mhurhangee/ep-ind-claims huggingface dataset:
A non-naturally occurring microbial organism comprising attenuation of cydA or cydB, attenuation of the protein encoded by sucCD, and one or more of a genetic alteration selected from the group consisting of: (a) a genetic alteration that increases expression of a protein encoded by pntAB; (b) attenuation of the protein encoded by pykF; (c) attenuation of the protein encoded by yciA; (d) a genetic alteration that increases expression of a protein encoded by ackA and a protein encoded by pta; (e) a genetic alteration that increases expression of a protein encoded by cyoB; (f) attenuation of the protein encoded by pykA; (g) attenuation of the protein encoded by arcA; (h) attenuation of the protein encoded by err; (i) attenuation of the protein encoded by clpA; and (j) attenuation of the protein encoded by menC. (a) a genetic alteration that increases expression of a protein encoded by pntAB; (b) attenuation of the protein encoded by pykF; (c) attenuation of the protein encoded by yciA; (d) a genetic alteration that increases expression of a protein encoded by ackA and a protein encoded by pta; (e) a genetic alteration that increases expression of a protein encoded by cyoB; (f) attenuation of the protein encoded by pykA; (g) attenuation of the protein encoded by arcA; (h) attenuation of the protein encoded by err; (i) attenuation of the protein encoded by clpA; and (j) attenuation of the protein encoded by menC.
A method of detecting defects of fiber materials of a fiber composite material deposited on a tool for manufacturing a fiber composite component, the method comprising the following steps: - Recording a fiber material surface of the fiber material deposited on the tool and generating digital image data of the fiber material surface by means of at least one image-based recording device; - Normalizing the image data by increasing the variance of a frequency distribution of color-, contrast- and/or brightness-related image features of the digital image data and generating normalized image data by means of an image processing unit; - Detection of defects on the deposited fiber material by means of an image analysis of the normalized image data using an evaluation unit. - Recording a fiber material surface of the fiber material deposited on the tool and generating digital image data of the fiber material surface by means of at least one image-based recording device; - Normalizing the image data by increasing the variance of a frequency distribution of color-, contrast- and/or brightness-related image features of the digital image data and generating normalized image data by means of an image processing unit; - Detection of defects on the deposited fiber material by means of an image analysis of the normalized image data using an evaluation unit.
A method of sensing a water contamination in a flowing fluid fuel under test with millimeter wave radiation used to measure a resonance curve in a resonance sensor, wherein at least a part of a first resonance curve is measured in a resonator of a second sensor comprising reference fuel having low or no contamination, obtained in real time with filtration of a sample of the fuel under test and at least a part of a second resonance curve is measured in a resonator of a first sensor comprising fuel under test and an assessment of the water contamination is based on comparison of the first and the second resonance curve, with reference to calibration data representing a relation between the level of contamination and the resonance curves, wherein the resonators have a resonant frequency within a range of 20 to 30 GHz and measurements are taken at frequencies within frequency band between 20 and 30 GHz. at least a part of a first resonance curve is measured in a resonator of a second sensor comprising reference fuel having low or no contamination, obtained in real time with filtration of a sample of the fuel under test and at least a part of a second resonance curve is measured in a resonator of a first sensor comprising fuel under test and an assessment of the water contamination is based on comparison of the first and the second resonance curve, with reference to calibration data representing a relation between the level of contamination and the resonance curves, wherein the resonators have a resonant frequency within a range of 20 to 30 GHz and measurements are taken at frequencies within frequency band between 20 and 30 GHz.
