mhurhangee/ep-ind-claims huggingface dataset:
A compression belt assembly for use with a chest compression device, said compression belt assembly comprising: a compression belt comprising a first end and a second end; a guard (16, 16R, 16L) slidably disposed on the compression belt proximate the first end, the guard comprising a first fastener component configured to releasably attach the guard (16, 16R, 16L) to a second fastener component of the chest compression device, and a first sensor component interoperable with a second sensor component of the chest compression device and configured to indicate attachment of the guard to the chest compression device. a compression belt comprising a first end and a second end; a guard (16, 16R, 16L) slidably disposed on the compression belt proximate the first end, the guard comprising a first fastener component configured to releasably attach the guard (16, 16R, 16L) to a second fastener component of the chest compression device, and a first sensor component interoperable with a second sensor component of the chest compression device and configured to indicate attachment of the guard to the chest compression device. a first fastener component configured to releasably attach the guard (16, 16R, 16L) to a second fastener component of the chest compression device, and a first sensor component interoperable with a second sensor component of the chest compression device and configured to indicate attachment of the guard to the chest compression device.
A machine for processing mixture-based compound products, which, by means of at least the mixing and dispensing thereof, processes compound products based on two or more ingredients which comprises distributor means for ingredients linked by means of internal circuits to dispenser means that pour said ingredients in a mixing recipient wherein in said distributor means, dispenser means and circuits are independent with regard to one another, at least one of said dispenser means being a pressure dispenser means, made up of one or more injection needles, that pours at least one mixing ingredient at pressure into the mixing recipient which is situated outside of the circuits of the machine and in which the different ingredients to be mixed are poured to make up the final product, wherein the pressure of said mixing ingredient determines the mechanical mixture of the ingredients inside the mixing recipient characterized in that the pressure means are able to be aimed and/or connected to a rotating head.
A light engine, comprising: a wavelength conversion device, arranged to receive source light of a first wavelength range and a first polarisation, wherein the wavelength conversion device comprises a wheel, a first portion of the wheel surface being configured to generate light of a second wavelength range from a portion of the received source light, at least a portion of the second wavelength range being non-overlapping with the first wavelength range, the wavelength conversion device being further arranged to reflect output light comprising the generated light, wherein the wavelength conversion device further comprises a polarisation converter, configured to set at least some of the output light to a second polarisation, different from the first polarisation; and a dichroic element, arranged to receive the reflected output light, the dichroic element being configured to direct light of the first polarisation differently from light of the second polarisation, characterised in that said polarisation converter is either attached to or positioned behind the wheel. a wavelength conversion device, arranged to receive source light of a first wavelength range and a first polarisation, wherein the wavelength conversion device comprises a wheel, a first portion of the wheel surface being configured to generate light of a second wavelength range from a portion of the received source light, at least a portion of the second wavelength range being non-overlapping with the first wavelength range, the wavelength conversion device being further arranged to reflect output light comprising the generated light, wherein the wavelength conversion device further comprises a polarisation converter, configured to set at least some of the output light to a second polarisation, different from the first polarisation; and a dichroic element, arranged to receive the reflected output light, the dichroic element being configured to direct light of the first polarisation differently from light of the second polarisation, characterised in that said polarisation converter is either attached to or positioned behind the wheel.
A manufacturing process for a sintered Nd-Fe-B magnet, wherein a content of the impurities of elements C, O, and N in the magnet satisfies formula 1.2 C + 0.6 O + N ≤ 2800 ppm, the process comprising the steps of: a) providing an alloy sheet made of a Nd-Fe-B magnet composition, wherein Pr and Nd are present In a combined amount of 31 wt.% ≤ Pr and Nd ≤ 34wt.%; B is present In an amount of 0.8 wt.% ≤ B ≤ 1.2 wt%; Al is present in an amount of 0.4 wt.% ≤ Al ≤ 0.8 wt.%; Co is present in an amount of 0.6 wt.% ≤ Co ≤ 1.2 wt.%; Cu is present in an amount of 0.2 wt.% ≤ Cu ≤ 0.5 wt.%; Ga is present in an amount of 0.1 wt.% ≤ Ga ≤ 0.4 wt.%; and wherein the balance element is Fe; b) the alloy sheet is subjected to a decrepitation process to obtain an alloy powder; c) an amount of 0.05 to 0.5 wt.