, and • the composition of the mixture in the injector is outside the combustibility range, above the upper combustibility limit. • the heated compressed gaseous carrier is air or flue gas or water vapour or any combination thereof, at elevated pressure and temperature, and • the composition of the mixture in the injector is outside the combustibility range, above the upper combustibility limit.
A method for improving water intake and hydration in an animal, comprising administering a hydration composition to the animal, wherein the hydration composition comprises water and a hydration additive, wherein the hydration additive consists essentially of: a sugar alcohol, where the sugar alcohol comprises glycerol; and a protein, wherein the protein comprises whey. a sugar alcohol, where the sugar alcohol comprises glycerol; and a protein, wherein the protein comprises whey.
A composition comprising a first and a second compound, wherein said first compound is a corticosteroid and said second compound comprises at least one cell wall binding domain specifically binding the peptidoglycan cell wall of a bacterial cell, preferably a gram positive bacterial cell and wherein said second compound is a polypeptide that has at least 80% identity with SEQ ID NO: 2, 4, 6, 8, 10, 12, 14, 16, 18, 20, 22, 24, 26, 28, 30, 32, 34, 36, 38, 40, 42, 44, 46, 48, 50, 52, 54, 56, 58, 60, 62, 64, 66, 68, 70, 72, 76, 78, 80, 82, 84, 86, 88, 90, 92, 94, 98 or 100; and/or said cell wall binding domain has at least 80% identity to any of SEQ ID NO: 4, 6 or 8; and/or wherein said one or more enzymatic active domains has at least 80% identity to any of SEQ ID NO: 10, 12, 14, 16, 18, 98 or 100.
A method to produce pluripotent stem cells from human amniotic fluid-derived cells without the use of a feeder-cell layer and without the use of an agent that increases efficiency of retroviral transfection comprising; a) plating human amniotic fluid-derived cells on a tissue culture substrate; b) transducing the plated amniotic fluid-derived cells with at least one retrovirus containing nucleic acid encoding SOX2, OCT4, LIN28, and NANOG; c) culturing the transduced cells, then transferring the transduced cells onto tissue culture plates coated with an extracellular matrix protein, and culturing the transferred cells in medium supplemented with an agent that inhibits Rho kinase activity, and bFGF, for one week; and d) passaging the cultured cells onto tissue culture plates coated with an extracellular matrix protein and culturing the passaged cells in conditioned medium containing soluble factors derived from feeder cells and supplemented with bFGF, wherein the cells are transduced to introduce SOX2, OCT4, LIN28 and NANOG into the cells. a) plating human amniotic fluid-derived cells on a tissue culture substrate; b) transducing the plated amniotic fluid-derived cells with at least one retrovirus containing nucleic acid encoding SOX2, OCT4, LIN28, and NANOG; c) culturing the transduced cells, then transferring the transduced cells onto tissue culture plates coated with an extracellular matrix protein, and culturing the transferred cells in medium supplemented with an agent that inhibits Rho kinase activity, and bFGF, for one week; and d) passaging the cultured cells onto tissue culture plates coated with an extracellular matrix protein and culturing the passaged cells in conditioned medium containing soluble factors derived from feeder cells and supplemented with bFGF, wherein the cells are transduced to introduce SOX2, OCT4, LIN28 and NANOG into the cells.
A laundry washing machine having a door defining an opening therein, a cabinet and a wash tub, whereby the opening includes a cover disposed about the wash tub and a receptacle within said cover, wherein, when the door is in the opened position, clothes and other washable items may be inserted into and removed from the wash tub through the opening in a top of the cabinet of the laundry washing machine, said laundry washing machine further comprises a handheld stain removal tool (120; 220) having a wand positionable between a stowed position and a deployed position relative to said laundry washing machine, wherein in the stowed position the wand is stored inside the receptacle, and in the deployed position the wand is removed from the receptacle, wherein: said wand includes a water supply head (130; 230) hingedly connected to a water drainage head (140; 240) by a hinge; when said wand is in said deployed position said water supply head (130; 230) is hingedly moveable between a closed position and an open position relative to said water drainage head (140; 240); said water supply head (130; 230) includes one or more nozzles in fluid communication with a water supply line; said water drainage head (140; 240) is in fluid communication with said one or more nozzles of said water supply head (130; 230) when in said closed position; and said water drainage head (140; 240) is in fluid communication with one or more outlets. said wand includes a water supply head (130; 230) hingedly connected to a water drainage head (140; 240) by a hinge; when said wand is in said deployed position said water supply head (130; 230) is hingedly moveable between a closed position and an open position relative to said water drainage head (140; 240); said water supply head (130; 230) includes one or more nozzles in fluid communication with a water supply line; said water drainage head (140; 240) is in fluid communication with said one or more nozzles of said water supply head (130; 230) when in said closed position; and said water drainage head (140; 240) is in fluid communication with one or more outlets.