mhurhangee/ep-ind-claims huggingface dataset:
An induction heating cooking apparatus comprising: a plurality of heating coils (111, 112, 113) including an inner circumferential coil provided on an innermost circumferential side, an outer circumferential coil provided on an outermost circumferential side, and an intermediate coil provdied between the inner circumferential coil and the outer circumferential coil; a supporting base provided below the plurality of heating coils (111, 112, 113), and configured to support the plurality of heating coils (111, 112, 113); a plurality of inverter circuits each configured to supply high-frequency power to an associated one of the plurality of heating coils (111, 112, 113); and a controller configured to control driving of the plurality of inverter circuits, and perform a heating operation in which a frequency of high-frequency power to be supplied to the outer circumferential coil is increased higher than a frequency of high-frequency power to be supplied to the inner circumferential coil, and a frequency of high-frequency current to be supplied to the intermediate coil is increased higher than the frequency of the high-frequency current to be supplied to the inner circumferential coil, wherein the supporting base is formed in the shape of a flat plate and made of a nonmagnetic body, and includes a plurality of openings (63, 65) formed in part of the supporting base that is located below the outer circumferential coil, and also a plurality of openings formed in part of the supporting base that is located below the intermediate coil. a plurality of heating coils (111, 112, 113) including an inner circumferential coil provided on an innermost circumferential side, an outer circumferential coil provided on an outermost circumferential side, and an intermediate coil provdied between the inner circumferential coil and the outer circumferential coil; a supporting base provided below the plurality of heating coils (111, 112, 113), and configured to support the plurality of heating coils (111, 112, 113); a plurality of inverter circuits each configured to supply high-frequency power to an associated one of the plurality of heating coils (111, 112, 113); and a controller configured to control driving of the plurality of inverter circuits, and perform a heating operation in which a frequency of high-frequency power to be supplied to the outer circumferential coil is increased higher than a frequency of high-frequency power to be supplied to the inner circumferential coil, and a frequency of high-frequency current to be supplied to the intermediate coil is increased higher than the frequency of the high-frequency current to be supplied to the inner circumferential coil, wherein the supporting base is formed in the shape of a flat plate and made of a nonmagnetic body, and includes a plurality of openings (63, 65) formed in part of the supporting base that is located below the outer circumferential coil, and also a plurality of openings formed in part of the supporting base that is located below the intermediate coil.
A gelable extracellular matrix composition comprising a decellularized, enzymatically digested, dried, terminally sterilized, intact extracellular matrix, wherein said composition is capable of forming a gel upon hydration, neutralization to pH 7.2 - 7.8, and warming to a temperature greater than 25°C, wherein the extracellular matrix is preferably bioactive.
A method for controlling a breezeless mode of a fan of an air conditioner, wherein the method comprises: adjusting a compressor frequency of the fan according to a difference between an indoor temperature to be obtained and a target temperature to be determined, and controlling the fan to operate according to the adjusted compressor frequency, characterized in that the method furthermore comprises the steps of obtaining the indoor temperature, a turbulence intensity using T u = a ∗ F 2 + b ∗ F + c, wherein T u is the turbulent intensity, F is the current wind level of the fan, and a, b, and c are the parameters determined according to the type of the breezeless mode of the current fan, and a draught sensation rate using DR = ( 34-t a)( v a -0.05) 0.62 (0.37 × v a × T u + 3.14), wherein DR is the draught sensation rate, v a is the wind speed Va, T u is the turbulent intensity, and ta is the preselected target temperature of the fan after the fan is in the breezeless mode; obtaining a first wind speed of the fan, and determining the target temperature of the fan according to the first wind speed, the turbulence intensity, and the draught sensation rate.. adjusting a compressor frequency of the fan according to a difference between an indoor temperature to be obtained and a target temperature to be determined, and controlling the fan to operate according to the adjusted compressor frequency, characterized in that the method furthermore comprises the steps of obtaining the indoor temperature, a turbulence intensity using T u = a ∗ F 2 + b ∗ F + c, wherein T u is the turbulent intensity, F is the current wind level of the fan, and a, b, and c are the parameters determined according to the type of the breezeless mode of the current fan, and a draught sensation rate using DR = ( 34-t a)( v a -0.05) 0.62 (0.37 × v a × T u + 3.14), wherein DR is the draught sensation rate, v a is the wind speed Va, T u is the turbulent intensity, and ta is the preselected target temperature of the fan after the fan is in the breezeless mode; obtaining a first wind speed of the fan, and determining the target temperature of the fan according to the first wind speed, the turbulence intensity, and the draught sensation rate..
