mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing a threading work on a workpiece (W) by a machine tool comprising: workpiece holding means to hold a workpiece (W); a tool rest to hold a cutting tool for cutting the workpiece (W); feeding means to feed the cutting tool toward the workpiece (W) in a predetermined feeding direction via relative movement between the workpiece holding means and the tool rest ; vibration means to reciprocally vibrate the workpiece holding means and the tool rest in a relative manner in a radial direction of the workpiece (W); rotating means to relatively rotate the workpiece (W) and the cutting tool ; and vibration setting means to set a pattern of vibration during each cutting work accompanied by a reciprocal vibration, the method comprising: forming a screw part on the workpiece (W) by relatively feeding the workpiece (W) and the cutting tool in the feeding direction by the feeding means while relatively rotating the workpiece (W) and the cutting tool by the rotating means and by performing a cutting work for multiple times along one cutting path having a predetermined helical shape, wherein the vibration means performs the reciprocal vibration of the workpiece holding means and the tool rest while a cutting work is performed for predetermined multiple times, and characterised by setting a pattern of vibration during each cutting work accompanied by the reciprocal vibration by the vibration setting means so that a cut portion of one cutting work partially includes a portion that has been cut in another cutting work, so as to separate a chip generated in a cutting work. workpiece holding means to hold a workpiece (W); a tool rest to hold a cutting tool for cutting the workpiece (W); feeding means to feed the cutting tool toward the workpiece (W) in a predetermined feeding direction via relative movement between the workpiece holding means and the tool rest ; vibration means to reciprocally vibrate the workpiece holding means and the tool rest in a relative manner in a radial direction of the workpiece (W); rotating means to relatively rotate the workpiece (W) and the cutting tool ; and vibration setting means to set a pattern of vibration during each cutting work accompanied by a reciprocal vibration, the method comprising: forming a screw part on the workpiece (W) by relatively feeding the workpiece (W) and the cutting tool in the feeding direction by the feeding means while relatively rotating the workpiece (W) and the cutting tool by the rotating means and by performing a cutting work for multiple times along one cutting path having a predetermined helical shape, wherein the vibration means performs the reciprocal vibration of the workpiece holding means and the tool rest while a cutting work is performed for predetermined multiple times, and characterised by setting a pattern of vibration during each cutting work accompanied by the reciprocal vibration by the vibration setting means so that a cut portion of one cutting work partially includes a portion that has been cut in another cutting work, so as to separate a chip generated in a cutting work.
An apparatus for performing thermotherapy on at least a portion of a tissue site, said apparatus comprises: a heating probe comprises a fibre and an energy emitting area being a light emitting area; said heating probe is connectable to an energy source for heating said portion of tissue by said energy emitting area ; a sleeve configured to be interstitially arranged in said tissue site; and wherein said heating probe is arrangable in said sleeve , and said sleeve is configured to be slid along said heating probe in a distal and/or proximal direction for positioning of said energy emitting area in said portion of tissue for controlling said thermotherapy; further comprising an arrangement configured to lock said sleeve and said heating probe together when a right position of said sleeve in relation to said energy emitting area is found, characterized in that said arrangement comprises a first hub arranged on and attached to said sleeve at a proximal end thereof, said first hub comprises a protruding element and an opening ; a second hub comprising a connector and a locking member wherein said connector comprises fastening and releasing means for connecting said second hub to said protruding element of said first hub by hooking said fastening means to said protruding element ; whereby a lumen is arranged through said locking member and thereby through said second hub for introducing said heating probe and wherein said locking member is configured for locking said heating probe intoeposition in said lumen . a heating probe comprises a fibre and an energy emitting area being a light emitting area; said heating probe is connectable to an energy source for heating said portion of tissue by said energy emitting area ; a sleeve configured to be interstitially arranged in said tissue site; and wherein said heating probe is arrangable in said sleeve , and said sleeve is configured to be slid along said heating probe in a distal and/or proximal direction for positioning of said energy emitting area in said portion of tissue for controlling said thermotherapy; further comprising an arrangement configured to lock said sleeve and said heating probe together when a right position of said sleeve in relation to said energy emitting area is found, characterized in that said arrangement comprises a first hub arranged on and attached to said sleeve at a proximal end thereof, said first hub comprises a protruding element and an opening ; a second hub comprising a connector and a locking member wherein said connector comprises fastening and releasing means for connecting said second hub to said protruding element of said first hub by hooking said fastening means to said protruding element ; whereby a lumen is arranged through said locking member and thereby through said second hub for introducing said heating probe and wherein said locking member is configured for locking said heating probe intoeposition in said lumen .
