mhurhangee/ep-ind-claims huggingface dataset:
Method for harvesting thigh meat and oyster meat from a poultry thigh comprising a thigh bone with a hip knuckle and a knee knuckle, wherein the poultry thigh is held at the hip knuckle, after which meat present on the thighbone below said knuckle is scraped from the thighbone away from said knuckle, which meat is subsequently separated from the thighbone and collected for further handling, characterized in that the oyster meat is disconnected from the hip knuckle prior to scraping the meat from the thighbone away from the hip knuckle, wherein the oyster meat is disconnected from the hip knuckle whilst maintaining its connection with the thigh meat on the thighbone and scraping the meat from the thighbone is continued until reaching the knee knuckle, wherein the knee knuckle is supported by a liftable table, and wherein subsequent to scraping the meat from the thighbone away from the hip knuckle the thigh meat and the oyster meat are separated from the thighbone by cutting with a rotating circular knife having a central portion in which the thighbone is received, and wherein a cutting edge of the rotating circular knife and the liftable table onto which rests the said knee knuckle approach each other until said knife eventually engages said table.
Method of collecting magnetic resonance data for three-dimensional imaging of an object with a spin density distribution along an object layer having a finite extension in a spatial dimension perpendicular to the object layer, said object being arranged in a static magnetic field, comprising: (a) subjecting said object to at least one spatially non-selective radiofrequency pulse exciting an object space including said object, characterized by the further steps of (b) subjecting said object to magnetic field gradients for creating spatially encoded magnetic resonance signals, including two settings of spatially encoding phase-contrast gradients differently encoding the phase of said magnetic resonance signals in a field of view in the spatial dimension perpendicular to the object layer, (c) acquiring magnetic resonance signals, each with one of said two settings of different spatially encoding phase-contrast gradients, wherein two two-dimensional magnetic resonance images, representing projections of the object onto a projection plane in the object space, are acquired with said different settings of spatially encoding phase-contrast gradients along the spatial dimension being perpendicular to said projection plane, and (d) determining at least one mean spin density position of said object along said spatial dimension by calculating the phase difference between said two two-dimensional magnetic resonance images and reconstructing a three-dimensional image of said object. (a) subjecting said object to at least one spatially non-selective radiofrequency pulse exciting an object space including said object, characterized by the further steps of (b) subjecting said object to magnetic field gradients for creating spatially encoded magnetic resonance signals, including two settings of spatially encoding phase-contrast gradients differently encoding the phase of said magnetic resonance signals in a field of view in the spatial dimension perpendicular to the object layer, (c) acquiring magnetic resonance signals, each with one of said two settings of different spatially encoding phase-contrast gradients, wherein two two-dimensional magnetic resonance images, representing projections of the object onto a projection plane in the object space, are acquired with said different settings of spatially encoding phase-contrast gradients along the spatial dimension being perpendicular to said projection plane, and (d) determining at least one mean spin density position of said object along said spatial dimension by calculating the phase difference between said two two-dimensional magnetic resonance images and reconstructing a three-dimensional image of said object.
Adjustment mechanism for a timepiece display mechanism including at least a first input wheel arranged to drive, directly or indirectly, a first control wheel for controlling the position of a first display member included in said display mechanism, said adjustment mechanism including a differential gear train mechanism which includes a drive mobile component retained by a display jumper and is arranged to be pivoted by said first input wheel, and arranged to drive at least one planetary wheel meshing with said first control wheel and mounted pivotally and off-centre with respect to a planetary wheel holder characterised in that said planetary wheel holder is friction-mounted, either inside a cavity of a frame of said adjustment mechanism, or by internal friction on a shoulder of said frame, said differential gear train mechanism being arranged to multiply by a particular factor the rotation between one of the inputs and the output of said differential mechanism when the other input is stationary, and in that said planetary wheel holder includes manipulating means arranged to allow a watch technician to release said friction to change the angular position of said planetary wheel, which determines the position of said first control wheel for the correct indexing thereof with respect to at least one other display member included in said display mechanism.
A method for making an article, comprising: inputting a digital model of the article into an additive manufacturing apparatus or system comprising an energy source; and repeatedly applying energy from the energy source to successively applied incremental quantities of a powder to fuse the powder to form the article corresponding to the digital model, wherein the powder comprises an aluminum alloy comprising 2.00-9.00 wt.% cerium, 0.25-3.00 wt.% silicon, 0.25-0.75 wt.% magnesium, iron in an amount up to 0.30 wt. %, 0-0.05 wt.% other alloying elements, and the balance of aluminum, based on the total weight of the aluminum alloy. inputting a digital model of the article into an additive manufacturing apparatus or system comprising an energy source; and repeatedly applying energy from the energy source to successively applied incremental quantities of a powder to fuse the powder to form the article corresponding to the digital model, wherein the powder comprises an aluminum alloy comprising 2.00-9.00 wt.% cerium, 0.25-3.00 wt.% silicon, 0.25-0.75 wt.% magnesium, iron in an amount up to 0.30 wt. %, 0-0.05 wt.% other alloying elements, and the balance of aluminum, based on the total weight of the aluminum alloy.
