mhurhangee/ep-ind-claims huggingface dataset:
A micro puree machine, comprising: a blade assembly having a central support hub, a blade, and an undercut extending at least partially around a circumference of the central support hub; and a lid assembly configured to cooperate with a bowl assembly, the lid assembly including a lid and a clip mechanism, the lid having an aperture that defines an axis; wherein the clip mechanism is movable between a first position and a second position, at least a portion of the clip mechanism cooperating with the undercut at times the clip mechanism is the in the first position and at least a portion of the central support hub is positioned in the aperture; wherein the blade assembly is retained in the lid assembly at times the clip mechanism is in or near the first position, and the blade assembly is disengaged from the undercut and removable from the lid assembly at times the clip mechanism is in or near the second position; characterised in that the clip mechanism is spring biased toward the axis. a blade assembly having a central support hub, a blade, and an undercut extending at least partially around a circumference of the central support hub; and a lid assembly configured to cooperate with a bowl assembly, the lid assembly including a lid and a clip mechanism, the lid having an aperture that defines an axis; wherein the clip mechanism is movable between a first position and a second position, at least a portion of the clip mechanism cooperating with the undercut at times the clip mechanism is the in the first position and at least a portion of the central support hub is positioned in the aperture; wherein the blade assembly is retained in the lid assembly at times the clip mechanism is in or near the first position, and the blade assembly is disengaged from the undercut and removable from the lid assembly at times the clip mechanism is in or near the second position; characterised in that the clip mechanism is spring biased toward the axis.
A mast section for a wind turbine having a longitudinal central axis extending along a longitudinal direction, the mast section comprising at least two tubular mast elements stacked along the longitudinal direction and arranged edge-to-edge at a joining plane, each mast element comprising at least two wall segments, connected to one another by segment connectors extending along the longitudinal edges of the wall segments, the mast section further comprising element connectors each extending astride said two mast elements, in the extension of the segment connectors in the longitudinal direction, the mast section further comprising a plurality of element overconnectors, each element overconnector extending astride a segment connector and an adjacent element connector in the longitudinal direction.
A composition comprising apigenin at 7 to 25 ppm and dibutylhydroxytoluene in the range of 0.001 to 500 ppm, wherein the mass ratio of the content of apigenin relative to the content of dibutyl hydroxytoluene is 1 or greater, or the pH value of the composition is 6.5 or less.
A device for wound care, comprising: a bandage including an absorbent material containing photosynthetic cellular structures; and a light source embedded with the bandage configured to provide a certain intensity and pattern of light to the photosynthetic cellular structures, wherein the light is alternatingly on for a first period, then off for a second period. a bandage including an absorbent material containing photosynthetic cellular structures; and a light source embedded with the bandage configured to provide a certain intensity and pattern of light to the photosynthetic cellular structures, wherein the light is alternatingly on for a first period, then off for a second period.
An electrode comprising: (a) carbon nanoparticles in an amount of 10-75 wt.%; (b) metalloid particles in an amount of between 10 wt.% and 90 wt.%, wherein the metalloid particles comprise boron, silicon, germanium, tellurium, or a combination or alloy thereof, wherein said metalloid particles are in the form of nanoparticles; (c) a surfactant attaching said carbon nanoparticles to said metalloid particles to form an electrode composition, wherein the surfactant comprises one of a sulfate group, a sulfonate group, pyridinium group and an ammonium group; (d) a binder in an amount of 0.5-30 wt.% of the final electrode composition for forming said electrode composition into a film or membrane; wherein said electrode is an anode and has a specific capacity of at least 450 mAh/g of active material when cycled at a 10 h charge and 10 h discharge rate of 0.1C, wherein the active materials are the metalloid particles in combination with carbon nanoparticle materials. (a) carbon nanoparticles in an amount of 10-75 wt.%; (b) metalloid particles in an amount of between 10 wt.% and 90 wt.%, wherein the metalloid particles comprise boron, silicon, germanium, tellurium, or a combination or alloy thereof, wherein said metalloid particles are in the form of nanoparticles; (c) a surfactant attaching said carbon nanoparticles to said metalloid particles to form an electrode composition, wherein the surfactant comprises one of a sulfate group, a sulfonate group, pyridinium group and an ammonium group; (d) a binder in an amount of 0.5-30 wt.% of the final electrode composition for forming said electrode composition into a film or membrane;
A surgical instrument, particularly an electrosurgical instrument, comprising an instrument shaft, two instrument branches that are arranged distally thereon and can be positioned relative to each other in a working position and a rest position, a handle element on which an operating element is movably arranged for positioning the instrument branches, and a coupling mechanism (4, 5, 6, 18, 30, 32, 34) having a translating unit (18, 30, 32, 34) that converts a movement of the operating element non-linearly into a relative movement of at least one of the two instrument branches, wherein the coupling mechanism (4, 5, 6, 18, 30, 32, 34) comprises one prestressing element (18, 34) of a first type that prestresses the mechanism into the rest position and/or into the working position of said instrument branches, wherein the operating element and the at least one prestressing element of a first type are formed and configured with respect to each other such that they form a knee-lever-type translating unit (18, 30, 32, 34) in which the prestressing element is serially inserted in the flux of force of the coupling mechanism (4, 5, 6, 18, 30, 32, 34), wherein the surgical instrument includes, apart from the prestressing element of the first type, at least a second prestressing element of a second type that is preferably arranged in parallel to the flux of force as well as on the side of the translating unit (18, 30, 32, 34) facing away from the operating element in the direction of the flux of force, and in that the coupling mechanism (4, 5, 6, 18, 30, 32, 34) is prestressed into the rest position by the prestressing element of the second type.