A rotating assembly for a turbocharger comprising: a center housing as a static structure that comprises a through bore having a central axis; a fully-floating bearing positioned in the through bore; and a shaft , rotatably supported in the center housing by the fully-floating bearing, the shaft connected at one end to a compressor wheel and at another end to a turbine wheel, characterized in that an anisotropic member is positioned in the through bore between the fully- floating bearing and a surface of the center housing wherein the surface of the center housing defines at least part of the through bore wherein the anisotropic member comprises a ring and a series of outer lobes arranged asymmetrically about the ring, the anisotropic member configured to bias the static structure. a center housing as a static structure that comprises a through bore having a central axis; a fully-floating bearing positioned in the through bore; and a shaft , rotatably supported in the center housing by the fully-floating bearing, the shaft connected at one end to a compressor wheel and at another end to a turbine wheel, characterized in that an anisotropic member is positioned in the through bore between the fully- floating bearing and a surface of the center housing wherein the surface of the center housing defines at least part of the through bore wherein the anisotropic member comprises a ring and a series of outer lobes arranged asymmetrically about the ring, the anisotropic member configured to bias the static structure.
A vacuum heat insulator including a core , and reducing heat transfer in a thickness direction of the core from one surface side of the core to an other surface side of the core, characterized in that : the core comprises: - a first fiber layer including plural short fibers which are formed of glass material and layered in the thickness direction; and - a second fiber layer including - plural long fibers which are formed of glass material and layered in the thickness direction, and - plural thickness fiber bundles extending in the thickness direction, and binding the plural long fibers ; and the plural long fibers are longer than the plural short fibers . the core comprises: - a first fiber layer including plural short fibers which are formed of glass material and layered in the thickness direction; and - a second fiber layer including - plural long fibers which are formed of glass material and layered in the thickness direction, and - plural thickness fiber bundles extending in the thickness direction, and binding the plural long fibers ; and - a first fiber layer including plural short fibers which are formed of glass material and layered in the thickness direction; and - a second fiber layer including - plural long fibers which are formed of glass material and layered in the thickness direction, and - plural thickness fiber bundles extending in the thickness direction, and binding the plural long fibers ; and the plural long fibers are longer than the plural short fibers .
A method of manufacturing a membrane-catalyst assembly including an electrolyte membrane and a catalyst layer bonded to the electrolyte membrane, the method comprising: a liquid application step of applying a liquid to a surface of the catalyst layer before bonding, wherein the liquid is a water-containing liquid, and the water-containing liquid is applied to the surface of the catalyst layer in a droplet form, wherein the water-containing liquid contains water at a content rate of 50 mass% to 100 mass%; and a thermocompression bonding step of bonding, to the electrolyte membrane, the catalyst layer to which the liquid is applied by thermocompression bonding. a liquid application step of applying a liquid to a surface of the catalyst layer before bonding, wherein the liquid is a water-containing liquid, and the water-containing liquid is applied to the surface of the catalyst layer in a droplet form, wherein the water-containing liquid contains water at a content rate of 50 mass% to 100 mass%; and a thermocompression bonding step of bonding, to the electrolyte membrane, the catalyst layer to which the liquid is applied by thermocompression bonding.
