mhurhangee/ep-ind-claims huggingface dataset:
Device for separating at least one leg part from a carcass part of slaughtered poultry, which carcass part comprises leg parts that comprise at least a part of the thigh, the carcass part further comprising a saddle that is connected to each of the thighs via the hips, each leg part comprising a free end on the side opposite to the side where it is connected to the saddle, wherein the device comprises: - a main conveyor, which main conveyor comprises a plurality of carriers, each carrier being adapted to engage a carcass parts by or in the vicinity of the free ends of the leg parts in such a way that the carcass part is suspended from the carrier with the free ends of the leg parts pointing upward, the main conveyor being provided with a drive for moving the carriers along a path, - a hip dislocator assembly, which is adapted to dislocate the hip joints in such a way that after said dislocation, a tissue connection remains between each leg part and the saddle, and adapted to disengage the leg parts from the carrier of the main conveyor such that the free ends of the leg parts come to point downward, - a saddle support guide, which is adapted for supporting the saddle of the carcass part after the carcass part has become disengaged from the carrier of the main conveyor, - a leg separator comprising two leg grippers, each leg gripper comprising a leg gripping slot that is adapted for engaging a leg part, characterized in that the leg grippers are adapted to induce a downward pulling movement of the leg parts relative to the saddle, thereby tearing loose the tissue connection between each leg part and the saddle such that the leg parts are separated from the saddle, the leg separator being arranged relative to the saddle support guide such that the saddle support guide supports the saddle during the gripping and pulling of the leg parts. - a main conveyor, which main conveyor comprises a plurality of carriers, each carrier being adapted to engage a carcass parts by or in the vicinity of the free ends of the leg parts in such a way that the carcass part is suspended from the carrier with the free ends of the leg parts pointing upward, - a hip dislocator assembly, which is adapted to dislocate the hip joints in such a way that after said dislocation, a tissue connection remains between each leg part and the saddle, and adapted to disengage the leg parts from the carrier of the main conveyor such that the free ends of the leg parts come to point downward, - a saddle support guide, which is adapted for supporting the saddle of the carcass part after the carcass part has become disengaged from the carrier of the main conveyor, - a leg separator comprising two leg grippers, each leg gripper comprising a leg gripping slot that is adapted for engaging a leg part,
A method for continuously manufacturing nanostructures aligned on a travelling support, the nanostructures being of the nanowire or nanotube type, comprising conveying the support through a heated space and synthesising, in this space, the nanostructures aligned on the support by catalytic chemical vapour deposition, the method being characterised in that, the heated space being divided into n consecutive zones in the conveying direction of the support, n being an integer greater than or equal to 2, the synthesis of the nanostructures results from operations of heating and operations of injecting, into each of the n zones, a stream of an aerosol containing a catalytic precursor and a source precursor of the material of the nanostructures to be formed, carried by a carrier gas and in that the injection operations are carried out by modifying, in at least two of the n zones, at least one parameter selected from the flow rate of the carrier gas stream, the chemical composition of the carrier gas, the mass concentration of the catalytic precursor in the mixture of the catalytic precursor and the source precursor.
A tool for placing and removing rods on snow-covered slopes, comprising a vertical element (1, 11) having a C or L shaped cross section which can be mounted laterally at the rod, and horizontally projecting handles provided at the upper part of said vertical element while follower projections are provided at the lower part which can engage at the upper end of the spike attached to the rod, characterized in that a drill bit or the rod, respectively, can be retained inside the vertical element by at least one clip, and in that the rod can be retained through tongues on the sides projecting from the pivoting handles.
An affinity tag system for immobilizing a molecule, said system comprising: (i) an affinity matrix comprising a first EF-hand subdomain or fragment thereof attached to a substrate; and (ii) a molecule tagged with a second EF-hand subdomain or fragment thereof, wherein the molecule is immobilized at the substrate via the interaction between the first and second EF-hand subdomains or fragments thereof, and wherein a fragment of a first or second EF-hand subdomain retains the ability of the full-length EF-hand subdomain to form an EF-hand binding pair. (i) an affinity matrix comprising a first EF-hand subdomain or fragment thereof attached to a substrate; and (ii) a molecule tagged with a second EF-hand subdomain or fragment thereof,
A modified layered filler comprising at least one layered filler and at least one modifying agent comprising an end-functionalized polyisobutylene amine wherein the modifying agent comprises at least one polymer chain E which comprises isobutylene derived units and which comprises a carbon chain length of from C 40 to C 400 and an ammonium-functionalized group.