Housing (1, 30, 50) for a communication device, wherein the housing integrally incorporates a chassis of a speaker, said housing comprising: a first housing section (2, 31, 51) with a membrane opening (3, 32, 52), wherein the first housing section (2, 31, 51) comprises around the circumference of the membrane opening (3, 32, 52) a first membrane support (5, 33, 53) configured to couple to a sound membrane (40, 58), a magnet carrying support (6, 34, 54), which is integrally formed with the first housing section (2, 31, 51) and is configured to support a magnet in the housing (1, 30, 50) and below the membrane opening (3, 32, 52), a second housing section (44, 62), which is configured to couple to the first housing section (2, 31, 51) and closes the first housing section (2, 31, 51) except for the membrane opening (3, 32, 52), and a circuit compartment (24, 37, 55) configured to accommodate a driving circuit (25, 38, 56), the driving circuit (25, 38, 56) comprising any circuitry needed in the communication device, wherein the sound membrane (40, 58) is integrally molded with the first housing section (2, 31, 51), and wherein the first housing section (2, 31, 51), the second housing section (44, 62) and the circuit compartment (24, 37, 55) together with elements that form the speaker and the driving circuit (25, 38, 56) form the communication device. a first housing section (2, 31, 51) with a membrane opening (3, 32, 52), wherein the first housing section (2, 31, 51) comprises around the circumference of the membrane opening (3, 32, 52) a first membrane support (5, 33, 53) configured to couple to a sound membrane (40, 58), a magnet carrying support (6, 34, 54), which is integrally formed with the first housing section (2, 31, 51) and is configured to support a magnet in the housing (1, 30, 50) and below the membrane opening (3, 32, 52), a second housing section (44, 62), which is configured to couple to the first housing section (2, 31, 51) and closes the first housing section (2, 31, 51) except for the membrane opening (3, 32, 52), and a circuit compartment (24, 37, 55) configured to accommodate a driving circuit (25, 38, 56), the driving circuit (25, 38, 56) comprising any circuitry needed in the communication device, wherein the sound membrane (40, 58) is integrally molded with the first housing section (2, 31, 51), and wherein the first housing section (2, 31, 51), the second housing section (44, 62) and the circuit compartment (24, 37, 55) together with elements that form the speaker and the driving circuit (25, 38, 56) form the communication device.
A negative electrode agent for nonaqueous electrolyte secondary batteries comprising, at least, an active material and a binder, wherein the binder contains a first water-soluble, linear polymer and a second water-soluble, linear polymer, the first water-soluble, linear polymer and a second water-soluble, linear polymer contain carboxyl groups, the first water-soluble polymer is subjected to crosslinking treatment, the first water-soluble polymer is fully neutralized, and the second water-soluble polymer is acidic in nature, characterized in that the first water-soluble polymer is a polycarboxylic acid salt selected from the group consisting of sodium salts, lithium salts, potassium salts, magnesium salts and calcium salts of polyacrylic acid and acrylic acid-maleic acid copolymer.
