mhurhangee/ep-ind-claims huggingface dataset:
Fastening unit having a radio and/or sensor module, which is provided to be connected to an external application unit, a first housing part of the fastening unit having a connection region with at least one connection element, the connection region being detachably connectable to the radio and/or sensor module by means of the at least one connection element of the connection region, characterized in that the first housing part has at least one first receiving region for receiving a power supply cable, and in that the fastening unit has at least one second housing part with at least one second receiving region for receiving the power supply cable, wherein the power supply cable can be integrated in the external application unit, and wherein the first housing part of the fastening unit has at least one first closure element and the second housing part of the fastening unit has at least one second closure element, wherein the first housing part and the second housing part can be connected to each other at least via the closure elements (32, 34).
A method comprising: receiving linear downscan sonar data, indicating with "linear" the sonar returns from pulses of fan-shaped beams produced by a linear downscan transducer mounted on a watercraft, the pulses of fan-shaped beams insonifying different fan-shaped regions of an underwater environment beneath the watercraft as the watercraft travels; the method being characterized in that it further comprises the steps of: receiving conical downscan sonar data based on sonar returns from a generally conical beam produced by a second downscan transducer, wherein the conical beam is wider than each fan-shaped beam in a direction parallel to a longitudinal length of the linear downscan transducer; combining the linear downscan sonar data and the conical downscan sonar data to produce combined downscan sonar data; and rendering the combined downscan sonar data as at least one image on a display. receiving linear downscan sonar data, indicating with "linear" the sonar returns from pulses of fan-shaped beams produced by a linear downscan transducer mounted on a watercraft, the pulses of fan-shaped beams insonifying different fan-shaped regions of an underwater environment beneath the watercraft as the watercraft travels; the method being characterized in that it further comprises the steps of: receiving conical downscan sonar data based on sonar returns from a generally conical beam produced by a second downscan transducer, wherein the conical beam is wider than each fan-shaped beam in a direction parallel to a longitudinal length of the linear downscan transducer; combining the linear downscan sonar data and the conical downscan sonar data to produce combined downscan sonar data; and rendering the combined downscan sonar data as at least one image on a display. receiving conical downscan sonar data based on sonar returns from a generally conical beam produced by a second downscan transducer, wherein the conical beam is wider than each fan-shaped beam in a direction parallel to a longitudinal length of the linear downscan transducer; combining the linear downscan sonar data and the conical downscan sonar data to produce combined downscan sonar data; and rendering the combined downscan sonar data as at least one image on a display.
A noninvasive medical device (100; 900) configured to provide cooling to a tissue of a skin region, the noninvasive medical device comprising: a top plate; a bottom plate including a tissue contact surface; an evaporative structure arranged between the top plate and the bottom plate configured to receive a working fluid; and a plurality of openings arranged in a fractional pattern, each of the plurality of openings extending through the top plate, the bottom plate, and the evaporative structure, wherein the evaporative structure includes a plurality of channels for providing capillary forces and extending from each opening and along the evaporative structure and wherein the evaporative structure is configured to promote evaporation of the working fluid to cool the tissue contact surface surrounding the plurality of the openings, wherein the plurality of openings are suitable to enable fractional heat treatment to be performed on the tissue region via the openings. a top plate; a bottom plate including a tissue contact surface; an evaporative structure arranged between the top plate and the bottom plate configured to receive a working fluid; and a plurality of openings arranged in a fractional pattern, each of the plurality of openings extending through the top plate, the bottom plate, and the evaporative structure, wherein the evaporative structure includes a plurality of channels for providing capillary forces and extending from each opening and along the evaporative structure and wherein the evaporative structure is configured to promote evaporation of the working fluid to cool the tissue contact surface surrounding the plurality of the openings, wherein the plurality of openings are suitable to enable fractional heat treatment to be performed on the tissue region via the openings.
A method of measuring a radon concentration or a radon exposure level comprising: placing a plurality of individual radon measurement instruments at locations (105; 106; 108), each instrument being capable of data output; receiving radon measurement data from each of said plurality of instruments; combining said data from said plurality of instruments into a single data set; and calculating a radon concentration or radon exposure value from said single data set; characterized in that the single data set is divided into time slots and wherein the method comprises calculating for each time slot a radon concentration or radon exposure value and a measurement uncertainty value based on the number of disintegrations detected within that time slot from more than one individual instrument. placing a plurality of individual radon measurement instruments at locations (105; 106; 108), each instrument being capable of data output; receiving radon measurement data from each of said plurality of instruments; combining said data from said plurality of instruments into a single data set; and calculating a radon concentration or radon exposure value from said single data set; characterized in that the single data set is divided into time slots and wherein the method comprises calculating for each time slot a radon concentration or radon exposure value and a measurement uncertainty value based on the number of disintegrations detected within that time slot from more than one individual instrument.
