mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for automatic identification of a measurement item, comprising: an image acquisition step: acquiring gray values of pixels of a specified section image, wherein the gray values of the pixels correspond to ultrasound echoes generated by reflection of ultrasound waves by a tissue under examination; an identification step: identifying at least one measurement item corresponding to the specified section image based on the gray values of the pixels; and a measuring step: measuring a measurement parameter of the specified section image based on the measurement item identified; characterized in that the identification step comprises: generating a characteristic of the specified section image based on the gray values of the pixels of the specified section image; comparing the characteristic of the specified section image with characteristics of training sample, searching a training sample whose characteristic is most similar to the characteristic of the specified section image and outputting measurement items corresponding to the training sample searched as measurement items corresponding to the specified section image, wherein the characteristics of the training samples and the characteristics of the specified section image are eigenvalues, eigenvectors or combination of eigenvalues and eigenvectors representative of the gray values of pixels of the respective images. an image acquisition step: acquiring gray values of pixels of a specified section image, wherein the gray values of the pixels correspond to ultrasound echoes generated by reflection of ultrasound waves by a tissue under examination; an identification step: identifying at least one measurement item corresponding to the specified section image based on the gray values of the pixels; and a measuring step: measuring a measurement parameter of the specified section image based on the measurement item identified; characterized in that the identification step comprises: generating a characteristic of the specified section image based on the gray values of the pixels of the specified section image; comparing the characteristic of the specified section image with characteristics of training sample, searching a training sample whose characteristic is most similar to the characteristic of the specified section image and outputting measurement items corresponding to the training sample searched as measurement items corresponding to the specified section image, wherein the characteristics of the training samples and the characteristics of the specified section image are eigenvalues, eigenvectors or combination of eigenvalues and eigenvectors representative of the gray values of pixels of the respective images.
A nonaqueous electrolyte battery comprising: a negative electrode comprising an oxide of titanium; a positive electrode comprising a positive electrode current collector comprising aluminum, a positive electrode layer formed on the positive electrode current collector, and comprising a nickel-cobalt-manganese composite oxide including lithium, and a passive film on the positive electrode current collector, the passive film comprising AlF 3; and a nonaqueous electrolyte, wherein a ratio p/n of a capacity p of the positive electrode to a capacity n of the negative electrode falls within a range from 1.1 to 1.8, and the positive electrode comprises a region within a range at a depth of 30 nm or less from a surface of the positive electrode current collector, the region having a ratio F/Al of 0.03 or more and 0.3 or less and spanning over a distance from 0.1 nm to 30 nm in a depth direction of the positive electrode current collector, where F is an emission intensity of fluorine obtained by radiofrequency glow discharge optical emission spectroscopy (GD-OES) and Al is an emission intensity of aluminum obtained by the GD-OES. a negative electrode comprising an oxide of titanium; a positive electrode comprising a positive electrode current collector comprising aluminum, a positive electrode layer formed on the positive electrode current collector, and comprising a nickel-cobalt-manganese composite oxide including lithium, and a passive film on the positive electrode current collector, the passive film comprising AlF 3; and a nonaqueous electrolyte, wherein a ratio p/n of a capacity p of the positive electrode to a capacity n of the negative electrode falls within a range from 1.1 to 1.8, and the positive electrode comprises a region within a range at a depth of 30 nm or less from a surface of the positive electrode current collector, the region having a ratio F/Al of 0.03 or more and 0.3 or less and spanning over a distance from 0.1 nm to 30 nm in a depth direction of the positive electrode current collector, where F is an emission intensity of fluorine obtained by radiofrequency glow discharge optical emission spectroscopy (GD-OES) and Al is an emission intensity of aluminum obtained by the GD-OES.
A power battery cap structure, comprising a first terminal, a second terminal and a cap assembly, the second terminal being electrically insulated from the cap assembly, characterized in that, the power battery cap structure further comprises a resistance which electrically connects the first terminal with the cap assembly in a normal state, the cap assembly comprises a cap sheet, a first short circuit part and a second short circuit part; the first short circuit part and the second short circuit part are attached to the cap sheet, when an internal pressure of the power battery exceeds a predetermined threshold, the first short circuit part and the second short circuit part act and then form a first path and a second path between the first terminal and the second terminal; the first path passes through the first terminal, the second short circuit part, the resistance and the second terminal; and the second path passes through the first terminal, first short circuit part, the second short circuit part and the second terminal.
