mhurhangee/patent-ind-claim-en huggingface dataset:
A method for leak testing in a fluid system, the method comprising the steps of: submerging at least a portion of an electrically conductive body in an electrolyte solution , the electrically conductive body and electrolyte solution being in an internal chamber of a device having a fluid inlet and a fluid outlet ; directing an electrical signal to the electrically conductive body causing a reaction between the electrically conductive body and the electrolyte solution to produce hydrogen; receiving a pressurized fluid in the internal chamber via the fluid inlet of the internal chamber: mixing the pressurized fluid with the produced hydrogen to produce a resultant mixture; injecting the resulting mixture into the fluid system via the fluid outlet of the internal chamber for leak detection; and testing for a leak in the fluid system by sensing whether hydrogen from the resultant mixture is leaking from the fluid system. submerging at least a portion of an electrically conductive body in an electrolyte solution , the electrically conductive body and electrolyte solution being in an internal chamber of a device having a fluid inlet and a fluid outlet ; directing an electrical signal to the electrically conductive body causing a reaction between the electrically conductive body and the electrolyte solution to produce hydrogen; receiving a pressurized fluid in the internal chamber via the fluid inlet of the internal chamber: mixing the pressurized fluid with the produced hydrogen to produce a resultant mixture; injecting the resulting mixture into the fluid system via the fluid outlet of the internal chamber for leak detection; and testing for a leak in the fluid system by sensing whether hydrogen from the resultant mixture is leaking from the fluid system.
A combination ignition and speed control assembly for outdoor power equipment having an engine , the combination ignition and speed control assembly comprising: a key ; a key switch portion configured to receive the key in a key slot , the key switch portion being rotatable to a start position , to a stop position , and to different selectable positions only when the key is inserted into the key slot; and a switch circuitry configured to control the engine start , the engine stop and the selection of the different selectable positions corresponding to respective different operating speeds for the engine . a key ; a key switch portion configured to receive the key in a key slot , the key switch portion being rotatable to a start position , to a stop position , and to different selectable positions only when the key is inserted into the key slot; and a switch circuitry configured to control the engine start , the engine stop and the selection of the different selectable positions corresponding to respective different operating speeds for the engine .
A carton for holding at least one food product, the carton comprising: a plurality of panels that extends around an interior of the carton , the plurality of panels comprising a bottom panel , a first side panel foldably connected to the bottom panel , a second side panel foldably connected to the bottom panel , and at least one end panel foldably connected to the bottom panel ; a plurality of flaps respectively foldably connected to the plurality of panels for closing a top of the carton , the plurality of flaps comprises a first side flap foldably connected to the first side panel and a second side flap foldably connected to the second side panel ; the carton being further characterized by comprising a reclosable lock for securing at least the first side flap and the second side flap to close the top of the carton , the reclosable lock comprises a first locking feature and a second locking feature in the first side flap , and a first locking tab and a second locking tab in the second side flap , the first locking tab being for engagement with the first locking feature and the second locking tab being for engagement with the second locking feature to engage the reclosable lock. a plurality of panels that extends around an interior of the carton , the plurality of panels comprising a bottom panel , a first side panel foldably connected to the bottom panel , a second side panel foldably connected to the bottom panel , and at least one end panel foldably connected to the bottom panel ; a plurality of flaps respectively foldably connected to the plurality of panels for closing a top of the carton , the plurality of flaps comprises a first side flap foldably connected to the first side panel and a second side flap foldably connected to the second side panel ; the carton being further characterized by comprising a reclosable lock for securing at least the first side flap and the second side flap to close the top of the carton , the reclosable lock comprises a first locking feature and a second locking feature in the first side flap , and a first locking tab and a second locking tab in the second side flap , the first locking tab being for engagement with the first locking feature and the second locking tab being for engagement with the second locking feature to engage the reclosable lock.