A stabilizer manufacturing apparatus for manufacturing a stabilizer to which rubber bushes are heat-bonded, comprising: a conveyor for conveying the stabilizer on a clamp jig in a conveying direction, the rubber bushes being pressure-bonded to bonding locations on the stabilizer on which an adhesive layer is formed; power supply devices for respectively supplying power to coils used in high-frequency induction heating; and the coils for respectively heating portions to be heated by generating a magnetic field in the portions to be heated near the bonding locations on the stabilizer, wherein the coils are respectively separated by a predetermined distance from the corresponding portions to be heated of a predetermined number of stabilizers conveyed in the conveying direction, wherein the coils comprise an upper and lower pair of coils having four portions arranged at four positions on the left and right sides of the rubber bush and on upper and lower sides of the stabilizer, in the conveying direction, the coils extend in the conveying direction and across the stabilizer and each have a front portion and a rear portion aligned with a rubber bush being conveyed, and wherein the front portion and the rear portion each have such a bent shape such that the rubber bush and clamp jig are spaced apart from the front portion and rear portion while being conveyed by the conveyor in the conveying direction. a conveyor for conveying the stabilizer on a clamp jig in a conveying direction, the rubber bushes being pressure-bonded to bonding locations on the stabilizer on which an adhesive layer is formed; power supply devices for respectively supplying power to coils used in high-frequency induction heating; and the coils for respectively heating portions to be heated by generating a magnetic field in the portions to be heated near the bonding locations on the stabilizer, wherein the coils are respectively separated by a predetermined distance from the corresponding portions to be heated of a predetermined number of stabilizers conveyed in the conveying direction, wherein the coils comprise an upper and lower pair of coils having four portions arranged at four positions on the left and right sides of the rubber bush and on upper and lower sides of the stabilizer, in the conveying direction, the coils extend in the conveying direction and across the stabilizer and each have a front portion and a rear portion aligned with a rubber bush being conveyed, and wherein the front portion and the rear portion each have such a bent shape such that the rubber bush and clamp jig are spaced apart from the front portion and rear portion while being conveyed by the conveyor in the conveying direction.
A capacitor forming method comprising: forming an electrically conductive support material (128, 228, 328, 428, 528, 628, 728, 828) over a substrate (112, 212, 312, 412, 512, 612, 712, 812), the support material (128, 228, 328, 428, 528, 628, 728, 828) containing at least 25 at% carbon; forming an opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840) through at least the support material (128, 228, 328, 428, 528, 628, 728, 828), the opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840) having an aspect ratio of at least 20:1 within a thickness of the support material (128, 228,328,428,528,628,728,828); after forming the opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840), processing the support material (128, 228, 328, 428, 528, 628, 728, 828) to effect a reduction in conductivity; and forming a capacitor structure (462, 562, 662, 762, 862) in the opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840), wherein the reduction in conductivity occurs at a level sufficient to provide insulation of the capacitor structure formed in the opening. forming an electrically conductive support material (128, 228, 328, 428, 528, 628, 728, 828) over a substrate (112, 212, 312, 412, 512, 612, 712, 812), the support material (128, 228, 328, 428, 528, 628, 728, 828) containing at least 25 at% carbon; forming an opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840) through at least the support material (128, 228, 328, 428, 528, 628, 728, 828), the opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840) having an aspect ratio of at least 20:1 within a thickness of the support material (128, 228,328,428,528,628,728,828); after forming the opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840), processing the support material (128, 228, 328, 428, 528, 628, 728, 828) to effect a reduction in conductivity; and forming a capacitor structure (462, 562, 662, 762, 862) in the opening (234, 240, 334, 340, 434, 440, 534, 540, 640, 740, 840), wherein the reduction in conductivity occurs at a level sufficient to provide insulation of the capacitor structure formed in the opening.
(Amended) A coated cutting tool having a hard coating film on a surface of the tool, wherein: the hard coating film is a nitride, a content ratio of titanium (Ti) with respect to a total amount of metal elements (including semimetal elements) is in a range of 70 at% to 95 at%, a content ratio of silicon (Si) with respect to the total amount of metal elements (including semimetal elements) is in a range of 5 at% to 30 at%, and, with respect to the total amount of metal elements (including semimetal elements) and non-metal elements, the hard coating film contains argon (Ar) at 0.1 at% or less; the hard coating film has a NaCl type crystal structure, a face exhibits the maximum intensity, and the hard coating film has an average crystal grain size in a range of 5 nm to 30 nm; and with respect to a composition at every 20 nm-depth of the hard coating film from a depth of 20 nm to 200 nm, a content ratio of nitrogen is 50.0 at% or higher in a case in which the total content ratio of metal elements (including semimetal elements), nitrogen, oxygen, and carbon is 100 at%. the hard coating film is a nitride, a content ratio of titanium (Ti) with respect to a total amount of metal elements (including semimetal elements) is in a range of 70 at% to 95 at%, a content ratio of silicon (Si) with respect to the total amount of metal elements (including semimetal elements) is in a range of 5 at% to 30 at%, and, with respect to the total amount of metal elements (including semimetal elements) and non-metal elements, the hard coating film contains argon (Ar) at 0.1 at% or less; the hard coating film has a NaCl type crystal structure, a face exhibits the maximum intensity, and the hard coating film has an average crystal grain size in a range of 5 nm to 30 nm; and with respect to a composition at every 20 nm-depth of the hard coating film from a depth of 20 nm to 200 nm, a content ratio of nitrogen is 50.0 at% or higher in a case in which the total content ratio of metal elements (including semimetal elements), nitrogen, oxygen, and carbon is 100 at%.