Protective and connection housing comprising a plate equipped with rails (331, 35) and at least one support (5, 7) which is attached to this plate and can be removed, characterised in that: - the plate has two longitudinally arranged hooking rails and a central indexing rail with notches; - the support (5, 7) comprises at least two hooks (55, 75) and at least one indexing pin (5111, 7111), these hooks and this indexing pin allowing the support to be mounted by hand on the plate by snapping the hooks onto the hooking rails and engaging the indexing pin in one of the notches of the central indexing rail; - the hanging rails extend over at least 30% of the useful length of the plate; - the central indexing rail extends over at least 25% of the effective length of the plate; and - the hanging rails and the central indexing rail are used to fix the support (5, 7) to the plate. - the plate has two longitudinally arranged hooking rails and a central indexing rail with notches; - the support (5, 7) comprises at least two hooks (55, 75) and at least one indexing pin (5111, 7111), these hooks and this indexing pin allowing the support to be mounted by hand on the plate by snapping the hooks onto the hooking rails and engaging the indexing pin in one of the notches of the central indexing rail; - the hanging rails extend over at least 30% of the useful length of the plate; - the central indexing rail extends over at least 25% of the effective length of the plate; and - the hanging rails and the central indexing rail are used to fix the support (5, 7) to the plate.
An assembly comprising an electromechanical interface and a removable scanning module for coupling to a mobile communication terminal via the electromechanical interface, said removable scanning module comprising a housing at least partially containing at least one of: an encoded information reading, EIR, device, a laser-based scanning device, and an illumination module; characterized in that said electromechanical interface comprises a first plurality of wires electrically coupling a first electromechanical connector to a second electromechanical connector; wherein said first electromechanical connector is configured to be electromechanically coupled to said mobile communication terminal; and wherein said electromechanical interface comprises a second plurality of wires electrically coupling said removable scanning module to said first plurality of wires, the second plurality of wires electrically coupling said first electromechanical connector to a third electromechanical connector via the first plurality of wires, wherein said scanning module couples to said third electromechanical connector. characterized in that said electromechanical interface comprises a first plurality of wires electrically coupling a first electromechanical connector to a second electromechanical connector; wherein said first electromechanical connector is configured to be electromechanically coupled to said mobile communication terminal; and wherein said electromechanical interface comprises a second plurality of wires electrically coupling said removable scanning module to said first plurality of wires, the second plurality of wires electrically coupling said first electromechanical connector to a third electromechanical connector via the first plurality of wires, wherein said scanning module couples to said third electromechanical connector.
A processor-implemented method, for execution on one or more processors, comprising: advancing a geological formation probe with a surrounding pad to seal the pad against a borehole wall; adjusting a size of at least one inlet area of a fluid flow inlet of the probe, the size of the inlet area being selectably and incrementally variable; drawing fluid into the fluid flow inlet, accomplished at a first flow rate at a first fluid pressure, by activating at least one pump coupled to at least one fluid passage in the probe; activating straddle packers to capture some of the fluid as captured fluid; and drawing the captured fluid through the fluid flow inlet at a second rate different from the first rate, to determine a permeability of a formation associated with the borehole wall. advancing a geological formation probe with a surrounding pad to seal the pad against a borehole wall; adjusting a size of at least one inlet area of a fluid flow inlet of the probe, the size of the inlet area being selectably and incrementally variable; drawing fluid into the fluid flow inlet, accomplished at a first flow rate at a first fluid pressure, by activating at least one pump coupled to at least one fluid passage in the probe; activating straddle packers to capture some of the fluid as captured fluid; and drawing the captured fluid through the fluid flow inlet at a second rate different from the first rate, to determine a permeability of a formation associated with the borehole wall.