A disposable device of a suitable size to enter the gastrointestinal tract, comprising a capsule-shaped housing including - a groove for interacting with a loop snare and/or holes for interacting with a tri-pronged grasper on the housing; - a latch for opening the housing; - a hinge; - a plurality of hollow prick-tips containing an antigen within the housing for penetrating a surface of the gastrointestinal tract; - a plunger extension for moving the antigen from the prick-tips to the surface; and - means for deployment and activation of the device. - a groove for interacting with a loop snare and/or holes for interacting with a tri-pronged grasper on the housing; - a latch for opening the housing; - a hinge; - a plurality of hollow prick-tips containing an antigen within the housing for penetrating a surface of the gastrointestinal tract; - a plunger extension for moving the antigen from the prick-tips to the surface; and - means for deployment and activation of the device.
A component comprising: a part comprising a honeycomb-like structure (100, 200, 300, 702), said part formed from at least a seamless resin-infused fiber composite material, wherein the honeycomb-like structure comprises: a first plurality of honeycomb-like cells (102, 204); and a second plurality of honeycomb-like cells (104, 206) different than the first plurality of honeycomb-like cells; and wherein the first plurality of honeycomb-like cells (102, 204) comprises a first material, and wherein the second plurality of honeycomb-like cells (104, 206) comprises a second material different than the first material. a part comprising a honeycomb-like structure (100, 200, 300, 702), said part formed from at least a seamless resin-infused fiber composite material, wherein the honeycomb-like structure comprises: a first plurality of honeycomb-like cells (102, 204); and a second plurality of honeycomb-like cells (104, 206) different than the first plurality of honeycomb-like cells; and a first plurality of honeycomb-like cells (102, 204); and a second plurality of honeycomb-like cells (104, 206) different than the first plurality of honeycomb-like cells; and wherein the first plurality of honeycomb-like cells (102, 204) comprises a first material, and wherein the second plurality of honeycomb-like cells (104, 206) comprises a second material different than the first material.
A method of preparing silica aerogel granules, comprising: forming a granular wet gel by spraying a silica sol into alcohol, the silica sol being prepared by mixing a water glass solution or an opacifier-containing water glass solution with an inorganic acid solution; forming a granular alcohol gel through gelation aging and solvent substitution of the granular wet gel in alcohol; hydrophobically modifying a surface of the granular alcohol gel using an organic silane compound; and drying the surface modified gel at ambient pressure or in a vacuum. forming a granular wet gel by spraying a silica sol into alcohol, the silica sol being prepared by mixing a water glass solution or an opacifier-containing water glass solution with an inorganic acid solution; forming a granular alcohol gel through gelation aging and solvent substitution of the granular wet gel in alcohol; hydrophobically modifying a surface of the granular alcohol gel using an organic silane compound; and drying the surface modified gel at ambient pressure or in a vacuum.
A multi-well plate comprising a plurality of wells (7a-c, 403, 501), wherein at least one well of the multi-well plate comprises a bottom, wherein the well bottom comprises two openings to the upper region of the well by: (a) a cell cavity adapted to accommodate a pipette tip, and (b) an electrode pocket adapted to accommodate a sensing electrode, wherein the well bottom provides a fluidic connection between the electrode pocket and the cell cavity, wherein the cell cavity and the electrode pocket are arranged to permit simultaneous accommodation of a pipette tip insertable into the cell cavity and a sensing electrode insertable into the electrode pocket, wherein the cell cavity is opening into the upper portion of the well via a pipette guide, and wherein the cell cavity comprises at least one cell sealing aperture (9a-c, 510) in a bottom surface of the cell cavity. (a) a cell cavity adapted to accommodate a pipette tip, and (b) an electrode pocket adapted to accommodate a sensing electrode,
A molten salt electrolysis tank in which electrolytic refining is performed by dissolving a spent metal fuel pin through anodic electrolysis in a crucible filled with a molten salt to cause U and/or Pu to be reduced and precipitated once again on a surface of a cathode, the spent metal fuel pin containing elements including zirconium (Zr) and uranium, U and plutonium (Pu), or Zr and U and Pu, the electrolytic tank comprising: a crucible induction heating coil disposed around the molten salt electrolysis tank; an anode feeder for holding the metal fuel pin and supplying an anode potential to the metal fuel pin, a leading end portion of the anode feeder being formed in a basket shape to accommodate the spent metal fuel pin, and the anode feeder being provided with a mechanism for recovering from deterioration of contact resistance between the metal fuel pin and the anode in a course of the anodic electrolysis, the mechanism comprising a pressing plate for automatically pressing the metal fuel pin against the basket-shaped anode feeder which pressing plate is disposed inside the basket-shaped anode feeder, the mechanism allowing the pressing plate to be automatically pressurized and moved in a course of the anodic electrolysis, wherein recovery from deterioration of contact of contact resistance between the metal fuel pin and the anode feeder is made by the mechanism; and a cathode feeder that is connected to the cathode and controlled at a potential in a range that causes U and/or Pu ions to be reduced to metal. a crucible induction heating coil disposed around the molten salt electrolysis tank; an anode feeder for holding the metal fuel pin and supplying an anode potential to the metal fuel pin, a leading end portion of the anode feeder being formed in a basket shape to accommodate the spent metal fuel pin, and the anode feeder being provided with a mechanism for recovering from deterioration of contact resistance between the metal fuel pin and the anode in a course of the anodic electrolysis, the mechanism comprising a pressing plate for automatically pressing the metal fuel pin against the basket-shaped anode feeder which pressing plate is disposed inside the basket-shaped anode feeder, the mechanism allowing the pressing plate to be automatically pressurized and moved in a course of the anodic electrolysis, wherein recovery from deterioration of contact of contact resistance between the metal fuel pin and the anode feeder is made by the mechanism; and a cathode feeder that is connected to the cathode and controlled at a potential in a range that causes U and/or Pu ions to be reduced to metal.
