mhurhangee/patent-ind-claim-en huggingface dataset:
A laser welding inspection apparatus for performing an inspection of a welded portion (Y) of a workpiece (W), comprising: a head which is configured to irradiate the welded portion (Y) of the workpiece (W) with a laser beam for inspection; an optical receiver which is configured to receive a return light of the laser beam for inspection from the welded portion (Y); an optical system which is configured to adjust at least a focal diameter (D1) of the laser beam for inspection applied to the welded portion (Y) and a region where the return light from the welded portion (Y) is recognized; and a controller which is configured to control the optical system and which is configured to determine, based on an occurrence of a significantly low intensity of the return light, whether a welding defect exists in the welded portion (Y), the controller being configured to control the optical system so that a diameter (D2) of the region where the return light from the welded portion (Y) is recognized is not less than 0.7 times and not more than 1.5 times as large as the focal diameter (D1). a head which is configured to irradiate the welded portion (Y) of the workpiece (W) with a laser beam for inspection; an optical receiver which is configured to receive a return light of the laser beam for inspection from the welded portion (Y); an optical system which is configured to adjust at least a focal diameter (D1) of the laser beam for inspection applied to the welded portion (Y) and a region where the return light from the welded portion (Y) is recognized; and a controller which is configured to control the optical system and which is configured to determine, based on an occurrence of a significantly low intensity of the return light, whether a welding defect exists in the welded portion (Y), the controller being configured to control the optical system so that a diameter (D2) of the region where the return light from the welded portion (Y) is recognized is not less than 0.7 times and not more than 1.5 times as large as the focal diameter (D1).
A biaxial or tri-axial eccentric rotor volume pulsed deformation plasticizing method, wherein the conveying volume of materials is formed between two or three engaged eccentric rotors eccentric to an inner cavity of a stator and an inner surface of the stator , the eccentric rotors which are all formed by spiral structures and length-varying eccentric cylindrical structures connected alternately, whereas the spiral structures of each of the eccentric rotors are engaged to corresponding spiral structures of one or more adjacent eccentric rotors, and the eccentric cylindrical structures of each of the two or three rotors having the same axial position within the same rotor, characterized in that both the pitches of the spiral structures and the lengths of the eccentric cylinders of each of the eccentric rotors are gradually decreased in the axial direction such that the conveying volume changes periodically along the axial direction and the radial direction of the rotors, achieving the volume pulsed deformation plasticizing and conveying of the materials during engaged rotation of the two or three engaged eccentric rotors ; and wherein a cross-section of the inner surface of the stator , taken perpendicular to the central axis of the stator, has the same shape along the central axis of the stator.
A system for managing multiple power assets, said system comprising: at least one volatile asset ; at least one deterministic asset ; and a controller communicatively coupled to said at least one volatile asset and said at least one deterministic asset , said controller configured to: receive data from said at least one volatile asset ; predict a change in power output for said at least one volatile asset based on the received data; control operation of said at least one deterministic asset to compensate for the predicted change in power output collect operating data for a power asset , wherein the power asset is one of said at least one deterministic asset ; determine an operating mode of the power asset ; analyze historical data to determine an average state for assets previously operating in the operating mode; analyze the historical data to identify a problem run for an asset previously operating in the operating mode; and cause the operating data, determined average state, and identified problem run to be displayed to a human operator. at least one volatile asset ; at least one deterministic asset ; and a controller communicatively coupled to said at least one volatile asset and said at least one deterministic asset , said controller configured to: receive data from said at least one volatile asset ; predict a change in power output for said at least one volatile asset based on the received data; control operation of said at least one deterministic asset to compensate for the predicted change in power output collect operating data for a power asset , wherein the power asset is one of said at least one deterministic asset ; determine an operating mode of the power asset ; analyze historical data to determine an average state for assets previously operating in the operating mode; analyze the historical data to identify a problem run for an asset previously operating in the operating mode; and cause the operating data, determined average state, and identified problem run to be displayed to a human operator. receive data from said at least one volatile asset ; predict a change in power output for said at least one volatile asset based on the received data; control operation of said at least one deterministic asset to compensate for the predicted change in power output collect operating data for a power asset , wherein the power asset is one of said at least one deterministic asset ; determine an operating mode of the power asset ; analyze historical data to determine an average state for assets previously operating in the operating mode; analyze the historical data to identify a problem run for an asset previously operating in the operating mode; and cause the operating data, determined average state, and identified problem run to be displayed to a human operator.