A battery module comprising: battery cells having electrode leads; a harness isolation plate assembly, wherein the harness isolation plate assembly comprises: a plurality of isolation units comprising busbars and insulating films connecting the busbars; connecting assembly, the adjacent isolation units being connected through the connecting assembly; wherein the connecting assembly comprises a first connecting component and a second connecting component; one of the first connecting component and the second connecting component is provided with protrusions, the other of the first connecting component and the second connecting component is provided with coordinating holes, and the protrusions are connected to the coordinating holes; wherein the isolation unit is provided with connecting holes; at least part of the isolation unit is located between the first connecting component and the second connecting component; the protrusions are connected to the coordinating holes and the connecting holes; the busbars of the harness isolation plate assembly are connected to the electrode leads. battery cells having electrode leads; a harness isolation plate assembly, wherein the harness isolation plate assembly comprises: a plurality of isolation units comprising busbars and insulating films connecting the busbars; connecting assembly, the adjacent isolation units being connected through the connecting assembly; wherein the connecting assembly comprises a first connecting component and a second connecting component; one of the first connecting component and the second connecting component is provided with protrusions, the other of the first connecting component and the second connecting component is provided with coordinating holes, and the protrusions are connected to the coordinating holes; wherein the isolation unit is provided with connecting holes; at least part of the isolation unit is located between the first connecting component and the second connecting component; the protrusions are connected to the coordinating holes and the connecting holes; the busbars of the harness isolation plate assembly are connected to the electrode leads. a plurality of isolation units comprising busbars and insulating films connecting the busbars; connecting assembly, the adjacent isolation units being connected through the connecting assembly; wherein the connecting assembly comprises a first connecting component and a second connecting component; one of the first connecting component and the second connecting component is provided with protrusions, the other of the first connecting component and the second connecting component is provided with coordinating holes, and the protrusions are connected to the coordinating holes; wherein the isolation unit is provided with connecting holes; at least part of the isolation unit is located between the first connecting component and the second connecting component; the protrusions are connected to the coordinating holes and the connecting holes; the busbars of the harness isolation plate assembly are connected to the electrode leads.
A system to decrease the blood flow of a targeted organ in case of bleeding or a medical requirement, characterized in that the system comprises an integrated electrostimulator, which comprises electrodes to be placed to the skin of a patient, and a subsystem which comprises at least one first and at least one second input means, wherein the first input means comprises blood pressure measurement and pulse detector unit and the second input means is a device enabling the user to enter the wounded or bleeding area information into the system, wherein subsystem determines where the said electrodes should be placed according to analyzed blood pressure, pulse and inputted wounded or bleeding area information according to an algorithm embedded in the subsystem, and the subsystem further display where the said electrodes should be placed through at least a skin map.
A method for registration of medical images, the method comprising: receiving a 2D image acquired with a medical 2D imaging device under a first view direction, the 2D image being a 2D X-ray image; processing the 2D image to obtain a processed 2D image, wherein the processing comprises performing a multi-resolution analysis, in which the 2D image is decomposed into a set of component images, each component image containing an image content of the 2D image relating to a specific resolution; receiving a 3D image acquired with a medical 3D imaging device; generating a 2D projection image from the 3D image, wherein the 2D projection image is generated with a second view direction; overlaying the processed 2D image and the 2D projection image; displaying the processed 2D image overlaid with the 2D projection image; providing functionality for an operator to change the second view direction, such that the 2D projection image is registered with the processed 2D image, characterized by: the processing comprising a filtering of the 2D image, such that high frequency components of the 2D image are emphasized with respect to low frequency components of the 2D image, thereby obtaining a filtered 2D image; wherein filtering the 2D image comprises adjusting a brightness and/or a contrast of the at least one component image for emphasizing and/or suppressing frequency components. receiving a 2D image acquired with a medical 2D imaging device under a first view direction, the 2D image being a 2D X-ray image; processing the 2D image to obtain a processed 2D image, wherein the processing comprises performing a multi-resolution analysis, in which the 2D image is decomposed into a set of component images, each component image containing an image content of the 2D image relating to a specific resolution; receiving a 3D image acquired with a medical 3D imaging device; generating a 2D projection image from the 3D image, wherein the 2D projection image is generated with a second view direction; overlaying the processed 2D image and the 2D projection image; displaying the processed 2D image overlaid with the 2D projection image; providing functionality for an operator to change the second view direction, such that the 2D projection image is registered with the processed 2D image, the processing comprising a filtering of the 2D image, such that high frequency components of the 2D image are emphasized with respect to low frequency components of the 2D image, thereby obtaining a filtered 2D image; wherein filtering the 2D image comprises adjusting a brightness and/or a contrast of the at least one component image for emphasizing and/or suppressing frequency components.