Photostable sunscreen composition for topical application including dibenzoylmethane derivative, octyl-methoxy cinnamate and methylene bis-benzotriazolyl tetramethylbutylphenol, ethyl hexyl triazone, octyl dimethyl PABA (para-aminobenzoic acid), TiO2 and ZnO and dermatologically acceptable excipients, in combination with 1-(4-methoxy-5-benzofuranyl)-3-phenyl-1,3-propanedione (pongamol), wherein - the dibenzoylmethane derivative is in 1 to 5% by weight of the composition, - octyl-methoxycinnamate is in 1 to 10% by weight of the composition and - methylene bis-benzotriazolyl tetramethylbutylphenol, ethyl hexyl triazone, octyl dimethyl PABA (para-aminobenzoic acid), TiO2 and ZnO is in 14% by weight of the composition and - dermatologically acceptable excipients are in 65 to 96% by weight of the composition and wherein the 1-(4-methoxy-5-benzofuranyl)-3-phenyl-1, 3-propanedione (pongamol) is in 0.9 to 6% by weight of the composition and is of 90-98% purity and wherein the dermatologically active excipients contain 60 - 75% by weight aqueous phase. - the dibenzoylmethane derivative is in 1 to 5% by weight of the composition, - octyl-methoxycinnamate is in 1 to 10% by weight of the composition and - methylene bis-benzotriazolyl tetramethylbutylphenol, ethyl hexyl triazone, octyl dimethyl PABA (para-aminobenzoic acid), TiO2 and ZnO is in 14% by weight of the composition and - dermatologically acceptable excipients are in 65 to 96% by weight of the composition and wherein the 1-(4-methoxy-5-benzofuranyl)-3-phenyl-1, 3-propanedione (pongamol) is in 0.9 to 6% by weight of the composition and is of 90-98% purity and
A non-transitory machine-readable storage medium storing instructions that upon execution cause a mobile device to: register an account of a first service with an account control service which is executed by an account control system , the account control service separate from the first service ; in response to the mobile device being authorized with respect to the account control service , search for a target device that is within a communication range of the mobile device ; retrieve, from the account control service executed by the account control system , a credential of the account of the first service being accessed by the target device over a network; and transmit, to the target device found in the search, the credential of the account of the first service being accessed by the target device over the network. register an account of a first service with an account control service which is executed by an account control system , the account control service separate from the first service ; in response to the mobile device being authorized with respect to the account control service , search for a target device that is within a communication range of the mobile device ; retrieve, from the account control service executed by the account control system , a credential of the account of the first service being accessed by the target device over a network; and transmit, to the target device found in the search, the credential of the account of the first service being accessed by the target device over the network.
An arrangement for monitoring an antifriction bearing of a rotating shaft of a rotating electric machine comprising: a circuit board , which is configured and positioned adjacent to the antifriction bearing and the rotating shaft , one or more capacitor electrodes being placed on the circuit board and configured and positioned adjacent to an antifriction bearing of a rotating shaft of a rotating electric machine to measure a capacitive shaft displacement parameter from an interaction with an electrically conducting part of the rotating shaft , the capacitive shaft displacement parameter determining a distance between the rotating shaft and the one or more capacitor electrodes , wherein high-frequency voltage is fed to a capacitance circuit formed by the rotating shaft and the one or more capacitor electrodes in order to measure the capacitive shaft displacement parameter 134, and a voltage sensor being placed on the circuit board and configured to measure a voltage difference between the rotating shaft and a static part of the rotating electric machine as a bearing current parameter ; and one or more processors , communicating with said one or more capacitor electrodes and said voltage sensor placed on the circuit board , and configured to evaluate a condition of the antifriction bearing based on the capacitive shaft displacement parameter and the bearing current parameter , the condition of the antifriction bearing indicating a remaining lifetime expectancy or a service need of the antifriction bearing . a circuit board , which is configured and positioned adjacent to the antifriction bearing and the rotating shaft , one or more capacitor electrodes being placed on the circuit board and configured and positioned adjacent to an antifriction bearing of a rotating shaft of a rotating electric machine to measure a capacitive shaft displacement parameter from an interaction with an electrically conducting part of the rotating shaft , the capacitive shaft displacement parameter determining a distance between the rotating shaft and the one or more capacitor electrodes , wherein high-frequency voltage is fed to a capacitance circuit formed by the rotating shaft and the one or more capacitor electrodes in order to measure the capacitive shaft displacement parameter 134, and a voltage sensor being placed on the circuit board and configured to measure a voltage difference between the rotating shaft and a static part of the rotating electric machine as a bearing current parameter ; and one or more processors , communicating with said one or more capacitor electrodes and said voltage sensor placed on the circuit board , and configured to evaluate a condition of the antifriction bearing based on the capacitive shaft displacement parameter and the bearing current parameter , the condition of the antifriction bearing indicating a remaining lifetime expectancy or a service need of the antifriction bearing .
A garment comprising a brassiere having a wing portion, said wing portion including a polymeric film characterized in that said polymeric film is in the form of: (a) a narrow strip which extends to the edges of the wing and is oriented along a diagonal or is perpendicular to the wing edges; (b) a triangular shape ; or (c) the shape of the wing portion geometrically inverted to said wing portion . (a) a narrow strip which extends to the edges of the wing and is oriented along a diagonal or is perpendicular to the wing edges; (b) a triangular shape ; or (c) the shape of the wing portion geometrically inverted to said wing portion .