% lubricant is added to the alloy powder and then the mixture is milled by a jet mill process until an average particle size D50 of the resulting alloy powder ranges from 2.0 μm to 3.0 μm; d) another amount of 0.03 to 0.2 wt.% lubricant Is added to the alloy powder after milling and mixed, then the alloy powder is compressed into compacts while applying an orienting magnetic field of 2.0 to 2.5T; and e) the compacts are sintered In a vacuum furnace, wherein a pressure within the furnace during the sintering step is equal to or less than 5x10 -2 Pa. a) providing an alloy sheet made of a Nd-Fe-B magnet composition, wherein Pr and Nd are present In a combined amount of 31 wt.% ≤ Pr and Nd ≤ 34wt.%; B is present In an amount of 0.8 wt.% ≤ B ≤ 1.2 wt%; Al is present in an amount of 0.4 wt.% ≤ Al ≤ 0.8 wt.%; Co is present in an amount of 0.6 wt.% ≤ Co ≤ 1.2 wt.%; Cu is present in an amount of 0.2 wt.% ≤ Cu ≤ 0.5 wt.%; Ga is present in an amount of 0.1 wt.% ≤ Ga ≤ 0.4 wt.%; and wherein the balance element is Fe; b) the alloy sheet is subjected to a decrepitation process to obtain an alloy powder; c) an amount of 0.05 to 0.5 wt.% lubricant is added to the alloy powder and then the mixture is milled by a jet mill process until an average particle size D50 of the resulting alloy powder ranges from 2.0 μm to 3.0 μm; d) another amount of 0.03 to 0.2 wt.% lubricant Is added to the alloy powder after milling and mixed, then the alloy powder is compressed into compacts while applying an orienting magnetic field of 2.0 to 2.5T; and e) the compacts are sintered In a vacuum furnace, wherein a pressure within the furnace during the sintering step is equal to or less than 5x10 -2 Pa.
A method for delivering ink, comprising performing a preconditioning operation to a printhead having an off-axis ink supply unit and a first pump coupled to the printhead, the preconditioning operation comprises priming, holding and venting operations by using the first pump; cooperatively operating the printhead and an ink supply station, ISS, which has a second pump coupled to the ISS, to deliver ink from the ISS to the printhead by using the first pump and the second pump to provide positive pressure to the printhead and the ISS, wherein the cooperatively operating the printhead and the ISS comprises: performing hyperinflation operation to the off-axis ink supply unit coupled to the printhead, the hyperinflation operation comprises priming and holding operation by using the first pump coupled to the printhead; performing priming, holding and venting to the ISS by using the second pump while the holding operation is performed to the off-axis ink supply unit; and performing venting operation to the off-axis ink supply unit coupled to the printhead; and performing a filling up operation to the printhead, the filling up operation comprises performing priming, holding and venting operations to the off-axis ink supply unit using the first pump. performing hyperinflation operation to the off-axis ink supply unit coupled to the printhead, the hyperinflation operation comprises priming and holding operation by using the first pump coupled to the printhead; performing priming, holding and venting to the ISS by using the second pump while the holding operation is performed to the off-axis ink supply unit; and performing venting operation to the off-axis ink supply unit coupled to the printhead; and
A method of preparing a hair dye color mixture, the method comprising: accessing a control system having at least a memory, input controls, and a display; the memory having at least one formula stored therein, the formula defining instructions of one or more colorants and/or dye blending materials and amounts recommended for manually recreating a hair dye color mixture having a particular mixture of colors, each of one or more colorants and/or blending materials being of a first product brand; employing brand selection software to receive a manual input from the input controls to change a colorant and/or blending material from the first product brand to a second product brand while maintaining a same color mixture; employing brand adjusting software to adjust the instructions and recommended amounts according to the first and second product brands to duplicate the particular mixture of colors of the hair dye mixture from colorants and/or blending materials in the first product brand using colorants and/or blending materials in the second product brand, in response to the manual input. accessing a control system having at least a memory, input controls, and a display; the memory having at least one formula stored therein, the formula defining instructions of one or more colorants and/or dye blending materials and amounts recommended for manually recreating a hair dye color mixture having a particular mixture of colors, each of one or more colorants and/or blending materials being of a first product brand; employing brand selection software to receive a manual input from the input controls to change a colorant and/or blending material from the first product brand to a second product brand while maintaining a same color mixture; employing brand adjusting software to adjust the instructions and recommended amounts according to the first and second product brands to duplicate the particular mixture of colors of the hair dye mixture from colorants and/or blending materials in the first product brand using colorants and/or blending materials in the second product brand, in response to the manual input.