An apparatus comprising: a first antenna configured to transmit or receive signals in both a first high frequency band and a first low frequency band; a second antenna configured to transmit or receive signals in both a second high frequency band and a second low frequency band; a third antenna configured to receive signals in both the first and second high frequency bands or both the first and second low frequency bands; and a multiband filter configured to filter the signals received by the third antenna, wherein at least one of (i) the first high frequency band and the second high frequency band or (ii) the first low frequency band and the second low frequency band are different frequency bands for carrier aggregation. a first antenna configured to transmit or receive signals in both a first high frequency band and a first low frequency band; a second antenna configured to transmit or receive signals in both a second high frequency band and a second low frequency band; a third antenna configured to receive signals in both the first and second high frequency bands or both the first and second low frequency bands; and a multiband filter configured to filter the signals received by the third antenna, wherein at least one of (i) the first high frequency band and the second high frequency band or (ii) the first low frequency band and the second low frequency band are different frequency bands for carrier aggregation.
A blade outer air seal assembly for a gas turbine engine comprising: a carrier defining an annular cavity; and a continuous, annular seal body formed of ceramic matrix composite material housed within the annular cavity, wherein: the seal body has an outer diameter surface; and the assembly further comprises a first spring assembly operative to engage the carrier and the outer diameter surface of the seal body at multiple circumferential locations about the seal body such that the seal body may be urged into alignment about a longitudinal axis of the gas turbine engine, and characterised in that the assembly further comprises a dog-bone operative to engage a forward wall of the carrier and a forward side of the seal body to urge the seal body axially toward an aft position. a carrier defining an annular cavity; and a continuous, annular seal body formed of ceramic matrix composite material housed within the annular cavity, wherein: the seal body has an outer diameter surface; and the assembly further comprises a first spring assembly operative to engage the carrier and the outer diameter surface of the seal body at multiple circumferential locations about the seal body such that the seal body may be urged into alignment about a longitudinal axis of the gas turbine engine, the seal body has an outer diameter surface; and the assembly further comprises a first spring assembly operative to engage the carrier and the outer diameter surface of the seal body at multiple circumferential locations about the seal body such that the seal body may be urged into alignment about a longitudinal axis of the gas turbine engine, and characterised in that the assembly further comprises a dog-bone operative to engage a forward wall of the carrier and a forward side of the seal body to urge the seal body axially toward an aft position.
A method of fabricating a thin film battery, comprising: in situ patterned depositing of a patterned cathode current collector using a shadow mask and in situ patterned depositing of a patterned anode current collector using a shadow mask and in situ patterned depositing of a patterned cathode using a shadow mask; blanket depositing of an electrolyte layer over said patterned cathode current collector and said patterned anode current collector and said patterned cathode; laser patterning of said electrolyte layer to reveal a portion of said patterned cathode current collector and a patterned anode current collector; and in situ patterned depositing of a patterned anode using a shadow mask and in situ patterned depositing of a patterned encapsulation layer using a shadow mask. in situ patterned depositing of a patterned cathode current collector using a shadow mask and in situ patterned depositing of a patterned anode current collector using a shadow mask and in situ patterned depositing of a patterned cathode using a shadow mask; blanket depositing of an electrolyte layer over said patterned cathode current collector and said patterned anode current collector and said patterned cathode; laser patterning of said electrolyte layer to reveal a portion of said patterned cathode current collector and a patterned anode current collector; and in situ patterned depositing of a patterned anode using a shadow mask and in situ patterned depositing of a patterned encapsulation layer using a shadow mask.
A cathode active material for a secondary battery, wherein the cathode active material is represented by Chemical Formula 1 below: [Chemical Formula 1] Li 1+a Ni 1-(x+y+z) Co x Al y Mn z M1 b O 2 where 0<x≤0.1, 0<y≤0.02, 0<z≤0.0006, 0≤a≤0.1, 0≤b≤0.1 and M1 is one or more elements selected from the group consisting of Al, Ni, Mn, Cr, Fe, Mg, Sr, V, Zn, W, Zr, B, Ba, Sc, Cu, Ti, Co, a rare earth element, and combinations thereof, characterized in that the cathode active material comprises: a secondary particle formed as a plurality of primary particles cohere and including a manganese oxide on a surface portion of each of the primary particles.