A detergent dye granule comprising: (i) from 0.005 to 5 wt % of a blue or violet shading dye; (ii) from 5 to 60 wt % of alkyl ether carboxylate surfactant, wherein the alkyl ether carboxylate surfactant is of the following structure: R 1 -(OCH 2 CH 2 ) n -OCH 2 -COOH wherein R 1 is selected from saturated and mono-unsaturated C 10 to C 18 linear or branched alkyl chains, wherein n is from 5 to 40, and, wherein the alkyl ether carboxylate surfactant is a solid at 293 degrees Kelvin at 1 bar pressure; (iii) from 20 to 90 wt % of a solid carrier; (iv) from 0.5 to 10 wt % of a binder. (i) from 0.005 to 5 wt % of a blue or violet shading dye; (ii) from 5 to 60 wt % of alkyl ether carboxylate surfactant, wherein the alkyl ether carboxylate surfactant is of the following structure: R 1 -(OCH 2 CH 2 ) n -OCH 2 -COOH wherein R 1 is selected from saturated and mono-unsaturated C 10 to C 18 linear or branched alkyl chains, wherein n is from 5 to 40, and, wherein the alkyl ether carboxylate surfactant is a solid at 293 degrees Kelvin at 1 bar pressure; wherein R 1 is selected from saturated and mono-unsaturated C 10 to C 18 linear or branched alkyl chains, wherein n is from 5 to 40, and, wherein the alkyl ether carboxylate surfactant is a solid at 293 degrees Kelvin at 1 bar pressure; (iii) from 20 to 90 wt % of a solid carrier; (iv) from 0.5 to 10 wt % of a binder.
A method for obtaining an atomic number (Z) of each material contained in an object being scanned by a covert mobile inspection vehicle comprising: a backscatter X-ray scanning system comprising an X-ray source and a plurality of detectors for obtaining a radiographic image of the object; at least one sensor for determining a distance from at least one of the plurality of detectors to points on a surface of the object; and a processor for processing the obtained radiographic image by using the determined distance of the object to obtain an atomic number of each material contained in the object; wherein the method comprises a. measuring the energy of the X-rays after they are scattered by the object wherein the method is characterized by further comprising the steps of: b. determining a true extent of each region of the radiographic image by using a statistical filter; c. calculating a standard deviation of the measured scattered X-ray energies of pixels present in each region; d. calculating a product of the obtained standard deviation and a mean of the measured scattered X-ray energies of pixels present in each region; and e. comparing the calculated product to a pre-determined scale where a low value of the product corresponds to a low Z material and a high value of the product corresponds to a high Z material. a. measuring the energy of the X-rays after they are scattered by the object wherein the method is characterized by further comprising the steps of: b. determining a true extent of each region of the radiographic image by using a statistical filter; c. calculating a standard deviation of the measured scattered X-ray energies of pixels present in each region; d. calculating a product of the obtained standard deviation and a mean of the measured scattered X-ray energies of pixels present in each region; and e. comparing the calculated product to a pre-determined scale where a low value of the product corresponds to a low Z material and a high value of the product corresponds to a high Z material.
A tinnitus treatment system comprising a sound processing unit, a haptic stimulus unit and an audio delivery unit: wherein said sound processing unit comprises: a processor input for receiving an audio signal from an audio source; and a digital signal processor operable to analyse said audio signal and generate a plurality of actuation signals therefrom which are representative of said audio signal, the digital signal processor further being operable to spectrally modify said audio signal in accordance with a predetermined modification profile to generate a modified audio signal; wherein said haptic stimulus unit comprises: an array of stimulators each of which can be independently actuated to apply a tactile stimulus to a subject; and a stimulus unit input for receiving the plurality of actuation signals generated by said digital signal processor and directing individual actuation signals to individual stimulators; and wherein said audio delivery unit for delivering an auditory stimulus comprises an audio delivery unit input for receiving the modified audio signal generated by said digital signal processor, and characterised in that the predetermined modification profile is based on an inversion of an audiogram of a patient suffering from tinnitus. wherein said sound processing unit comprises: a processor input for receiving an audio signal from an audio source; and a digital signal processor operable to analyse said audio signal and generate a plurality of actuation signals therefrom which are representative of said audio signal, the digital signal processor further being operable to spectrally modify said audio signal in accordance with a predetermined modification profile to generate a modified audio signal; a processor input for receiving an audio signal from an audio source; and a digital signal processor operable to analyse said audio signal and generate a plurality of actuation signals therefrom which are representative of said audio signal, the digital signal processor further being operable to spectrally modify said audio signal in accordance with a predetermined modification profile to generate a modified audio signal; wherein said haptic stimulus unit comprises: an array of stimulators each of which can be independently actuated to apply a tactile stimulus to a subject; and a stimulus unit input for receiving the plurality of actuation signals generated by said digital signal processor and directing individual actuation signals to individual stimulators; and an array of stimulators each of which can be independently actuated to apply a tactile stimulus to a subject; and a stimulus unit input for receiving the plurality of actuation signals generated by said digital signal processor and directing individual actuation signals to individual stimulators; and wherein said audio delivery unit for delivering an auditory stimulus comprises an audio delivery unit input for receiving the modified audio signal generated by said digital signal processor, and characterised in that the predetermined modification profile is based on an inversion of an audiogram of a patient suffering from tinnitus.