A radiation curable brown inkjet ink for food packaging purposes containing a mixture of colour pigments but lacking a brown pigment; and including at least one photoinitiator selected from the group consisting of polymerizable photoinitiators, polymeric photoinitiators and multifunctional photoinitiators.
A semiconductor device, comprising: a substrate including a p-channel metal-oxide-semiconductor, PMOS, region, an N-well tap forming region, and a boundary region between the PMOS region and the N-well tap forming region; PMOS field effect transistors on the PMOS region; an N-well tap region doped with N-type impurities in the N-well tap forming region; a first metal pattern connected to at least one impurity region of the PMOS field effect transistors, wherein the first metal pattern extends so that an end of the first metal pattern is positioned on the boundary region; a second metal pattern electrically connected to the N-well tap region, wherein the second metal pattern extends so that an end of the second metal pattern is positioned on the boundary region; a first contact plug on the first metal pattern; a second contact plug on the second metal pattern; and an upper wiring on the first and second contact plugs. a substrate including a p-channel metal-oxide-semiconductor, PMOS, region, an N-well tap forming region, and a boundary region between the PMOS region and the N-well tap forming region; PMOS field effect transistors on the PMOS region; an N-well tap region doped with N-type impurities in the N-well tap forming region; a first metal pattern connected to at least one impurity region of the PMOS field effect transistors, wherein the first metal pattern extends so that an end of the first metal pattern is positioned on the boundary region; a second metal pattern electrically connected to the N-well tap region, wherein the second metal pattern extends so that an end of the second metal pattern is positioned on the boundary region; a first contact plug on the first metal pattern; a second contact plug on the second metal pattern; and an upper wiring on the first and second contact plugs.
A sweat sensing system, comprising: - a mesh for location over a sweat surface on which sweat is formed or collected, the mesh having a set of mesh openings; - a vibration system for vibrating the mesh to provide oscillation adapted to nebulize sweat droplets; - a condensing unit for condensing the nebulized sweat droplets on a sensing surface; and - a sweat sensor for biomarker sensing of the sweat at the sensing surface. - a mesh for location over a sweat surface on which sweat is formed or collected, the mesh having a set of mesh openings; - a vibration system for vibrating the mesh to provide oscillation adapted to nebulize sweat droplets; - a condensing unit for condensing the nebulized sweat droplets on a sensing surface; and - a sweat sensor for biomarker sensing of the sweat at the sensing surface.
System comprising an energy generation unit and a filter for removing chromium compounds from exhaust gases of this energy generation unit, wherein the filter is provided in the exhaust gas path, characterised in that the filter comprises a first filter unit having a filter body made from a metal mesh, a metal foam or a ceramic foam, said filter body being provided in the flow path of the exhaust gas, wherein the first filter unit is connected to the energy generation unit in such a way that, during operation, a temperature of 180°C to 500°C, preferably 300°C to 500°C, is set in the first filter unit, wherein the first filter unit converts the chromium compounds into chromium compounds.
A die casting machine melt leakage detecting device, wherein the die casting machine melt leakage detecting device comprises a pulling wire, a plurality of wire winding columns, a wire fixing member, an elastic wire connecting member and a trigger switch; the pulling wire can withstand the temperature outside a mold during normal die casting and is melted and broken after making contact with molten metal; the multiple wire winding columns are arranged around the mold, one end of the pulling wire is connected with the wire fixing member, and the other end of the pulling wire is sequentially wound around the multiple wire winding columns and then is connected with the elastic wire connecting member; the elastic wire connecting member is opposite to the trigger switch, the elastic wire connecting member is in a compressed or stretched state when the pulling wire is kept tensioned in the operating state, and the elastic wire connecting member is restored to its original position and impacts the trigger switch when the pulling wire is broken; the trigger switch is used for sending an impacting signal to a signal receiving end of a die casting machine. the pulling wire can withstand the temperature outside a mold during normal die casting and is melted and broken after making contact with molten metal; the multiple wire winding columns are arranged around the mold, one end of the pulling wire is connected with the wire fixing member, and the other end of the pulling wire is sequentially wound around the multiple wire winding columns and then is connected with the elastic wire connecting member; the elastic wire connecting member is opposite to the trigger switch, the elastic wire connecting member is in a compressed or stretched state when the pulling wire is kept tensioned in the operating state, and the elastic wire connecting member is restored to its original position and impacts the trigger switch when the pulling wire is broken; the trigger switch is used for sending an impacting signal to a signal receiving end of a die casting machine.