A powered transport device for a person support apparatus, the powered transport device comprising a floor contacting driver, a prime mover coupled to the driver and with an output of the prime mover providing input to the driver, a power source providing power to the prime mover, and a controller sensing a performance characteristic of the powered transport device and varying the operation of the powered transport device based on the performance characteristic, characterized in that the controller provides a drive signal to the prime mover, the drive signal indicative of a desired speed of movement of the powered transport device, senses the actual speed of the driver of the powered transport device, and varies the drive signal to respond to differences between the actual speed and the desired speed. a floor contacting driver, a prime mover coupled to the driver and with an output of the prime mover providing input to the driver, a power source providing power to the prime mover, and a controller sensing a performance characteristic of the powered transport device and varying the operation of the powered transport device based on the performance characteristic, characterized in that the controller provides a drive signal to the prime mover, the drive signal indicative of a desired speed of movement of the powered transport device, senses the actual speed of the driver of the powered transport device, and varies the drive signal to respond to differences between the actual speed and the desired speed.
A device for driving into rotation a rotary tool for a food processing appliance, notably a basket for a centrifuge for fruit and vegetables, this device comprises a driving shaft, which is rotary on itself around a central axis (X-X) and which is secured to a head for driving the tools into rotation around the axis, the tool being added onto the driving head in a removable way, and the driving head including a driving hub which is adapted to be engaged with a driven hub of the tools for transmitting a rotary movement around the central axis (X-X) of the driving hub to the driven hub, characterized in that the driving head is provided with centrifugal weights for locking the tool on the driving head, which centrifugal weights are moveable, under the effect of a centrifugal force resulting from the setting into a rotation around the central axis (X-X) of the driving head by the driving shaft, between a rest position, in which the centrifugal weights do not interfere with the driven hub and a position of use in which, a portion of each of the centrifugal weights is brought closer to the central axis (X-X) and mechanically cooperates with the driven hub for maintaining it engaged with the driving hub.
Rail vehicle coupling for coupling a rail vehicle to a rail vehicle designed as an intermediate module, comprising a coupling head configured for detachable coupling to one of the two rail vehicles (2, 3) and a coupling body configured for detachable coupling to the other of the two rail vehicles (2, 3), characterised in that the rail vehicle coupling comprises an axle aligned horizontally that is coupled to the coupling body and passes through a spherical bearing coupled to the coupling head 4, wherein the ends of the axle engage in a guide slide coupled to the coupling head, wherein this guide slide blocks the movability of the axle relative to the coupling head about the longitudinal axis of the rail vehicle coupling.
A method for predicting a specific heat of a steel sheet in a cooling process from the Ae 3 or above temperature of the steel sheet, characterized by preliminarily obtaining enthalpies (Hγ and Hα) of an austenite phase and ferrite phase respectively at some temperatures, obtaining a dynamic enthalpy (Hsys) defined by formula with an untransformed fraction (Xγ) of austenite in accordance with a predetermined temperature pattern, and predicting the specific heat by using a dynamic specific heat defined by a gradient of this dynamic enthalpy with respect to temperature obtained by differentiating the dynamic enthalpy by the temperature or by ΔHsys / ΔT using the change (Hsys) of dynamic enthalpy with regard to fine temperature changes (ΔT): Hsys = Hγ Xγ + Hα 1 − Xγ
A process for preparing a divinylarene dioxide comprising reacting a mixture of: (a) at least one divinylarene, (b) at least one peroxycarboximidic acid epoxidizing agent, (c) at least one solvent, (d) at least one basic compound, and (e) at least one free radical polymerization inhibitor comprising a nitroxide compound, under conditions to form a divinylarene dioxide product; wherein the mole ratio of peroxycarboximidic acid to the ethylenic double bonds of the divinylarene comprises less than 2.0; and wherein the percent yield of divinylarene dioxide product based on divinylarene comprises greater than 50 percent; and wherein the free radical polymerization inhibitor is added to the reaction mixture intermittently or continuously over the course of the reaction.
A planar-beam, light detection and ranging (PLADAR) system, the PLADAR system comprising: a laser scanner emitting a planar beam; a detector array to detect reflected light based on the planar beam being reflected off objects and surfaces; and characterized by: an adjustment controller; wherein the detector array comprises at least one row of photodetectors included on a circuit board of the PLADAR system, the circuit board comprising a number of adjustment components to calibrate each of the at least one row of photodetectors; and wherein the adjustment controller dynamically adjusts the adjustment components to configure the at least one row of photodetectors in response to a command signal from a data processing system. a laser scanner emitting a planar beam; a detector array to detect reflected light based on the planar beam being reflected off objects and surfaces; and characterized by: an adjustment controller; wherein the detector array comprises at least one row of photodetectors included on a circuit board of the PLADAR system, the circuit board comprising a number of adjustment components to calibrate each of the at least one row of photodetectors; and wherein the adjustment controller dynamically adjusts the adjustment components to configure the at least one row of photodetectors in response to a command signal from a data processing system. an adjustment controller; wherein the detector array comprises at least one row of photodetectors included on a circuit board of the PLADAR system, the circuit board comprising a number of adjustment components to calibrate each of the at least one row of photodetectors; and wherein the adjustment controller dynamically adjusts the adjustment components to configure the at least one row of photodetectors in response to a command signal from a data processing system.