An imaging apparatus comprising: a distribution means configured to distribute a playlist, in which information relating to a plurality of moving image streams can be described, when a distribution request of the playlist is received; and a coding means configured to, when the distribution request of the playlist is received, encode a plurality of moving image frames corresponding to the plurality of moving image streams described in the playlist through intraframe coding, before receiving a distribution request of a specific moving image stream included in the plurality of moving image streams, characterized in that the distribution means is configured to distribute a moving image stream corresponding to the specific moving image stream including the moving image frame, which has been encoded through intraframe coding before the distribution request of the specific moving image stream has been received, when the distribution request of the specific moving image stream is received, wherein generation of moving image streams other than the specific moving image stream included in the plurality of moving image streams is stopped, when the distribution request of the specific moving image stream is received. a distribution means configured to distribute a playlist, in which information relating to a plurality of moving image streams can be described, when a distribution request of the playlist is received; and a coding means configured to, when the distribution request of the playlist is received, encode a plurality of moving image frames corresponding to the plurality of moving image streams described in the playlist through intraframe coding, before receiving a distribution request of a specific moving image stream included in the plurality of moving image streams, characterized in that the distribution means is configured to distribute a moving image stream corresponding to the specific moving image stream including the moving image frame, which has been encoded through intraframe coding before the distribution request of the specific moving image stream has been received, when the distribution request of the specific moving image stream is received, wherein generation of moving image streams other than the specific moving image stream included in the plurality of moving image streams is stopped, when the distribution request of the specific moving image stream is received.
A liquid crystal display device , comprising: a first substrate having elements configured to drive pixels; a second substrate having color filters corresponding to the pixels; and a sealant configured to bond the first substrate and the second substrate to each other; wherein the first substrate includes a first protruding structure located in an area where the first substrate is in contact with the sealant , and the second substrate includes a second protruding structure located in an area where the second substrate is in contact with the sealant , wherein the sealant includes a spherical glass fiber configured to maintain a cell gap between the first and second substrates and a height of the first and second protruding structures is smaller than the difference between the cell gap and the diameter of the spherical glass fiber , and wherein each of the first and second protruding structures is a plurality of column spacers disposed with an interval that is equal to or larger than the diameter of the spherical glass fiber . a first substrate having elements configured to drive pixels; a second substrate having color filters corresponding to the pixels; and a sealant configured to bond the first substrate and the second substrate to each other; wherein the first substrate includes a first protruding structure located in an area where the first substrate is in contact with the sealant , and the second substrate includes a second protruding structure located in an area where the second substrate is in contact with the sealant , wherein the sealant includes a spherical glass fiber configured to maintain a cell gap between the first and second substrates and a height of the first and second protruding structures is smaller than the difference between the cell gap and the diameter of the spherical glass fiber , and wherein each of the first and second protruding structures is a plurality of column spacers disposed with an interval that is equal to or larger than the diameter of the spherical glass fiber .
A solid free-flowing particulate laundry detergent composition, wherein the composition comprises: (a) detersive surfactant; (b) iron-based bleach catalyst having the following structure: and (c) sulfite-based reducing bleach. (a) detersive surfactant; (b) iron-based bleach catalyst having the following structure: and (c) sulfite-based reducing bleach.
Method for operating an electromotive massage device of a seat , in particular of a motor vehicle , which has a massage drive with an electric motor , in which - the electric motor is energized, - a torque of the electric motor is detected and from that a first reference value is determined, and - an occupancy of at least one section of the seat is determined on the basis of the first reference value . - the electric motor is energized, - a torque of the electric motor is detected and from that a first reference value is determined, and - an occupancy of at least one section of the seat is determined on the basis of the first reference value .