A peritoneal dialysis machine comprising: a machine housing including at least one pump actuator, a rotational to linear motion converter operable with a pump piston leading to a pump piston head, at least one valve actuator and an assembly (10, 120, 220, 320, 420) for interfacing with a disposable cassette (90, 150), the assembly (10, 120, 220, 320, 420) including: a plate that faces a flexible sheet of the cassette (90, 150) when loaded into the machine; at least one pump aperture defined by the plate; the at least one pump piston head moveable out of and retractable into the at least one pump aperture via the rotational to linear motion converter to operate a corresponding pumping portion of the flexible sheet of the cassette (90, 150); at least one valve mating aperture defined by the plate; at least one valve plunger moveable out of and retractable into the at least one valve mating aperture to operate a valve portion of the flexible sheet of the cassette (90, 150); and at least one sensor extending through the plate, the at least one sensor operable with a sensor portion of the flexible sheet of the cassette (90, 150). a machine housing including at least one pump actuator, a rotational to linear motion converter operable with a pump piston leading to a pump piston head, at least one valve actuator and an assembly (10, 120, 220, 320, 420) for interfacing with a disposable cassette (90, 150), the assembly (10, 120, 220, 320, 420) including: a plate that faces a flexible sheet of the cassette (90, 150) when loaded into the machine; at least one pump aperture defined by the plate; the at least one pump piston head moveable out of and retractable into the at least one pump aperture via the rotational to linear motion converter to operate a corresponding pumping portion of the flexible sheet of the cassette (90, 150); at least one valve mating aperture defined by the plate; at least one valve plunger moveable out of and retractable into the at least one valve mating aperture to operate a valve portion of the flexible sheet of the cassette (90, 150); and at least one sensor extending through the plate, the at least one sensor operable with a sensor portion of the flexible sheet of the cassette (90, 150). a plate that faces a flexible sheet of the cassette (90, 150) when loaded into the machine; at least one pump aperture defined by the plate; the at least one pump piston head moveable out of and retractable into the at least one pump aperture via the rotational to linear motion converter to operate a corresponding pumping portion of the flexible sheet of the cassette (90, 150); at least one valve mating aperture defined by the plate; at least one valve plunger moveable out of and retractable into the at least one valve mating aperture to operate a valve portion of the flexible sheet of the cassette (90, 150); and at least one sensor extending through the plate, the at least one sensor operable with a sensor portion of the flexible sheet of the cassette (90, 150).
A multidimensional color barcode for storing information, the multidimensional color barcode comprising: a plurality of data cells, wherein at least one data cell of the plurality of the data cells is encoded with information; and a plurality of palette cells, wherein the plurality of palette cells forms a color palette, wherein on each side of the multidimensional color barcode a color palette is placed, wherein the plurality of palette cells are arranged in a predefined order in the color palette, wherein a palette cell is assigned with a palette value based on the predefined order of the plurality of palette cells, wherein a data cell is assigned with a color selected from the color palette, wherein a data cell is associated with a binary number, wherein the binary number is derived from a palette value associated with the color of the data cell, characterized in that each digit of the binary number depicts a value for a corresponding data cell in one two dimensional barcode of at least three two dimensional barcodes, wherein the at least three two dimensional barcodes have been generated from at least three corresponding subsets obtained from splitting the information to be stored. a plurality of data cells, wherein at least one data cell of the plurality of the data cells is encoded with information; and a plurality of palette cells, wherein the plurality of palette cells forms a color palette, wherein on each side of the multidimensional color barcode a color palette is placed, wherein the plurality of palette cells are arranged in a predefined order in the color palette, wherein a palette cell is assigned with a palette value based on the predefined order of the plurality of palette cells, wherein a data cell is assigned with a color selected from the color palette, wherein a data cell is associated with a binary number, wherein the binary number is derived from a palette value associated with the color of the data cell, characterized in that each digit of the binary number depicts a value for a corresponding data cell in one two dimensional barcode of at least three two dimensional barcodes, wherein the at least three two dimensional barcodes have been generated from at least three corresponding subsets obtained from splitting the information to be stored.
A communication device comprising: a receiver configured to receive a packet from another communication device; a transmitter configured to execute first transmission processing, in which a first reception confirmation packet indicating reception of a first number of packets is transmitted to the other communication device every time the first number of packets is received from the other communication device, and second transmission processing, in which a second reception confirmation packet indicating reception of a second number of packets, the second number being smaller than the first number, is transmitted to the other communication device every time the second number of packets is received from the other communication device; and a controller configured to control the transmitter to execute the second transmission processing when the wireless quality of wireless communication with the other communication device exceeds a predetermined value. a receiver configured to receive a packet from another communication device; a transmitter configured to execute first transmission processing, in which a first reception confirmation packet indicating reception of a first number of packets is transmitted to the other communication device every time the first number of packets is received from the other communication device, and second transmission processing, in which a second reception confirmation packet indicating reception of a second number of packets, the second number being smaller than the first number, is transmitted to the other communication device every time the second number of packets is received from the other communication device; and a controller configured to control the transmitter to execute the second transmission processing when the wireless quality of wireless communication with the other communication device exceeds a predetermined value.
A method for manufacturing a three-dimensional structure, comprising: a first application step of applying a non-sinterable paste onto the surface of a base member to produce a separation aid layer; a second application step of applying a glass powder-containing paste A onto the surface of the separation aid layer to produce a coating film A; a pattern formation step of processing the coating film A to produce a pre-firing pattern; a firing step of firing the pre-firing pattern and the separation aid layer to produce a post-firing pattern and an unsintered layer, respectively; and a separation step of separating the post-firing pattern and the unsintered layer from the base member to manufacture the three-dimensional structure. a first application step of applying a non-sinterable paste onto the surface of a base member to produce a separation aid layer; a second application step of applying a glass powder-containing paste A onto the surface of the separation aid layer to produce a coating film A; a pattern formation step of processing the coating film A to produce a pre-firing pattern; a firing step of firing the pre-firing pattern and the separation aid layer to produce a post-firing pattern and an unsintered layer, respectively; and a separation step of separating the post-firing pattern and the unsintered layer from the base member to manufacture the three-dimensional structure.