A carbon nanotube dispersion, comprising: a carbon nanotube; a solvent; and a dispersant, wherein the carbon nanotube satisfies the following,, and: an average outer diameter measured according to the method defined in the description is more than 3 nm and less than 10 nm, a peak appears at a diffraction angle 2θ = 25° ± 2° in powder X-ray diffraction analysis, and a half value width of the peak is 3° to 6°, and a G/D ratio is 0.5 to 4.5, where G represents a maximum peak intensity in a range of 1,560 to 1,600 cm -1, and D represents a maximum peak intensity in a range of 1,310 to 1,350 cm -1 in a Raman spectrum, wherein the X-ray diffraction measurement and Raman spectroscopy are performed by the respective methods defined in the description. a carbon nanotube; a solvent; and a dispersant, wherein the carbon nanotube satisfies the following,, and: an average outer diameter measured according to the method defined in the description is more than 3 nm and less than 10 nm, a peak appears at a diffraction angle 2θ = 25° ± 2° in powder X-ray diffraction analysis, and a half value width of the peak is 3° to 6°, and a G/D ratio is 0.5 to 4.5, where G represents a maximum peak intensity in a range of 1,560 to 1,600 cm -1, and D represents a maximum peak intensity in a range of 1,310 to 1,350 cm -1 in a Raman spectrum, wherein the X-ray diffraction measurement and Raman spectroscopy are performed by the respective methods defined in the description. an average outer diameter measured according to the method defined in the description is more than 3 nm and less than 10 nm, a peak appears at a diffraction angle 2θ = 25° ± 2° in powder X-ray diffraction analysis, and a half value width of the peak is 3° to 6°, and a G/D ratio is 0.5 to 4.5, where G represents a maximum peak intensity in a range of 1,560 to 1,600 cm -1, and D represents a maximum peak intensity in a range of 1,310 to 1,350 cm -1 in a Raman spectrum, wherein the X-ray diffraction measurement and Raman spectroscopy are performed by the respective methods defined in the description.
A method of deskewing media, the method comprising: receiving, at a deskew, a media object; engaging a drive member to position the media object into a first position within the deskew; engaging a deskew member in a first direction to position the media object into a second position within the deskew; and engaging the deskew member in a second direction to position the media object into a third position within the deskew; wherein in the second position an edge of the media object is in contact with a track. receiving, at a deskew, a media object; engaging a drive member to position the media object into a first position within the deskew; engaging a deskew member in a first direction to position the media object into a second position within the deskew; and engaging the deskew member in a second direction to position the media object into a third position within the deskew; wherein in the second position an edge of the media object is in contact with a track.
Device for humidifying a gas mixture for cell incubation, comprising a reservoir for water, an evaporator, a gas inlet for introducing the gas mixture into the evaporator, to which water from the reservoir is supplied, and a heatable measuring chamber having a temperature sensor and a humidity sensor, to which chamber the water-enriched gas mixture is supplied from the evaporator, such that the water-enriched gas mixture, after being further conducted into an incubation chamber, is controlled to a predefined target value with respect to the relative humidity at a predefined temperature by metering the water supply to the evaporator, wherein the temperature in the measuring chamber is higher than the temperature in the incubation chamber.
A method for wireless communications by a user equipment, UE, comprising: receiving one or more transport blocks, TBs, from a plurality of transmission reception points, TRPs, wherein: each of the one or more TBs comprises a plurality of code blocks, CBs; and for one or more of the plurality of CBs, all bits of the CB are received from a same TRP; determining a mapping of the plurality of CBs to the plurality of TRPs and/or layers at the plurality of TRPs; and decoding the one or more TBs based on the determined mapping, wherein determining the mapping comprises receiving an implicit indication of the mapping via at least one of: a number of the layers at the plurality of TRPs or demodulation reference signal, DMRS, port group information for the plurality of TRPs. receiving one or more transport blocks, TBs, from a plurality of transmission reception points, TRPs, wherein: each of the one or more TBs comprises a plurality of code blocks, CBs; and for one or more of the plurality of CBs, all bits of the CB are received from a same TRP; each of the one or more TBs comprises a plurality of code blocks, CBs; and for one or more of the plurality of CBs, all bits of the CB are received from a same TRP; determining a mapping of the plurality of CBs to the plurality of TRPs and/or layers at the plurality of TRPs; and decoding the one or more TBs based on the determined mapping, wherein determining the mapping comprises receiving an implicit indication of the mapping via at least one of: a number of the layers at the plurality of TRPs or demodulation reference signal, DMRS, port group information for the plurality of TRPs.
A method, comprising; registering a first coordinate system of a fluoroscopic imaging system and a second coordinate system of a magnetic position tracking system; displaying on a display a three-dimensional map of an organ of a patient, which is produced by the magnetic position tracking system; calculating, using the registered first and second coordinate systems, a 3D volume that would be irradiated by the fluoroscopic imaging system according to the position of the fluoroscopic imaging system relative to the organ; and marking the calculated 3D volume on the 3D map, characterized in that marking the 3D volume comprises marking objects of the 3D map that fall inside the 3D volume.
An air-cooled metal separator for a fuel cell, comprising: a channel section formed in a middle of a metal plate, the channel section including a reaction gas channel depressed into a front surface of the metal plate to protrude from a rear surface thereof and a cooling air channel defined between the reaction gas channels protruding from the rear surface of the metal plate; and a first gasket continuously formed along a rim of a front surface of the channel section, characterized by a second gasket discontinuously formed along a rim of a rear surface of the channel section to allow a discontinuous portion of the second gasket to provide a flow passage of cooling air. a channel section formed in a middle of a metal plate, the channel section including a reaction gas channel depressed into a front surface of the metal plate to protrude from a rear surface thereof and a cooling air channel defined between the reaction gas channels protruding from the rear surface of the metal plate; and a first gasket continuously formed along a rim of a front surface of the channel section, characterized by a second gasket discontinuously formed along a rim of a rear surface of the channel section to allow a discontinuous portion of the second gasket to provide a flow passage of cooling air.