Method for manufacturing a reinforcing component from different materials, - wherein, in a first step (S1), the component is manufactured in a first mould by plastics injection-moulding with foaming of the plastics material used, - wherein, in a second step (S2), at least one type of fibre is wound around the component, - and wherein, in the third method step (S3), the component as a whole is overmoulded or consolidated or penetrated with plastic of a second plastics material in a second mould , characterized in that the component is manufactured in the first step, in which a reduction of large cross sections of the component is achieved by insert parts of the same plastics material used for the foaming, and in that the insert parts are in each case also manufactured in the first method step (S1). - wherein, in a first step (S1), the component is manufactured in a first mould by plastics injection-moulding with foaming of the plastics material used, - wherein, in a second step (S2), at least one type of fibre is wound around the component, - and wherein, in the third method step (S3), the component as a whole is overmoulded or consolidated or penetrated with plastic of a second plastics material in a second mould , characterized in that the component is manufactured in the first step, in which a reduction of large cross sections of the component is achieved by insert parts of the same plastics material used for the foaming, and
A method of forming an oxygen reduction reaction (ORR) catalyst comprising: providing a carbon supported Pt nanoparticle (Pt/C) substrate; applying a tungsten nitride (WN) film onto at least a portion of a surface of the Pt/C substrate , wherein the step of applying the WN film onto at least the portion of the surface of the Pt/C substrate comprises performing atomic layer deposition of WN onto the Pt/C substrate (210, 220, 910, 920; oxidizing the Pt/C substrate with the WN film at a first lower temperature, wherein the first lower temperature of the oxidizing step is at least 150 °C and is applied for at least 1 hour; annealing the Pt/C substrate with the WN film at a second temperature that is elevated above the first lower temperature in order to reduce WN to metallic tungsten (W) and form a W/WN blocking layer on the Pt/C substrate , wherein the second elevated temperature of the annealing step is at least 600 °C and is applied for at least 2.5 hours. providing a carbon supported Pt nanoparticle (Pt/C) substrate; applying a tungsten nitride (WN) film onto at least a portion of a surface of the Pt/C substrate , wherein the step of applying the WN film onto at least the portion of the surface of the Pt/C substrate comprises performing atomic layer deposition of WN onto the Pt/C substrate (210, 220, 910, 920; oxidizing the Pt/C substrate with the WN film at a first lower temperature, wherein the first lower temperature of the oxidizing step is at least 150 °C and is applied for at least 1 hour; annealing the Pt/C substrate with the WN film at a second temperature that is elevated above the first lower temperature in order to reduce WN to metallic tungsten (W) and form a W/WN blocking layer on the Pt/C substrate , wherein the second elevated temperature of the annealing step is at least 600 °C and is applied for at least 2.5 hours.
A bearing having a first race , a second race and rolling elements , wherein said bearing is a pitch bearing or a yaw bearing for a wind turbine, said bearing comprising: a load path for normal loads, the load path for normal loads transmitting load from the first race through the rolling elements to the second race ; and an alternate load path for extreme loads, said alternate load path being formed between said first race and said second race and having a higher stiffness, wherein said alternate load path during normal loading conditions transmits no load and during extreme loading conditions diverts at least a portion of said extreme loads from said rolling elements , a load path for normal loads, the load path for normal loads transmitting load from the first race through the rolling elements to the second race ; and an alternate load path for extreme loads, said alternate load path being formed between said first race and said second race and having a higher stiffness, wherein said alternate load path during normal loading conditions transmits no load and during extreme loading conditions diverts at least a portion of said extreme loads from said rolling elements ,
A solid water-dispersible pharmaceutical composition for use in the treatment of a disease, said treatment comprising dispersing the pharmaceutical composition into an aqueous liquid to produce an enterally administrable liquid containing at least 0.5 grams of the pharmaceutical composition and at least 0.3 g/l of edaravone, followed by enterally administering the enterally administrable liquid to a human patient in an amount providing a dose of 30-300 mg edaravone, said pharmaceutical composition comprising: • 2-50 wt.% of 3-methyl-1-phenyl-2-pyrazolin-5-one (edaravone); and • 3-50 wt.% of water soluble alkalizing agent; wherein the edaravone in this pharmaceutical composition fully dissolves when the composition is added to demineralized water of 25°C in a concentration equivalent to an edaravone concentration of 1.4 g/l, and wherein the pH of this solution at 25°C is at least 0.5 pH units higher than the pH of a solution having the same edaravone concentration and consisting exclusively of edaravone and demineralized water. • 2-50 wt.% of 3-methyl-1-phenyl-2-pyrazolin-5-one (edaravone); and • 3-50 wt.% of water soluble alkalizing agent;