A manufacturing method of an insert molded article, wherein an insert with a thermoset resin adhesive applied to a joining surface relative to a plastic is placed in a molding die and a molten material for the plastic is injected from a gate into a cavity of the molding die to manufacture an insert molded article, the insert is an annular-shaped metallic part, and the molding die has an insert core type molding die structure or a slide core -type molding die structure so as to arrange a gate as an inner disc gate at a position separated by 0.2 mm or more in an out-of-plane direction from the surface of the adhesive applied to the joining surface of the insert, comprising: an adhesive application step of applying the adhesive to a surface of the insert including the joining surface; a natural drying step of volatilizing a solvent contained in the adhesive by natural drying or a drying and solidification step of volatilizing the solvent contained in the adhesive to dry and solidify the adhesive under temperature conditions lower than the temperature at which the adhesive starts cross-linking reaction; and an injection molding step of placing the insert having undergone the natural drying step or the drying and solidification step in the molding die and injecting the molten material for the plastic from the gate into the cavity of the molding die. an adhesive application step of applying the adhesive to a surface of the insert including the joining surface; a natural drying step of volatilizing a solvent contained in the adhesive by natural drying or a drying and solidification step of volatilizing the solvent contained in the adhesive to dry and solidify the adhesive under temperature conditions lower than the temperature at which the adhesive starts cross-linking reaction; and an injection molding step of placing the insert having undergone the natural drying step or the drying and solidification step in the molding die and injecting the molten material for the plastic from the gate into the cavity of the molding die.
A computer-implemented ex vivo method for determining the activity of an auto-inflammatory disease in a patient, wherein said auto-inflammatory disease is chosen in the group consisting of a hereditary recurrent fever syndrome (HRFs), mevalonate kinase deficiency, tumor necrosis factor receptor -associated periodic syndrome (TRAPS), and cryopyrin-associated periodic syndromes (CAPS), comprising the steps of: a) Having said patient daily report, during a one-month period, the status of 12 items consisting of Fever ≥38°C, Overall symptoms, Abdominal pain, Nausea/vomiting, Diarrhea, Headaches, Chest pain, Painful nodes, Arthralgia or Myalgia, Swelling of the joints, Eyes manifestations, Skin rash, b) Recovering said reports from said patient c) Allocating the value "1" to each item which was noted as being present by said patient and the value "0" to each item which was noted as being absent by said patient d) Combining, through an algebraic sum, all the values obtained in step c) for each days of a consecutive period of one month in order to obtain an end value, wherein said auto-inflammatory disease is active in said patient if said end-value is higher than a predetermined cut-off, wherein said predetermined cut-off is 9. a) Having said patient daily report, during a one-month period, the status of 12 items consisting of Fever ≥38°C, Overall symptoms, Abdominal pain, Nausea/vomiting, Diarrhea, Headaches, Chest pain, Painful nodes, Arthralgia or Myalgia, Swelling of the joints, Eyes manifestations, Skin rash, b) Recovering said reports from said patient c) Allocating the value "1" to each item which was noted as being present by said patient and the value "0" to each item which was noted as being absent by said patient d) Combining, through an algebraic sum, all the values obtained in step c) for each days of a consecutive period of one month in order to obtain an end value,
A temperature measuring method for an induction cooker, the induction cooker comprising a glass ceramic panel and at least three temperature sensors scattered on a bottom surface of the glass ceramic panel, the induction cooker being configured to heat a container to be measured, the method being characterised by comprising the following operations: obtaining temperature data collected by the at least three temperature sensors and position data of each of the temperature sensors relative to the glass ceramic panel; obtaining an actual position of the container to be measured on the glass ceramic panel according to the temperature data and the position data; retrieving a preset temperature curve matching the temperature data of the induction cooker according to the temperature data, and extracting a peak value of the preset temperature curve; and calculating an actual temperature of the container to be measured according to the actual position and the peak value. obtaining temperature data collected by the at least three temperature sensors and position data of each of the temperature sensors relative to the glass ceramic panel; obtaining an actual position of the container to be measured on the glass ceramic panel according to the temperature data and the position data; retrieving a preset temperature curve matching the temperature data of the induction cooker according to the temperature data, and extracting a peak value of the preset temperature curve; and calculating an actual temperature of the container to be measured according to the actual position and the peak value.
