mhurhangee/ep-ind-claims huggingface dataset:
Method for automated identification of a state of a sample, in particular a blood sample, from a predetermined set of states by means of a device, wherein the set of states comprises an unmixed state and a mixed state, and wherein the sample is situated in a sample tube extending along a longitudinal direction, wherein the method comprises the following steps: - determining at least one property of the sample at a plurality of different positions along the longitudinal direction, - determining at least one phase type of a phase of the sample in the sample tube on the basis of the determined property, and - determining the state of the sample as an unmixed state or as a mixed state in a manner dependent on the determined phase type, - wherein during the step of determining at least one property at a respective position a first transmissivity of the sample across the longitudinal direction at a first wavelength is determined as a first property and a second transmissivity of the sample across the longitudinal direction at a second wavelength is determined as a second property. - determining at least one property of the sample at a plurality of different positions along the longitudinal direction, - determining at least one phase type of a phase of the sample in the sample tube on the basis of the determined property, and - determining the state of the sample as an unmixed state or as a mixed state in a manner dependent on the determined phase type, - wherein during the step of determining at least one property at a respective position a first transmissivity of the sample across the longitudinal direction at a first wavelength is determined as a first property and a second transmissivity of the sample across the longitudinal direction at a second wavelength is determined as a second property.
A device for machining material by means of laser radiation including a focusing optics for focusing a laser beam onto a workpiece and an adjusting optics for adjusting the intensity distribution including at least one plate-shaped optical element having a circular pattern of sector-shaped facets, characterized in that, in the circumferential direction, the sector-shaped facets are alternately inclined with respect to the respective plate plane.
A nanoparticle device carrying a substance comprising: a shell structure including at least two layers including an internal layer and an external layer, wherein the substance is a macromolecule; wherein the internal layer encloses a hollow interior region comprising the substance in the hollow region; wherein the internal layer includes one or more holes penetrating said internal layer, the one or more holes having a diameter larger than the diameter of the macromolecule, wherein the one or more holes are mesopores with a size ranging from 2 nm to 50 nm, and the mesopores are sealed with a nanoporous shell material, wherein the external layer is formed around the internal layer and includes pores with a size less than 2 nm to allow substances smaller than 2 nm to diffuse in and out but prevent macromolecules from entering or leaving; wherein the substance and the internal layer are such that the substance is capable of passing through the one or more holes of the internal layer; and wherein the substance and the external layer are such that the substance is incapable of passing through the external layer. a shell structure including at least two layers including an internal layer and an external layer, wherein the substance is a macromolecule; wherein the internal layer encloses a hollow interior region comprising the substance in the hollow region; wherein the internal layer includes one or more holes penetrating said internal layer, the one or more holes having a diameter larger than the diameter of the macromolecule, wherein the one or more holes are mesopores with a size ranging from 2 nm to 50 nm, and the mesopores are sealed with a nanoporous shell material, wherein the external layer is formed around the internal layer and includes pores with a size less than 2 nm to allow substances smaller than 2 nm to diffuse in and out but prevent macromolecules from entering or leaving; wherein the substance and the internal layer are such that the substance is capable of passing through the one or more holes of the internal layer; and wherein the substance and the external layer are such that the substance is incapable of passing through the external layer.