A microfluidic pump , comprising: a substrate configured to define a channel for carrying a fluid; a series of resistive heaters configured to be disposed along the channel , wherein activating the resistive heaters using a firing pulse sequence moves the fluid through a conduit in a direction and at a speed based on the firing pulse sequence; a temperature sensor configured to be in thermal communication with the substrate , the temperature sensor being configured to measure a pump temperature and produce a temperature signal corresponding to the pump temperature; and a fire signal generator configured to be in electrical communication with each resistive heater , the fire signal generator being configured to produce a series of firing pulse sequences, each firing pulse sequence being configured to comprise a number of firing pulses, successive firing pulses being configured to be separated by an idle period comprising a period of time with no firing pulses, characterized in that the fire signal generator being configured to vary at least one of the number of firing pulses in the firing pulse sequence and the idle period in response to the pump temperature. a substrate configured to define a channel for carrying a fluid; a series of resistive heaters configured to be disposed along the channel , wherein activating the resistive heaters using a firing pulse sequence moves the fluid through a conduit in a direction and at a speed based on the firing pulse sequence; a temperature sensor configured to be in thermal communication with the substrate , the temperature sensor being configured to measure a pump temperature and produce a temperature signal corresponding to the pump temperature; and a fire signal generator configured to be in electrical communication with each resistive heater , the fire signal generator being configured to produce a series of firing pulse sequences, each firing pulse sequence being configured to comprise a number of firing pulses, successive firing pulses being configured to be separated by an idle period comprising a period of time with no firing pulses, characterized in that the fire signal generator being configured to vary at least one of the number of firing pulses in the firing pulse sequence and the idle period in response to the pump temperature.
A bag knot structure comprising: a bag body part formed in two layers, and configured to have closed three sides and have an open inlet at the top thereof; a first hole located on one side of the top of the bag body part and in proximity to the inlet, and formed through the bag body part ; a second hole located in proximity to the first hole , and formed through the bag body part ; a third hole spaced apart from the second hole , located on the other side of the top of the bag body part , and formed through the bag body part ; and a knotting wire disposed on the back surface of the bag body part ; characterized in that part of the knotting wire is passed through the first hole from the back surface of the bag body part , is moved to the front surface of the bag body part , and is caused to form a first loop ; wherein part of the knotting wire is passed through the second hole from the back surface of the bag body part , is moved to the front surface, is passed through the first loop , and is caused to form a second loop ; and wherein part of the knotting wire is passed through the third hole from the back surface of the bag body part , is moved to the front surface, and is caused to form a grip , wherein the grip is moved out of the third hole, and is passed through the second loop . a bag body part formed in two layers, and configured to have closed three sides and have an open inlet at the top thereof; a first hole located on one side of the top of the bag body part and in proximity to the inlet, and formed through the bag body part ; a second hole located in proximity to the first hole , and formed through the bag body part ; a third hole spaced apart from the second hole , located on the other side of the top of the bag body part , and formed through the bag body part ; and a knotting wire disposed on the back surface of the bag body part ; characterized in that part of the knotting wire is passed through the first hole from the back surface of the bag body part , is moved to the front surface of the bag body part , and is caused to form a first loop ; wherein part of the knotting wire is passed through the second hole from the back surface of the bag body part , is moved to the front surface, is passed through the first loop , and is caused to form a second loop ; and wherein part of the knotting wire is passed through the third hole from the back surface of the bag body part , is moved to the front surface, and is caused to form a grip , wherein the grip is moved out of the third hole, and is passed through the second loop .