Modelling arrangement for determining of model data for modelling the process of the extraction of mountains by a real cutting roller at a drilling head of a tunnel drilling machine, wherein the modelling arrangement comprises: a model cutting arrangement for performing cutting tests by a model cutting roller comprising a reduced dimension compared to the real cutting roller, at a rock specimen which is particularly gained from the mountain, wherein the model cutting arrangement comprises: a particularly hydraulic press comprising a mounting platform and a force measuring head, which are movable relatively to each other; the model cutting roller which is formed for cutting the rock specimen; wherein the force measuring head is formed for mounting the model cutting roller, and is further formed in such a way that during cutting the rock specimen by the mounted model cutting roller, a parameter which is indicative for the cutting force, is determinable, characterized in that the mounting platform with a receiving volume for immobilized receiving of the rock specimen is formed in such a way that, in the received in the receiving volume state of the rock specimen, the rock specimen is custom-fitted with contact in the receiving volume of the mounting platform substantially along its entire vertical extension, and in that the modelling arrangement comprises a processor which is formed to determine the model data based on parameters being captured by the modelling arrangement, being indicative for the cutting force, as well as based on geometrical characteristics of the model cutting roller and the real cutting roller. a model cutting arrangement for performing cutting tests by a model cutting roller comprising a reduced dimension compared to the real cutting roller, at a rock specimen which is particularly gained from the mountain, wherein the model cutting arrangement comprises: a particularly hydraulic press comprising a mounting platform and a force measuring head, which are movable relatively to each other; the model cutting roller which is formed for cutting the rock specimen; a particularly hydraulic press comprising a mounting platform and a force measuring head, which are movable relatively to each other; the model cutting roller which is formed for cutting the rock specimen;
A mobile network managing apparatus for controlling and moving with the mobile network, comprising: an access request reception means for receiving an access request to a home network of the mobile network managing apparatus from a communication terminal connected to the mobile network; determination means for determining whether the communication terminal having sent the access request received by the access request reception means is allowed to perform direct access into the home network or not; the mobile network managing apparatus characterized by further comprising information adding means for adding, to the access request, index information indicating whether the communication terminal having sent the access request is allowed to perform direct access into the home network or not; and home network communication means for forwarding the access request having the index information added thereto by the information adding means to a mobile information managing apparatus present in the home network. an access request reception means for receiving an access request to a home network of the mobile network managing apparatus from a communication terminal connected to the mobile network; determination means for determining whether the communication terminal having sent the access request received by the access request reception means is allowed to perform direct access into the home network or not; the mobile network managing apparatus characterized by further comprising information adding means for adding, to the access request, index information indicating whether the communication terminal having sent the access request is allowed to perform direct access into the home network or not; and home network communication means for forwarding the access request having the index information added thereto by the information adding means to a mobile information managing apparatus present in the home network.
Method for steam generation using condensate recycled in the form of feed water, - in which the feed water is vaporized in a steam generator while forming process steam, - in which the process steam is at least partially condensed in a consumer device while releasing heat and forming a condensate, - in which the condensate is at least partially fed to a feed water treatment for treatment, - in which the feed water treated in the feed water treatment is separated into a vapor phase and a liquid phase in a flash tank - in which the liquid phase of the feed water is fed to the steam generator and is vaporized in the steam generator while forming process steam, and - in which the vapor phase of the feed water is fed to a compressor for compression and formation of a process steam. - in which the feed water is vaporized in a steam generator while forming process steam, - in which the process steam is at least partially condensed in a consumer device while releasing heat and forming a condensate, - in which the condensate is at least partially fed to a feed water treatment for treatment, - in which the feed water treated in the feed water treatment is separated into a vapor phase and a liquid phase in a flash tank - in which the liquid phase of the feed water is fed to the steam generator and is vaporized in the steam generator while forming process steam, and - in which the vapor phase of the feed water is fed to a compressor for compression and formation of a process steam.