A fuel cell system comprising: an auxiliary machine electrically connected to a fuel cell, the auxiliary machine being driven by power of the fuel cell; a heater electrically connected to the fuel cell, the heater being configured to heat cooling water supplied to the fuel cell; and a warm-up control unit configured to warm up the fuel cell itself by the supply of power to the auxiliary machine and the heater during start-up of the fuel cell below water freezing point, characterized in that the warm-up control unit includes: a water amount computation unit configured to compute a produced water amount on the basis of a degree of wetness and a temperature of the fuel cell and a generated power of the fuel cell during warm-up, the produced water amount being a water amount produced in an electrolyte membrane until the temperature of the fuel cell increases to a water freezing point temperature; and an anti-freezing control unit configured to increase a power ratio to the heater in regards to that to the auxiliary machine during the warm-up when the computed produced water amount is determined to be larger than a threshold value relating to a water retaining amount in the electrolyte membrane. an auxiliary machine electrically connected to a fuel cell, the auxiliary machine being driven by power of the fuel cell; a heater electrically connected to the fuel cell, the heater being configured to heat cooling water supplied to the fuel cell; and a warm-up control unit configured to warm up the fuel cell itself by the supply of power to the auxiliary machine and the heater during start-up of the fuel cell below water freezing point, characterized in that the warm-up control unit includes: a water amount computation unit configured to compute a produced water amount on the basis of a degree of wetness and a temperature of the fuel cell and a generated power of the fuel cell during warm-up, the produced water amount being a water amount produced in an electrolyte membrane until the temperature of the fuel cell increases to a water freezing point temperature; and an anti-freezing control unit configured to increase a power ratio to the heater in regards to that to the auxiliary machine during the warm-up when the computed produced water amount is determined to be larger than a threshold value relating to a water retaining amount in the electrolyte membrane. a water amount computation unit configured to compute a produced water amount on the basis of a degree of wetness and a temperature of the fuel cell and a generated power of the fuel cell during warm-up, the produced water amount being a water amount produced in an electrolyte membrane until the temperature of the fuel cell increases to a water freezing point temperature; and an anti-freezing control unit configured to increase a power ratio to the heater in regards to that to the auxiliary machine during the warm-up when the computed produced water amount is determined to be larger than a threshold value relating to a water retaining amount in the electrolyte membrane.
A particle beam irradiation system, comprising: a synchrotron constructed to accelerate and extract an ion beam; an irradiation apparatus adapted to irradiate the ion beam extracted from the synchrotron; and a controller including operating control data to control extraction of beams of a plurality of energy levels at one operating cycle and to enable rapid shifting to deceleration control from whatever energy level of the plurality of energy levels, and configured to control devices constituting the synchrotron by using the operating control data, wherein the operating control data includes a plurality of sets of deceleration control data (73a, 73b, 73c), wherein the controller is configured to conduct extraction control and enable rapid shift to deceleration control by having the deceleration control data (73a, 73b, 73c)corresponding to the respective extraction energy levels. a synchrotron constructed to accelerate and extract an ion beam; an irradiation apparatus adapted to irradiate the ion beam extracted from the synchrotron; and a controller including operating control data to control extraction of beams of a plurality of energy levels at one operating cycle and to enable rapid shifting to deceleration control from whatever energy level of the plurality of energy levels, and configured to control devices constituting the synchrotron by using the operating control data, wherein the operating control data includes a plurality of sets of deceleration control data (73a, 73b, 73c), wherein the controller is configured to conduct extraction control and enable rapid shift to deceleration control by having the deceleration control data (73a, 73b, 73c)corresponding to the respective extraction energy levels.
An artificial lung comprising: a filling portion communicating with an inlet port and an outlet port for blood and configured to be filled with blood; a heat exchange portion including a bundle of a plurality of hollow fibers for heat exchange and disposed in the filling portion; a gas exchange portion including a bundle of a plurality of hollow fibers for gas exchange and disposed in the filling portion to be adjacent to the heat exchange portion; and a porous member disposed in a gap between the heat exchange portion and the gas exchange portion and filling the gap wherein the porous member is a mesh material, in which a heat exchange portion side and a gas exchange portion side communicate with each other through holes and blood moves therebetween, characterized in that a mesh opening dimension of a hole formed in the porous member ranges from 200 μm to 1,800 μm, and an opening ratio of the holes ranges from 40% to 60%. a filling portion communicating with an inlet port and an outlet port for blood and configured to be filled with blood; a heat exchange portion including a bundle of a plurality of hollow fibers for heat exchange and disposed in the filling portion; a gas exchange portion including a bundle of a plurality of hollow fibers for gas exchange and disposed in the filling portion to be adjacent to the heat exchange portion; and a porous member disposed in a gap between the heat exchange portion and the gas exchange portion and filling the gap wherein the porous member is a mesh material, in which a heat exchange portion side and a gas exchange portion side communicate with each other through holes and blood moves therebetween, characterized in that a mesh opening dimension of a hole formed in the porous member ranges from 200 μm to 1,800 μm, and an opening ratio of the holes ranges from 40% to 60%.