A bullet trap for a bullet trap device for a bullet trap system , comprising a bullet trap module for absorbing a bullet energy, which has an extensive wall , wherein the wall of the bullet trap module is manufactured from a module material penetrable by bullets and an extensive interior surrounded by the wall with a filling material as filling, wherein the wall and/or the filling is or are manufactured from a polyurethane and/or the filling is configured as granulate with a polygonal or polyhedral structure, characterized in that at least one further bullet trap module is arranged on the bullet trap module , wherein a connection to the adjacent sides of the module is provided in order to manufacture a bullet trap comprising a plurality of modules , wherein a bottom is provided at at least one lowest bullet trap module , so that a filling in the bullet trap is held, wherein further the bullet trap has a bottomless module , hence a module without a bottom, so that the filling is moveable from the bottomless module to the other module .
A medical device connector comprising: a housing having a longitudinal axis normal to a base ; a wall projecting from the base; the wall comprising a plurality of cut-outs formed through the wall, the plurality of cut-outs extending in a partial helix configuration about the longitudinal axis of the housing; wherein the wall comprises a first solid section extending from the base parallel to the longitudinal axis of the housing; and a second solid section extending from the base parallel with the first solid section, the first and the second solid sections separating at least one of the plurality of cut-outs; characterized in that the plurality of cut-outs comprises thread-like features which can be formed from the exterior, thus eliminating the need for unscrewing rotating cores and/or collapsible cores during an injection molding process when manufacturing said connector, wherein said plurality of cut-outs further comprises a first pair of cut-outs and a second pair of cut-outs and the first pair of cut-outs is separated from the second pair of cut-outs by the first solid section and the second solid section ; the first pair of cut-outs are separated by a third solid section of the wall, the third solid section extending from first solid section to the second solid section ; and the second pair of cut-outs are separated by a fourth solid section that extends from the first solid section to the second solid section , and the first pair of cut-outs and the second pair of cut-outs are configured to receive locking lugs. a housing having a longitudinal axis normal to a base ; a wall projecting from the base; the wall comprising a plurality of cut-outs formed through the wall, the plurality of cut-outs extending in a partial helix configuration about the longitudinal axis of the housing; wherein the wall comprises a first solid section extending from the base parallel to the longitudinal axis of the housing; and a second solid section extending from the base parallel with the first solid section, the first and the second solid sections separating at least one of the plurality of cut-outs; characterized in that the plurality of cut-outs comprises thread-like features which can be formed from the exterior, thus eliminating the need for unscrewing rotating cores and/or collapsible cores during an injection molding process when manufacturing said connector, wherein said plurality of cut-outs further comprises a first pair of cut-outs and a second pair of cut-outs and the first pair of cut-outs is separated from the second pair of cut-outs by the first solid section and the second solid section ; the first pair of cut-outs are separated by a third solid section of the wall, the third solid section extending from first solid section to the second solid section ; and the second pair of cut-outs are separated by a fourth solid section that extends from the first solid section to the second solid section , and the first pair of cut-outs and the second pair of cut-outs are configured to receive locking lugs.
A method of wireless communication for a base station , the method comprising: communicating with a user equipment, UE , through a first active beam , the first active beam being a serving beam; determining that beam tracking is to be performed with the UE , the beam tracking including identifying a new beam for communication between the UE and the base station; performing beam tracking with the UE using initially a first plurality of beams (620a-h) and subsequently a second plurality of beams (620c-f) based on the determination that beam tracking is to be performed, based on that the first active beam deteriorates, wherein performing beam tracking with the UE comprises transmitting to the UE a first reference signal through a first beam of the first plurality of beams (620a-h) and subsequently transmitting to the UE a second reference signal through a second beam of the second plurality of beams (620c-f), wherein the first plurality of beams (620a-h) is different from the second plurality of beams (620c-f); and communicating with the UE through a second active beam based on the beam tracking. communicating with a user equipment, UE , through a first active beam , the first active beam being a serving beam; determining that beam tracking is to be performed with the UE , the beam tracking including identifying a new beam for communication between the UE and the base station; performing beam tracking with the UE using initially a first plurality of beams (620a-h) and subsequently a second plurality of beams (620c-f) based on the determination that beam tracking is to be performed, based on that the first active beam deteriorates, wherein performing beam tracking with the UE comprises transmitting to the UE a first reference signal through a first beam of the first plurality of beams (620a-h) and subsequently transmitting to the UE a second reference signal through a second beam of the second plurality of beams (620c-f), wherein the first plurality of beams (620a-h) is different from the second plurality of beams (620c-f); and communicating with the UE through a second active beam based on the beam tracking.