Light-emitting diode including at least: - a first layer of n-doped Al X1 Ga (1-X1-Y1) In Y1 N, with X1 > 0 and X1+Y1 ≤ 1; - a second layer of p-doped Al X2 Ga (1-X2-Y2)In Y2 N, with X2 > 0 and X2+Y2 ≤ 1; - an active area disposed between the first and second layers (106, 108) and comprising at least one multi-quantum well emissive structure (112, 114); and - an ohmic contact layer, and characterized in that the light-emitting diode also comprises: - nanowires based on AIN p-doped with indium and magnesium atoms, disposed on the second layer; and in that the ohmic contact layer is in contact with the nanowires. - a first layer of n-doped Al X1 Ga (1-X1-Y1) In Y1 N, with X1 > 0 and X1+Y1 ≤ 1; - a second layer of p-doped Al X2 Ga (1-X2-Y2)In Y2 N, with X2 > 0 and X2+Y2 ≤ 1; - an active area disposed between the first and second layers (106, 108) and comprising at least one multi-quantum well emissive structure (112, 114); and - an ohmic contact layer, and characterized in that the light-emitting diode also comprises: - nanowires based on AIN p-doped with indium and magnesium atoms, disposed on the second layer; - nanowires based on AIN p-doped with indium and magnesium atoms, disposed on the second layer; and in that the ohmic contact layer is in contact with the nanowires.
A light emitting diode, LED, filament arrangement, comprising at least one LED filament comprising an array of a plurality of light emitting diodes, LEDs, wherein the at least one LED filament comprises a first portion having a first shape, wherein the first portion is configured to emit light of a first spectral distribution, S 1, in a first spatial direction, D 1, and a second portion having a second shape, different from the first shape, wherein the second portion is configured to emit light of a second spectral distribution, S 2, in a second spatial direction, D 2, wherein first spectral distribution, S 1, is different from the second spectral distribution, S 2, and wherein the first spatial direction, D 1, is different from the second spatial direction, D 2, and, wherein the second portion has a spiral, meander, coil or helix shape. at least one LED filament comprising an array of a plurality of light emitting diodes, LEDs, wherein the at least one LED filament comprises a first portion having a first shape, wherein the first portion is configured to emit light of a first spectral distribution, S 1, in a first spatial direction, D 1, and a second portion having a second shape, different from the first shape, wherein the second portion is configured to emit light of a second spectral distribution, S 2, in a second spatial direction, D 2, wherein first spectral distribution, S 1, is different from the second spectral distribution, S 2, and wherein the first spatial direction, D 1, is different from the second spatial direction, D 2, and, wherein the second portion has a spiral, meander, coil or helix shape.
A valve robot hand, characterized in comprising: a driving device, a transmitting sleeve, a first return spring, a first centering sleeve configured to sleeve on a screw cap of a valve handle, and a driving fork configured to couple with the valve handle; wherein a lower end of the transmitting sleeve is connected with the driving fork, the driving fork is provided with a first through-hole configured to sleeve on the screw cap of the valve handle, the first through-hole is coaxial with the transmitting sleeve, the driving fork is sleeved on the first centering sleeve through the first through-hole such that the first centering sleeve is capable of moving in the transmitting sleeve along its axial direction; the first return spring is configured to exert a downward elastic force on the first centering sleeve, the driving device is in transmission connection with an upper end of the transmitting sleeve, so as to drive the driving fork to rotate through the transmitting sleeve, characterized in that the valve robot hand further comprises a second return spring and a second centering sleeve configured to sleeve on the screw cap of the valve handle, the first centering sleeve is sleeved on the second centering sleeve so that the second centering sleeve is movable in the first centering sleeve along its axial direction; the second return spring being configured to exert a downward elastic force on the second centering sleeve. a driving device, a transmitting sleeve, a first return spring, a first centering sleeve configured to sleeve on a screw cap of a valve handle, and a driving fork configured to couple with the valve handle; wherein a lower end of the transmitting sleeve is connected with the driving fork, the driving fork is provided with a first through-hole configured to sleeve on the screw cap of the valve handle, the first through-hole is coaxial with the transmitting sleeve, the driving fork is sleeved on the first centering sleeve through the first through-hole such that the first centering sleeve is capable of moving in the transmitting sleeve along its axial direction; the first return spring is configured to exert a downward elastic force on the first centering sleeve, the driving device is in transmission connection with an upper end of the transmitting sleeve, so as to drive the driving fork to rotate through the transmitting sleeve, characterized in that the valve robot hand further comprises a second return spring and a second centering sleeve configured to sleeve on the screw cap of the valve handle, the first centering sleeve is sleeved on the second centering sleeve so that the second centering sleeve is movable in the first centering sleeve along its axial direction; the second return spring being configured to exert a downward elastic force on the second centering sleeve.