A semiconductor light-emitting device die comprising: a semiconductor structure comprising a light emitting region which emits blue light and is disposed between an n-type region and a p-type region; a luminescent ceramic body comprising a wavelength-converting yellow/green emitting phosphor, the luminescent ceramic body being disposed in a path of light emitted by the light emitting region; and an adhesive layer of transparent material between the semiconductor structure and the luminescent ceramic body, wherein scattering particles of red-emitting phosphor are disposed in the layer of transparent material, and wherein the particles have an average diameter between 0.5λ and 20λ, where λ is the wavelength of light emitted by the light emitting region within the semiconductor structure. a semiconductor structure comprising a light emitting region which emits blue light and is disposed between an n-type region and a p-type region; a luminescent ceramic body comprising a wavelength-converting yellow/green emitting phosphor, the luminescent ceramic body being disposed in a path of light emitted by the light emitting region; and an adhesive layer of transparent material between the semiconductor structure and the luminescent ceramic body, wherein scattering particles of red-emitting phosphor are disposed in the layer of transparent material, and wherein the particles have an average diameter between 0.5λ and 20λ, where λ is the wavelength of light emitted by the light emitting region within the semiconductor structure.
A heating centrifugal pump assembly, with a centrifugal pump, with an electric motor driving the pump, with an electronic speed controller for the motor and with an internal electronic regulation, with which the correcting variable is the speed of the motor, wherein the speed controller and the regulation form part of the assembly, a signal input is provided for the external activation of the motor, and means are provided for switching over from the internal electronic regulation to an external speed control or for the connection of an external speed control, characterised in that the means for switching over are electronic means which determine whether an external control is connected or not, and which switch over to an external control on determining a connected external control.
A process for producing glass bottles with shoulders, in accordance with the cavity forming method comprising a preform preparation step and a finishing step, with blowing by compressed air or other gas, and 180° rotation of the preform between the preform mould and the finishing mould, characterised in that: - the preform preparation step is achieved by: a) introducing a glass gob into the mould through an upper aperture, b) from the base of the mould, inserting a blowing sleeve into the glass gob deposited on the base of the mould cavity, the end of said sleeve extending beyond the shoulders of the outline of the preform of the bottle to be produced, said sleeve being closed by a plunger element slidable within its interior, c) opening the cavity of the sleeve to disengage the plunger element, d) blowing air through said sleeve and in that the final finishing step is achieved in an open preform mould with a blowing head provided with a blowing tube, the volume of the cavity of said finishing mould being greater than the volume of the cavity of the preform mould by 5-20%. - the preform preparation step is achieved by: a) introducing a glass gob into the mould through an upper aperture, b) from the base of the mould, inserting a blowing sleeve into the glass gob deposited on the base of the mould cavity, the end of said sleeve extending beyond the shoulders of the outline of the preform of the bottle to be produced, said sleeve being closed by a plunger element slidable within its interior, c) opening the cavity of the sleeve to disengage the plunger element, d) blowing air through said sleeve a) introducing a glass gob into the mould through an upper aperture, b) from the base of the mould, inserting a blowing sleeve into the glass gob deposited on the base of the mould cavity, the end of said sleeve extending beyond the shoulders of the outline of the preform of the bottle to be produced, said sleeve being closed by a plunger element slidable within its interior, c) opening the cavity of the sleeve to disengage the plunger element, d) blowing air through said sleeve
A system for deploying a needle in tissue, said system comprising: a probe comprising a shaft having a deployable needle and an imaging transducer, wherein the needle is configured to be advanced into an image field produced by the imaging transducer, and a system controller including a screen for displaying the image produced by the imaging transducer, wherein the system controller calculates and displays an overlay with projected needle treatment information on the screen, wherein the needle treatment information comprises a projected needle path, characterised in that the system controller is adapted such that a user can manipulate the probe to align the projected needle path with a target anatomy in the image field visible on the screen. a probe comprising a shaft having a deployable needle and an imaging transducer, wherein the needle is configured to be advanced into an image field produced by the imaging transducer, and a system controller including a screen for displaying the image produced by the imaging transducer, wherein the system controller calculates and displays an overlay with projected needle treatment information on the screen, wherein the needle treatment information comprises a projected needle path, characterised in that the system controller is adapted such that a user can manipulate the probe to align the projected needle path with a target anatomy in the image field visible on the screen.