An electronic stethoscope system comprising: an input unit that comprises a structural body that includes a conical resonator designed to collect acoustic waves corresponding to sounds internal to a body, an auscultation microphone configured to produce first audio data indicative of the sounds internal to the body, an ambient microphone configured to produce second audio data indicative of sounds external to the body, a processor configured to append metadata that identifies the input unit to the first and the second audio data, and a data interface to which the first and the second audio data are forwarded by the processor for transmission to a hub unit; and the hub unit that comprises a data interface configured to receive the first and second audio data from the input unit, and a processor configured to parse the second audio data to discover an environmental noise external to the body, alter the first audio data to mitigate an effect of the environmental noise, and examine the altered first audio data to detect a biometric characteristic of the body. a structural body that includes a conical resonator designed to collect acoustic waves corresponding to sounds internal to a body, an auscultation microphone configured to produce first audio data indicative of the sounds internal to the body, an ambient microphone configured to produce second audio data indicative of sounds external to the body, a processor configured to append metadata that identifies the input unit to the first and the second audio data, and a data interface to which the first and the second audio data are forwarded by the processor for transmission to a hub unit; and the hub unit that comprises a data interface configured to receive the first and second audio data from the input unit, and a processor configured to parse the second audio data to discover an environmental noise external to the body, alter the first audio data to mitigate an effect of the environmental noise, and examine the altered first audio data to detect a biometric characteristic of the body. parse the second audio data to discover an environmental noise external to the body, alter the first audio data to mitigate an effect of the environmental noise, and examine the altered first audio data to detect a biometric characteristic of the body.
An apparatus for depositing and staining cellular samples comprising: (a) a housing having an access door ; (b) a substrate processing holder , located within the housing, that holds one or more substrates and one or more substrate cartridges , wherein the substrate processing holder is accessible when the access door is in an open configuration; (c) at least one opening located at least partially above at least a portion of the substrate processing holder; (d) a spray nozzle configured to dispense a gaseous substance into the substrate processing area; (e) a user interface configured receive an input from a user, and in response to receiving the input, cause execution of a pre-programmed protocol; and (f) a waste and reagent holder element ; wherein at least one of the one or more substrate cartridges comprises: a spray retainer , a sample dispense port , a reagent port , and an upper opening for receiving the spray nozzle. (a) a housing having an access door ; (b) a substrate processing holder , located within the housing, that holds one or more substrates and one or more substrate cartridges , wherein the substrate processing holder is accessible when the access door is in an open configuration; (c) at least one opening located at least partially above at least a portion of the substrate processing holder; (d) a spray nozzle configured to dispense a gaseous substance into the substrate processing area; (e) a user interface configured receive an input from a user, and in response to receiving the input, cause execution of a pre-programmed protocol; and (f) a waste and reagent holder element ; a spray retainer , a sample dispense port , a reagent port , and an upper opening for receiving the spray nozzle.
A can decorator comprising: a spindle disc configured to (i) receive beverage cans from an infeed and (ii) carry and rotate each can body on a corresponding spindle; the spindle disc being driven by a spindle disc motor having an encoder; a blanket drum configured to (i) apply ink to printing cylinders and (ii) rotate the printing cylinders in registration with beverage cans on the spindle disc to decorate the cans; the blanket drum being driven by a blanket drum motor having an encoder; a transfer wheel configured to receive beverage cans from the spindle disc after decoration by the blanket drum; the transfer wheel being driven by a transfer wheel motor having an encoder; a pin chain drive configured to receive cans from the transfer wheel and transport the cans on a chain through an oven; the pin chain drive being driven by a pin chain drive motor having an encoder; and a controller configured to receive encoder information and match or adjust speeds of the spindle disc motor, the blanket drum motor, the transfer wheel motor, and the pin chain drive motor, wherein the motors are independently drivable with respect to one another. a spindle disc configured to (i) receive beverage cans from an infeed and (ii) carry and rotate each can body on a corresponding spindle; the spindle disc being driven by a spindle disc motor having an encoder; a blanket drum configured to (i) apply ink to printing cylinders and (ii) rotate the printing cylinders in registration with beverage cans on the spindle disc to decorate the cans; the blanket drum being driven by a blanket drum motor having an encoder; a transfer wheel configured to receive beverage cans from the spindle disc after decoration by the blanket drum; the transfer wheel being driven by a transfer wheel motor having an encoder; a pin chain drive configured to receive cans from the transfer wheel and transport the cans on a chain through an oven; the pin chain drive being driven by a pin chain drive motor having an encoder; and a controller configured to receive encoder information and match or adjust speeds of the spindle disc motor, the blanket drum motor, the transfer wheel motor, and the pin chain drive motor, wherein the motors are independently drivable with respect to one another.