A method for estimating a SOC of a battery pack, wherein the battery pack comprises a first cell without a plateau and a second cell with a plateau, and at least one first cell is serially connected to the second cell, and the method comprises: determining a capacity variation of the battery pack based on a SOC variation of the first cell in comparison with an initial SOC of the first cell, and based on a nominal capacity of the first cell; obtaining an equalization capacity of the first cell and an equalization capacity of the second cell, each equalization capacity being obtained by calculating the integral of an equalization current with respect to an equalization time; and estimating a SOC of the second cell based on the capacity variation of the battery pack, the nominal capacity of the first cell, the equalization capacity of the first cell, the equalization capacity of the second cell, and an initial SOC of the second cell, and determining the SOC of the battery pack based on the SOC of the second cell. determining a capacity variation of the battery pack based on a SOC variation of the first cell in comparison with an initial SOC of the first cell, and based on a nominal capacity of the first cell; obtaining an equalization capacity of the first cell and an equalization capacity of the second cell, each equalization capacity being obtained by calculating the integral of an equalization current with respect to an equalization time; and estimating a SOC of the second cell based on the capacity variation of the battery pack, the nominal capacity of the first cell, the equalization capacity of the first cell, the equalization capacity of the second cell, and an initial SOC of the second cell, and determining the SOC of the battery pack based on the SOC of the second cell.
A method for evaluating a neural network model in a system, the neural network model operating as a service in the system, the system comprising a distributed hardware platform, the distributed hardware platform comprising a plurality of distributed nodes (102, 104, 106) interconnected via a network, wherein each node comprises a plurality of on-chip memory blocks (942, 952, 962) and a plurality of compute units (944, 954, 964) the method comprising: upon service activation, partitioning the neural network model into separate layers, wherein each layer comprises an N by M matrix of coefficients corresponding to the neural network model, wherein N is an integer equal to or greater than 8 and M is an integer equal to or greater than 8; loading the N by M matrix of coefficients corresponding to the neural network model into the plurality of the on-chip memory blocks (942, 952, 962) of the nodes comprising the distributed hardware platform for processing by the plurality of compute units (944, 954, 964); and regardless of a utilization of the plurality of the on-chip memory blocks (942, 952, 962) as part of an evaluation of the neural network model, maintaining the N by M matrix of coefficients corresponding to the neural network model in the plurality of the on-chip memory blocks (942, 952, 962) until the service is interrupted or the neural network model is modified or replaced, wherein each of the plurality of nodes comprises a field programable gate array, FPGA, and wherein each of the plurality of the on-chip memory blocks comprises a static random access memory block and wherein each of the plurality of compute units comprises a set of pre-configured resources on the FPGA. upon service activation, partitioning the neural network model into separate layers, wherein each layer comprises an N by M matrix of coefficients corresponding to the neural network model, wherein N is an integer equal to or greater than 8 and M is an integer equal to or greater than 8; loading the N by M matrix of coefficients corresponding to the neural network model into the plurality of the on-chip memory blocks (942, 952, 962) of the nodes comprising the distributed hardware platform for processing by the plurality of compute units (944, 954, 964); and regardless of a utilization of the plurality of the on-chip memory blocks (942, 952, 962) as part of an evaluation of the neural network model, maintaining the N by M matrix of coefficients corresponding to the neural network model in the plurality of the on-chip memory blocks (942, 952, 962) until the service is interrupted or the neural network model is modified or replaced, wherein each of the plurality of nodes comprises a field programable gate array, FPGA, and wherein each of the plurality of the on-chip memory blocks comprises a static random access memory block and wherein each of the plurality of compute units comprises a set of pre-configured resources on the FPGA.