A method for producing an all-solid-state battery having a solid electrolyte layer between a positive electrode layer and a negative electrode layer, the method comprising: a step of coating or impregnating at least one of the positive electrode layer and the negative electrode layer with a solid electrolyte solution obtained by dissolving a boron hydride compound serving as a solid electrolyte in a solvent; and a step of removing the solvent from the coated or impregnated solid electrolyte solution and causing the solid electrolyte to precipitate on at least one of the positive electrode layer and the negative electrode layer, wherein the solvent comprises at least one selected from the group consisting of an ether-based solvent, a nitrile-based solvent and an amide-based solvent. a step of coating or impregnating at least one of the positive electrode layer and the negative electrode layer with a solid electrolyte solution obtained by dissolving a boron hydride compound serving as a solid electrolyte in a solvent; and a step of removing the solvent from the coated or impregnated solid electrolyte solution and causing the solid electrolyte to precipitate on at least one of the positive electrode layer and the negative electrode layer, wherein the solvent comprises at least one selected from the group consisting of an ether-based solvent, a nitrile-based solvent and an amide-based solvent.
Ink composition including a. a compound "a" consisting of aluminium-doped zinc oxide nanoparticles comprising acetate ligands, b. a compound "b" consisting of an alcohol solvent selected from the aliphatic monohydric alcohols or their mixtures, c. an optional compound "c" consisting of an alcohol co-solvent different from compound "b" and selected from the unsaturated monohydric alcohols or their mixtures, d. a compound "d" consisting of a dispersant, and e. an optional compound "e" consisting of a thickener or stabilizer. a. a compound "a" consisting of aluminium-doped zinc oxide nanoparticles comprising acetate ligands, b. a compound "b" consisting of an alcohol solvent selected from the aliphatic monohydric alcohols or their mixtures, c. an optional compound "c" consisting of an alcohol co-solvent different from compound "b" and selected from the unsaturated monohydric alcohols or their mixtures, d. a compound "d" consisting of a dispersant, and e. an optional compound "e" consisting of a thickener or stabilizer.
A load box, comprising: a reactive load that is adapted to output an audio signal that responds to an audio signal output from a vacuum tube amplifier with impedance characteristics that simulated impedance characteristics of a speaker cabinet; an operation element (121, 122) that is adapted to adjust the impedance characteristics of the reactive load in a first frequency band into a first impedance characteristic pattern selected from a plurality of first impedance characteristic pattern candidates at least on the basis of a type of the vacuum tube amplifier and is adapted to adjust the impedance characteristics of the reactive load in a second frequency band that is higher than the first frequency band into a second impedance characteristic pattern selected from a plurality of second impedance characteristic pattern candidates at least on the basis of the type of the vacuum tube amplifier; and a correction unit that performs a correction processing on an output signal of the reactive load that has the impedance characteristics including the first impedance characteristic pattern and the second impedance characteristic pattern, wherein the load box is characterized in that: the correction unit is adapted to change frequency characteristics of the output signal of the reactive load on the basis of the first impedance characteristic pattern and the second impedance characteristic pattern. a reactive load that is adapted to output an audio signal that responds to an audio signal output from a vacuum tube amplifier with impedance characteristics that simulated impedance characteristics of a speaker cabinet; an operation element (121, 122) that is adapted to adjust the impedance characteristics of the reactive load in a first frequency band into a first impedance characteristic pattern selected from a plurality of first impedance characteristic pattern candidates at least on the basis of a type of the vacuum tube amplifier and is adapted to adjust the impedance characteristics of the reactive load in a second frequency band that is higher than the first frequency band into a second impedance characteristic pattern selected from a plurality of second impedance characteristic pattern candidates at least on the basis of the type of the vacuum tube amplifier; and a correction unit that performs a correction processing on an output signal of the reactive load that has the impedance characteristics including the first impedance characteristic pattern and the second impedance characteristic pattern, wherein the load box is characterized in that: the correction unit is adapted to change frequency characteristics of the output signal of the reactive load on the basis of the first impedance characteristic pattern and the second impedance characteristic pattern.
A feminine hygiene article comprising: a feminine hygiene pad comprising an absorbent body and an adhesive layer positioned on at least a surface of the absorbent body; and a pouch wrap in contact with the adhesive layer of the feminine hygiene pad, the pouch wrap comprising a release layer in direct contact with the adhesive layer, the release layer comprising a polymer composition comprising low density polyethylene covalently bonded to polydimethylsiloxane. a feminine hygiene pad comprising an absorbent body and an adhesive layer positioned on at least a surface of the absorbent body; and a pouch wrap in contact with the adhesive layer of the feminine hygiene pad, the pouch wrap comprising a release layer in direct contact with the adhesive layer, the release layer comprising a polymer composition comprising low density polyethylene covalently bonded to polydimethylsiloxane.