A computer-implemented facial tracking method, comprising: obtaining facial feature information of a current frame of image in a sequential image and facial tracking information of prior frames of images in the sequential image, the prior frames of images being frames of images located previous to the current frame of image in the sequential image, the facial feature information recording information of facial feature points in the current frame of image, and the facial tracking information being used for recording facial tracking results of the prior frames of images; selecting adjustment frames of images from the prior frames of images based on the facial feature information of the current frame of image and the facial tracking information of the prior frames of images; fitting an adjustment parameter of the current frame of image based on facial tracking information of the adjustment frame of image and the facial feature information of the current frame of image; and determining facial tracking information of the current frame of image based on the adjustment parameter and the facial tracking information of the prior frames of images. obtaining facial feature information of a current frame of image in a sequential image and facial tracking information of prior frames of images in the sequential image, the prior frames of images being frames of images located previous to the current frame of image in the sequential image, the facial feature information recording information of facial feature points in the current frame of image, and the facial tracking information being used for recording facial tracking results of the prior frames of images; selecting adjustment frames of images from the prior frames of images based on the facial feature information of the current frame of image and the facial tracking information of the prior frames of images; fitting an adjustment parameter of the current frame of image based on facial tracking information of the adjustment frame of image and the facial feature information of the current frame of image; and determining facial tracking information of the current frame of image based on the adjustment parameter and the facial tracking information of the prior frames of images.
A solid composition comprising: a solid binding agent comprising methylglycinediacetic acid and water, wherein the methylglycinediacetic acid cooperates with the water in the formation of the binding agent; wherein the water used in creating the binding agent is present in a range of 2 to 25 wt-% of the total composition; and one or more functional ingredient including a chelating agent, a sequestering agent, an inorganic detergent, an alkaline source, an organic detergent, a surfactant, a cleaning agent, a rinse aid, a bleaching agent, a sanitizer, an anti-microbial agent, an activator, a detergent builder, a filler, a defoaming agent, an anti-redeposition agent, an optical brightener, a dye, an odorant, a secondary hardening agent, a solubility modifier, a pesticide, a baits for pests, or mixtures thereof. a solid binding agent comprising methylglycinediacetic acid and water, wherein the methylglycinediacetic acid cooperates with the water in the formation of the binding agent; wherein the water used in creating the binding agent is present in a range of 2 to 25 wt-% of the total composition; and one or more functional ingredient including a chelating agent, a sequestering agent, an inorganic detergent, an alkaline source, an organic detergent, a surfactant, a cleaning agent, a rinse aid, a bleaching agent, a sanitizer, an anti-microbial agent, an activator, a detergent builder, a filler, a defoaming agent, an anti-redeposition agent, an optical brightener, a dye, an odorant, a secondary hardening agent, a solubility modifier, a pesticide, a baits for pests, or mixtures thereof.
A method for monitoring and controlling an industrial process which change condition over time wherein the method comprises the following steps: - add at least one remote sensor to an element which is part of, or affected by, the industrial process; - collect sensor data and transmit the collected sensor data wirelessly or by wire to an intermediate data storage and data processing unit hereinafter named gateway; - transmit processed data from the gateway to a remote data storage by way of a cellular device and, - access the remote data storage from a location and process the transmitted data further to gain knowledge of at least one condition of the industrial process and, - that the cellular device is accessed from the location or from the remote data storage, and that instructions are routed to the gateway and, that - based on the instructions, control signals are produced at the gateway and routed from the gateway to a control device which is connected to the industrial process, and that - the control device based on the control signal serves a condition changing signal at the industrial process. characterised in that sensor data comprising at least one of the following: vibration level, temperature level, battery voltage and a voltage level of an external power source connected to the gateway are also measured by built in sensors (18,19) at the gateway. - add at least one remote sensor to an element which is part of, or affected by, the industrial process; - collect sensor data and transmit the collected sensor data wirelessly or by wire to an intermediate data storage and data processing unit hereinafter named gateway; - transmit processed data from the gateway to a remote data storage by way of a cellular device and, - access the remote data storage from a location and process the transmitted data further to gain knowledge of at least one condition of the industrial process and, - that the cellular device is accessed from the location or from the remote data storage, and that instructions are routed to the gateway and, that - based on the instructions, control signals are produced at the gateway and routed from the gateway to a control device which is connected to the industrial process, and that - the control device based on the control signal serves a condition changing signal at the industrial process.