A built-in cooking hob comprising a cooking plate, a housing, a control unit, at least one heating means, a power cord, said cooking plate obstructing an upper opening of said housing, said housing comprising at least one lower wall and side walls (5b, 5c, 5d), said power cord supplying said control unit and said at least one means of heating from an external electrical power network, characterized in that said housing comprises an additional wall connecting said lower wall to said housing and said rear side wall of said housing, wherein said additional wall of said housing extends in an oblique direction relative to said lower wall of said housing and relative to said rear side wall of said housing, and wherein said additional wall of said housing comprises an opening to allow through the power cord.
A method for storing data in a multi-level cell flash memory device having a plurality of cells, wherein each cell of said multi-level cell flash memory device is capable of storing a plurality of bits, wherein each of said plurality of bits is from a different page, said method characterized by: determining a page type of a current page to be written from a plurality of pages in said multi-level cell flash memory device; determining a number-of-sectors per page associated with said determined page type; accumulating said determined number-of-sectors; encoding said accumulated sectors; and storing said accumulated sectors in said multi-level cell flash memory device, wherein said number-of-sectors per page is a non-integer number and at least one sector spans a plurality of pages. determining a page type of a current page to be written from a plurality of pages in said multi-level cell flash memory device; determining a number-of-sectors per page associated with said determined page type; accumulating said determined number-of-sectors; encoding said accumulated sectors; and storing said accumulated sectors in said multi-level cell flash memory device, wherein said number-of-sectors per page is a non-integer number and at least one sector spans a plurality of pages.
An isolated antibody, or antigen-binding portion thereof, that specifically binds human IL-1β, wherein said antibody comprises: a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 39; b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO: 2; c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 41; d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 10; e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 21; and, f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO: 38. a) a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 39; b) a light chain CDR2 comprising the amino acid sequence of SEQ ID NO: 2; c) a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 41; d) a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 10; e) a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 21; and, f) a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO: 38.
A filtering device for use in filtering fluids used in a vehicle such as its fuel, in which case said device is to be positioned on the suction side of a vehicle fuel pump, or in filtering a lubricant used in the vehicle, said device comprising a filter body presenting two opposing panels (3, 4) joined together to define a closed internal cavity, in one of said panels (3, 4) there being provided an aperture, the fluid filtered in passing through said body penetrating into said cavity, a spacer being positioned in the internal cavity to maintain said panels (3, 4) separated and prevent their mutual contact, to hence maintain filtering operability of the device, this latter being without rigid elements positioned in said internal cavity for the purpose of maintaining said panels (3, 4) separated, characterised in that said spacer is of open-cell polymer foam material.
A diagnostic apparatus comprising: a monitor that is configured to display an image in which an organ of a subject is imaged; an organ region extraction unit that is configured to extract the organ by analyzing the image; a shape analysis unit that is configured to approximate a shape of the organ extracted by the organ region extraction unit using a super-ellipse function in a case where an x axis is set along a horizontal direction of the image and a y axis is set along a direction orthogonal to the horizontal direction; and an organ evaluation unit that is configured to evaluate a disease state of the organ on the basis of a shape parameter of an approximation curve represented by the super-ellipse function approximated in the shape analysis unit; wherein the organ evaluation unit is configured to evaluate the disease state of the organ using a shape parameter representing deflection of the approximation curve as an evaluation index or a shape parameter representing balance of a shape of the approximation curve as an evaluation index, wherein deflection of the approximation curve refers to deformation where end portions of the approximation curve in the horizontal direction along the x axis are pulled in a negative direction of the y axis. a monitor that is configured to display an image in which an organ of a subject is imaged; an organ region extraction unit that is configured to extract the organ by analyzing the image; a shape analysis unit that is configured to approximate a shape of the organ extracted by the organ region extraction unit using a super-ellipse function in a case where an x axis is set along a horizontal direction of the image and a y axis is set along a direction orthogonal to the horizontal direction; and an organ evaluation unit that is configured to evaluate a disease state of the organ on the basis of a shape parameter of an approximation curve represented by the super-ellipse function approximated in the shape analysis unit; wherein the organ evaluation unit is configured to evaluate the disease state of the organ using a shape parameter representing deflection of the approximation curve as an evaluation index or a shape parameter representing balance of a shape of the approximation curve as an evaluation index, wherein deflection of the approximation curve refers to deformation where end portions of the approximation curve in the horizontal direction along the x axis are pulled in a negative direction of the y axis.