A prosthetic heart valve including: - a prosthetic valve annulus defining an orifice for the passage of blood flow, - at least one prosthetic valve leaflet member including at least one coaptation surface (C1, C2, C3, C4) configured for cooperating with at least one corresponding coaptation surface (C5, C6, C1) of said prosthetic heart valve to regulate blood flow through said orifice, said at least one prosthetic valve leaflet member being displaceable by the blood flow between a closed position and an open position to produce, correspondingly, a contact and a separation of cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, CI), wherein in the open position the separation of the cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, C1) enables the blood flow through said orifice in a first direction (F1), and wherein in the closed position the contact of the cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, C1) prevents the blood flow through said orifice in a second direction (F2), opposite to said first direction (F1), wherein the prosthetic heart valve includes at least one device configured for preventing at least in part the contact between cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, C1), so that a blood regurgitation in said second direction (F2) is enabled, and wherein said at least one device is configured for ceasing its action after a predetermined amount of time, said at least one device being configured for ceasing its action by erosion thereof, the prosthetic heart valve including a ring member defining said prosthetic valve annulus and including two leaflets movably connected to said ring member , wherein at least one of said at least one device is operatively associated to each leaflet . - a prosthetic valve annulus defining an orifice for the passage of blood flow, - at least one prosthetic valve leaflet member including at least one coaptation surface (C1, C2, C3, C4) configured for cooperating with at least one corresponding coaptation surface (C5, C6, C1) of said prosthetic heart valve to regulate blood flow through said orifice, said at least one prosthetic valve leaflet member being displaceable by the blood flow between a closed position and an open position to produce, correspondingly, a contact and a separation of cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, CI),
A locking device having at least one electronic load, in particular a control device , and comprising a control circuit which is designed to transfer the electronic load from a first operating state to a second operating state depending on an electric field, wherein a measuring electrode for detecting the electric field and an input amplifier device adapted to amplify an output signal (s_1) of the measuring electrode are provided, wherein a transfer function of the input amplifier device has a) a band-pass characteristic with a center frequency of about 0.5 Hertz, or b) a low-pass characteristic with a cut-off frequency of about 1.5 Hertz.
An all-in-one smart tablet PC, wherein it comprises: a screen , a glass , an infrared touch module , a rear shell and a plurality of screen supports ; wherein each of the screen supports is provided with a groove , the glass is inserted into the groove and matching the groove ; each of the screen supports is further provided with a slot , the infrared touch module is positioned into the slot and matching the slot ; a supporting tab is provided on a side of each of the screen supports , the supporting tabs of the screen supports are connected together end to end to form a screen frame ; the screen is installed within the screen frame ; and the rear shell is installed onto the back of the screen , wherein the screen comprises a liquid crystal, LC, glass , a screen back plate and a middle frame ; the middle frame is located between the LC glass and the screen back plate , the screen back plate is attached to the back of the middle frame , the LC glass is installed onto the front of the middle frame , and the screen back plate is attached to the supporting tab , wherein a side of the screen back plate is provided with a first threaded hole , the supporting tab is provided with a second threaded hole , and the screen back plate is attached to the supporting tab by a screw passing through the second threaded hole and the first threaded hole . a screen , a glass , an infrared touch module , a rear shell and a plurality of screen supports ; wherein each of the screen supports is provided with a groove , the glass is inserted into the groove and matching the groove ; each of the screen supports is further provided with a slot , the infrared touch module is positioned into the slot and matching the slot ; a supporting tab is provided on a side of each of the screen supports , the supporting tabs of the screen supports are connected together end to end to form a screen frame ; the screen is installed within the screen frame ; and the rear shell is installed onto the back of the screen , wherein the screen comprises a liquid crystal, LC, glass , a screen back plate and a middle frame ; the middle frame is located between the LC glass and the screen back plate , the screen back plate is attached to the back of the middle frame , the LC glass is installed onto the front of the middle frame , and the screen back plate is attached to the supporting tab , wherein a side of the screen back plate is provided with a first threaded hole , the supporting tab is provided with a second threaded hole , and the screen back plate is attached to the supporting tab by a screw passing through the second threaded hole and the first threaded hole .
A grinding machine for a granular food such as coffee or spices with a vertical or horizontal rotation axis comprising: - an upper or rear motorized grinding disc configured to rotate in use at a first non-zero speed; - a lower or front motorized grinding disc facing the upper or rear disk and configured to rotate in use at a second non-zero speed different from the first speed; where the discs: • have respective frontal facing teeth; • receive coffee or spices, or any other granular product, in a radially internal position; • expel ground coffee or spices, or any other granular product, through a radially external opening; and characterized in that a grinding machine further comprising electric or electronic drives, respectively including at least two electric motors or at least two electric motors controlled by two separate inverters, configured to respectively and independently adjust the speeds of the discs also during grinding. - an upper or rear motorized grinding disc configured to rotate in use at a first non-zero speed; - a lower or front motorized grinding disc facing the upper or rear disk and configured to rotate in use at a second non-zero speed different from the first speed; where the discs: • have respective frontal facing teeth; • receive coffee or spices, or any other granular product, in a radially internal position; • expel ground coffee or spices, or any other granular product, through a radially external opening; and characterized in that a grinding machine further comprising electric or electronic drives, respectively including at least two electric motors or at least two electric motors controlled by two separate inverters, configured to respectively and independently adjust the speeds of the discs also during grinding. • have respective frontal facing teeth; • receive coffee or spices, or any other granular product, in a radially internal position; • expel ground coffee or spices, or any other granular product, through a radially external opening; and