An ignitor assembly for an internal combustion engine fuel/air ignition system, comprising an upper inductor subassembly having a tubular housing extending between an upper end and a lower end with inductor windings received in said housing between said upper and lower ends and having an upper electrical connector adjacent said upper end of said housing and a lower electrical connector adjacent said lower end of said housing, said upper electrical connector being configured in electrical communication with said lower electrical connector via said inductor windings, the lower electrical connector being axially biased relative to the tubular housing by a spring member, a lower firing end subassembly having a ceramic insulator and a metal housing surrounding at least a portion of said ceramic insulator, said ceramic insulator extending between a terminal end and a firing end with an electrical terminal extending from said terminal end of the insulator in electrical contact with said lower electrical connector and an electrode extending from said firing end, said electrode being configured in electrical communication with said electrical terminal, and a non-metal tube connecting the lower end of said upper inductor subassembly housing to the terminal end of the ceramic insulator of the lower firing end subassembly, said non-metal tube maintaining said electrical terminal in electrical contact with said lower electrical connector, and having an intermediate region extending between said tubular housing of said upper inductor subassembly and said ceramic insulator, said intermediate region being circumferentially unconstrained to allow relative pivotal movement between said electrical terminal and said lower electrical connector.
A graphene-coated anti-corrosion steel sheet comprising: a steel sheet including carbon; and a graphene layer formed on the steel sheet, wherein a graphene domain of the graphene layer has an average diameter of 300 to 1000 Å, wherein the graphene-coated steel sheet satisfies the following Expression 1: X ≤ 0.8 eV wherein X represents a full width at half maximum (FWHM) of graphene included in the steel sheet on the 1S core level spectra of carbon as measured using a high-resolution photoelectron spectrometer (HRPES). a steel sheet including carbon; and a graphene layer formed on the steel sheet, wherein a graphene domain of the graphene layer has an average diameter of 300 to 1000 Å, wherein the graphene-coated steel sheet satisfies the following Expression 1: X ≤ 0.8 eV wherein X represents a full width at half maximum (FWHM) of graphene included in the steel sheet on the 1S core level spectra of carbon as measured using a high-resolution photoelectron spectrometer (HRPES).
A bacterial artificial chromosome for use as a vaccine, wherein the BAC comprises: - an inducible bacterial ori sequence for amplification of said BAC to more than 10 copies per bacterial cell, and - a viral expression cassette comprising a cDNA of an attenuated RNA virus genome and comprising cis-regulatory elements for transcription of said viral cDNA in mammalian cells and for processing of the transcribed RNA into infectious RNA virus. - an inducible bacterial ori sequence for amplification of said BAC to more than 10 copies per bacterial cell, and - a viral expression cassette comprising a cDNA of an attenuated RNA virus genome and comprising cis-regulatory elements for transcription of said viral cDNA in mammalian cells and for processing of the transcribed RNA into infectious RNA virus.
Cardioverter comprising an integrated stimulator for therapy of the heart, wherein the cardioverter with the stimulator is divided into two parts (1, 2), and that the cardioverter, by being divided into two parts (1, 2), has two outputs, wherein each part respectively has one of said outputs, wherein two bipolar electrode lines and, of which in each case two electrodes can be attached to the two atria, are each connected to said outputs of the cardioverter, and wherein the two outputs are constructed separately in an isolated manner, so that the output signals cannot influence one another in any way, and wherein the cardioverter has two setting devices and for setting the energy to be emitted by each output, and wherein the cardioverter has two setting devices and for setting the stimulation amplitude, stimulation frequency and stimulation sensitivity, and wherein the converter has two switching devices and for activating the stimulator integrated in the cardioverter, and wherein said parts of the cardioverter can emit two biphasic energy pulses synchronously and simultaneously or with a delay which can be set by a setting device.
A vehicle battery pack support device for suspending a battery pack at a side rail constituting a ladder frame of a vehicle, the device comprising: a frame-side bracket spaced apart to an outer side face of the rail, and secured, by bolts, to the outer side face of the side rail at a plurality of bolt fastening parts thereof arrayed in a grid arrangement; and a spacer interposed between the outer side face of the side rail and the frame-side bracket, characterized in that the vehicle battery pack support device further comprises an elastic coupling part elastically coupling the battery pack and the frame-side bracket; and the spacer including a plurality of columnar members corresponding to the plurality of bolt fastening parts, a connecting part connecting the plurality of columnar members, and lower extensions, the lower extensions extending downward further than the bottom surface of the side rails in the vehicle height direction. a frame-side bracket spaced apart to an outer side face of the rail, and secured, by bolts, to the outer side face of the side rail at a plurality of bolt fastening parts thereof arrayed in a grid arrangement; and a spacer interposed between the outer side face of the side rail and the frame-side bracket, characterized in that the vehicle battery pack support device further comprises an elastic coupling part elastically coupling the battery pack and the frame-side bracket; and the spacer including a plurality of columnar members corresponding to the plurality of bolt fastening parts, a connecting part connecting the plurality of columnar members, and lower extensions, the lower extensions extending downward further than the bottom surface of the side rails in the vehicle height direction.