Method for the stepwise production and advancing of sand mould parts in a mould-string foundry plant comprising a station for making mould parts, a pouring station and a conveyor for stepwise advancing of mould parts from said station for making mould parts towards said pouring station, said conveyor comprising a first part that is movable to displace mould parts from the station for making mould parts towards the pouring station, the method comprising producing a plurality of moulds parts in the station for making mould parts and placing said mould parts on the conveyor in order to form a mould string on the conveyor, and forwarding the mould parts towards the pouring station using the conveyor, the method comprising the steps of, repetitively and sequentially, (a) producing a first mould part of a pair of two subsequent mould parts, (b) placing said mould part on the conveyor, (c) producing a second mould part of said pair of two subsequent mould parts, (d) placing also said second mould part on the conveyor; (e) optionally producing at least one further mould part and placing said further mould part on the conveyor; (f) displacing the mould string a distance corresponding to at least two mould part widths, so as to position at least two new moulds to be filled in correspondence with the pouring station, wherein step (f) is carried out by displacing said first part of the conveyor, and wherein step (f) is carried out without using any squeeze plate or rear plate of the station for making mould parts to push the mould string in-sync with movement of said first part of the conveyor for displacing the mould string said distance corresponding to at least two mould part widths. (a) producing a first mould part of a pair of two subsequent mould parts, (b) placing said mould part on the conveyor, (c) producing a second mould part of said pair of two subsequent mould parts, (d) placing also said second mould part on the conveyor; (e) optionally producing at least one further mould part and placing said further mould part on the conveyor; (f) displacing the mould string a distance corresponding to at least two mould part widths, so as to position at least two new moulds to be filled in correspondence with the pouring station,
Dimethylamino micheliolide for use in a method of treating pulmonary fibrosis, wherein dimethylamino micheliolide has a molecular structural formula of:
A rechargeable battery comprising a positive electrode, the positive electrode comprising a lithium metal oxide powder having a layered crystal structure and having the formula Li x Tm y Hm z O 6, with 3≤x≤4.8, 0.60≤y≤2.0, 0.60≤z≤2.0, and x+y+z=6, wherein Tm is one or more transition metals of the group consisting of Mn, Fe, Co, Ni, and Cr, wherein Hm is one or more metals of the group consisting of Zr, Nb, Mo and W, wherein the lithium metal oxide powder has a diffraction peak intensity ratio R between the largest peak at 18.5±1.5° and the largest peak at 43.5±1.5° in the X-ray powder diffractometry using a Cu-Kα line in the X-ray source, with R=I 1 /I 2, where I 1 is the integrated intensity of the largest peak at 18.5±1.5° and I 2 is the integrated intensity of the largest peak at 43.5±1.5°, wherein R>0.55, wherein the lithium metal oxide powder does not have the formula Li 4.4 MnMo 0.6 O 6 or the formula Li 4.2 Ni 0.5 Mn 0.5 Mo 0.8 O 6 or the formula Li 4 NiMoO 6.
Method for minimizing NOx during varying engine loads in a 4-stroke diesel engine comprising at least one cylinder with a cylinder head, a reciprocating first piston mounted on a connecting rod, one actuator mounted on the cylinder-head and one of the actuator operated second piston which can be locked via a hydraulic circuit in various positions in a combustion chamber, at least one of the cylinder head existing outlet valves for exhaust gas evacuation, at least one on the cylinder head existing freely controllable inlet valve for the supply of combustion air, at least one on the combustion chamber connected injector for injection of fuel in said chamber, characterized in that the second piston, at the latest during the current compression stroke is actuated by the actuator and locked by the hydraulic circuit at a position in the combustion chamber, where it by the piston introduced air is compressed at a predetermined compression ratio to meet an existing engine load such that the introduced air is compressed to essentially the same end pressure independent of engine load, wherein the freely controllable inlet valve is brought to close the inlet stroke at a piston position where the volume of the combustion air as introduced at the end of the compression stroke gives the predetermined compression ratio and that the injector injects an amount of fuel which in relation to the mass of the combustion air is essentially equal independent of engine load.
A household appliance comprising a body, a panel provided on an outer surface of the body suitable for being accessed, and a card holder adapted to be placed on the surface of the panel facing into the body, suitable for housing an electronic card therein, a frame in which the electronic card is placed, at least one holder arm adapted to support the electronic card by extending from an edge of the frame to the other characterized in that the holder arm is shaped as an arc curved towards the surface of the electronic card and adapted to press on the electronic card so as to move the electronic card closer to the panel surface, wherein a first end of the holder arm is pivotably attached to the frame such that the holder arm is moveable between a closed state and an open state in order to facilitate access into the frame.