Use of a primer composition comprising at least one polyaldimine ALD of formula where A is the remainder of a primary aliphatic amine after the removal of n primary amino groups; Y 1 and Y 2 each independently of one another is a monovalent hydrocarbon radical having 1 to 4 C atoms, or together represent a divalent hydrocarbon radical having 4 to 5 C atoms; Y 3 is a branched or unbranched hydrocarbon radical having 1 to 8 C atoms, optionally with cyclic moieties and/or optionally with at least one heteroatom, especially oxygen in the form of ether, ester or aldehyde groups; n is 2 or 3; and at least one polyisocyanate P as a primer for adhesives or sealants.
An information processing apparatus comprising: a detection unit configured to detect an abnormal region inside a body from a captured image in which the inside of the body is imaged; and an output unit configured to count the number of the abnormal regions detected by the detection unit, generate output information including information indicating the number of the abnormal regions, and output the generated output information, characterized in that the output unit is configured to output the generated output information in such a manner that for each of the abnormal regions the information indicating the number of the abnormal regions is superimposed on the captured image at a position at which a distance is equal to or less than a predetermined value from the respective abnormal region. a detection unit configured to detect an abnormal region inside a body from a captured image in which the inside of the body is imaged; and an output unit configured to count the number of the abnormal regions detected by the detection unit, generate output information including information indicating the number of the abnormal regions, and output the generated output information, characterized in that the output unit is configured to output the generated output information in such a manner that for each of the abnormal regions the information indicating the number of the abnormal regions is superimposed on the captured image at a position at which a distance is equal to or less than a predetermined value from the respective abnormal region.
Abase plate of a battery module assembly, wherein the base plate is made of a metal sheet having module receiving parts, on which one or more battery modules each comprising battery cells are loaded, formed at a top thereof, the sheet is provided at at least a portion of an outer edge thereof with upwardly bent side walls, and the module receiving parts (301, 302, 303, 304) are provided with reinforcement beads protruding toward the battery modules, characterized in that each of the reinforcement beads comprises: a main bead located at a center of a corresponding one of the module receiving parts (301, 302, 303, 304) for absorbing stress concentrated on the center of a corresponding one of the battery modules, the main bead being circular when viewed from above; auxiliary beads located at corners of a corresponding one of the module receiving parts, each of the auxiliary beads having a smaller size than the main bead, each of the auxiliary beads being circular when viewed from above; and connection beads extending from the main bead to the respective auxiliary beads. a main bead located at a center of a corresponding one of the module receiving parts (301, 302, 303, 304) for absorbing stress concentrated on the center of a corresponding one of the battery modules, the main bead being circular when viewed from above; auxiliary beads located at corners of a corresponding one of the module receiving parts, each of the auxiliary beads having a smaller size than the main bead, each of the auxiliary beads being circular when viewed from above; and connection beads extending from the main bead to the respective auxiliary beads.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein L is selected from the group consisting of -CH 2 -, -CH(CH 3)-, -C(CH 3) 2 -, -CF 2 -, and -S-; X is selected from the group consisting of C and N; Y is selected from the group consisting of C and N; R 1 has the formula R 19 is a cyclopropyl; R 3 is selected from the group consisting of hydrogen and methyl, or R 3 is absent when the nitrogen to which it is bound forms part of a double bond; R 20b is selected from the group consisting of hydrogen, methyl, ethyl, and propyl; or the pharmaceutically acceptable salts thereof. L is selected from the group consisting of -CH 2 -, -CH(CH 3)-, -C(CH 3) 2 -, -CF 2 -, and -S-; X is selected from the group consisting of C and N; Y is selected from the group consisting of C and N; R 1 has the formula R 19 is a cyclopropyl; R 3 is selected from the group consisting of hydrogen and methyl, or R 3 is absent when the nitrogen to which it is bound forms part of a double bond; R 20b is selected from the group consisting of hydrogen, methyl, ethyl, and propyl; or the pharmaceutically acceptable salts thereof.