A process for the production of multienzyme system using fermentation, said process comprising: a) growing Aspergillus niger on a medium having sucrose at a concentration of about 1% and yeast extract at a concentration of about 0.2% and at a temperature in the range of 25 - 35 deg C and pH in the range of 5 -6 for a period in the range of 48-120 hours under shaking condition having angular speed in the range of 200 - 250 rpm in order to obtain an inoculum; b) adding the inoculum, obtained in step (a), to the fermentation medium at the concentration in the range of 10 - 25 percent(v/v) followed by fermenting for a period in the range of 48- 120 hours under shaking condition having angular speed in the range of 200 - 250 rpm for a period in the range of 48-120 hours in order to obtain the fermentation culture; wherein said fermentation medium has the following composition: Ingredients Proportion (percent) starch 3 - 5 glucose 0.5- 1.5 carboxy methyl cellulose 0.5- 1.5 pectin 0.5 - 1.5 yeast extract 0.6-1.0 KH 2 PO 4 0.7- 1.1 NaNO 3 1 - 3 MgSO 4.7H 2 0 0.02-0.04 K 2 HPO 4 0.2 -0.6 NaCl 0.4 -0.8 NH 4 Cl 0.8-1.2 c) centrifuging the fermentation culture, obtained in step (b), followed by separation of culture fluid from pellets using filter paper (Whatman no.1) to obtain the said multienzyme system in form of culture fluids. a) growing Aspergillus niger on a medium having sucrose at a concentration of about 1% and yeast extract at a concentration of about 0.2% and at a temperature in the range of 25 - 35 deg C and pH in the range of 5 -6 for a period in the range of 48-120 hours under shaking condition having angular speed in the range of 200 - 250 rpm in order to obtain an inoculum; b) adding the inoculum, obtained in step (a), to the fermentation medium at the concentration in the range of 10 - 25 percent(v/v) followed by fermenting for a period in the range of 48- 120 hours under shaking condition having angular speed in the range of 200 - 250 rpm for a period in the range of 48-120 hours in order to obtain the fermentation culture; wherein said fermentation medium has the following composition: Ingredients Proportion (percent) starch 3 - 5 glucose 0.5- 1.5 carboxy methyl cellulose 0.5- 1.5 pectin 0.5 - 1.5 yeast extract 0.6-1.0 KH 2 PO 4 0.7- 1.1 NaNO 3 1 - 3 MgSO 4.7H 2 0 0.02-0.04 K 2 HPO 4 0.2 -0.6 NaCl 0.4 -0.8 NH 4 Cl 0.8-1.2 c) centrifuging the fermentation culture, obtained in step (b), followed by separation of culture fluid from pellets using filter paper (Whatman no.1) to obtain the said multienzyme system in form of culture fluids.
Manufacturing method for obtaining a high durability, high insulating composite timber member, where said method comprises the following steps: a. selecting the wood to be treated to be as free from knots as possible and introducing said wood to be treated into a treatment unit; b. Increasing the temperature to a first elevated level inside the treatment unit, said first elevated temperature level being in the range of 170°C to 175°C and maintaining said first elevated temperature for a pre-determined period of time, where said pre-determined period of time is between 45 minutes and up to 6 hours; c. Decreasing the temperature to a certain lower level, where said lower level is in the range of approx. 20° C to 60°C for a certain pre-determined period of time; d. Introducing the wood into an autoclave or into the treatment unit, if the treatment unit is suitable as an autoclave, and applying a mixture of linseed oil and mineral oil to the wood and allowing the mixture to penetrate the wood; and e. Retrieving and storing the treated wood. a. selecting the wood to be treated to be as free from knots as possible and introducing said wood to be treated into a treatment unit; b. Increasing the temperature to a first elevated level inside the treatment unit, said first elevated temperature level being in the range of 170°C to 175°C and maintaining said first elevated temperature for a pre-determined period of time, where said pre-determined period of time is between 45 minutes and up to 6 hours; c. Decreasing the temperature to a certain lower level, where said lower level is in the range of approx. 20° C to 60°C for a certain pre-determined period of time; d. Introducing the wood into an autoclave or into the treatment unit, if the treatment unit is suitable as an autoclave, and applying a mixture of linseed oil and mineral oil to the wood and allowing the mixture to penetrate the wood; and e. Retrieving and storing the treated wood.