A method for integrating a DNA fragment of a desired base sequence into a site located adjacent to a binding region of a DNA-binding protein bound to a DNA molecule of a paraformaldehyde or formaldehyde-immobilized cell, the method comprising: a step of bringing the DNA fragment having a base sequence including a transposase-binding sequence and the desired base sequence close to the binding region using a specific binding substance to the DNA-binding protein in situ; a step of binding a transposase to the transposase-binding sequence; and a step of activating the transposase such that the DNA fragment of the desired base sequence is integrated into the site located adjacent to the binding region, wherein the activation of the transposase is carried out as follows: in case the transposase is required to form a dimer to be activated, transposase and DNA fragment having a transposase-binding sequence are added to a buffer of the transposase, in case the transposase requires a divalent metal ion to be activated, a divalent metal ion is added to the buffer of the transposase, in case the transposase is required to form a dimer and also requires a divalent metal ion to be activated, transposase, DNA fragment having a transposase-binding sequence, and a divalent metal ion are added to the buffer of the transposase. a step of bringing the DNA fragment having a base sequence including a transposase-binding sequence and the desired base sequence close to the binding region using a specific binding substance to the DNA-binding protein in situ; a step of binding a transposase to the transposase-binding sequence; and a step of activating the transposase such that the DNA fragment of the desired base sequence is integrated into the site located adjacent to the binding region, wherein the activation of the transposase is carried out as follows: in case the transposase is required to form a dimer to be activated, transposase and DNA fragment having a transposase-binding sequence are added to a buffer of the transposase, in case the transposase requires a divalent metal ion to be activated, a divalent metal ion is added to the buffer of the transposase, in case the transposase is required to form a dimer and also requires a divalent metal ion to be activated, transposase, DNA fragment having a transposase-binding sequence, and a divalent metal ion are added to the buffer of the transposase. in case the transposase is required to form a dimer to be activated, transposase and DNA fragment having a transposase-binding sequence are added to a buffer of the transposase, in case the transposase requires a divalent metal ion to be activated, a divalent metal ion is added to the buffer of the transposase, in case the transposase is required to form a dimer and also requires a divalent metal ion to be activated, transposase, DNA fragment having a transposase-binding sequence, and a divalent metal ion are added to the buffer of the transposase.
Storage rack for accommodating cuboid-shaped piece goods, such as for example loaded standard pallets or standard containers, with front and rear vertical support elements (1, 4), storage lanes extending over the rack depth and which are provided with at least two horizontal profiled supporting elements which are arranged parallel to one another for forming the supports for the piece goods, stop elements at the ends of the storage lanes facing way from the placement-into-storage and removal-from-storage ends, wherein the stop elements are located at a level above the level of the supports, wherein the stop elements are fastened on the rear support elements and/or on the profiled supporting elements by way of connecting elements, characterized in that the connecting elements are designed to be deformable in a yielding manner in the longitudinal direction of the storage lanes.
A method for thermal conditioning by heating or cooling of a battery pack, wherein said battery pack comprises a plurality of battery cells (4a, 4b, 4c,...) and forms part of an electric storage system, said method comprising: - executing a ready-to-run function for optimizing the performance of said battery pack during use, said ready-to-run function being executed when said battery pack is electrically connected to an external power supply which is configured for charging said battery pack; said method being characterized by the steps of: - executing the ready-to-run function by calculating a setpoint temperature (T s) for the battery pack to reach in order to provide a sufficient level of performance without further thermal conditioning during a predetermined time period (t) after said charging is terminated; wherein said setpoint temperature (Ts) is selected depending on at least an ambient temperature and said predetermined time period (t) is selected depending on any one of a time needed for carrying out maintenance of the battery pack and a time needed for calibrating a parameter indicating the condition of the battery pack; - thermally conditioning said battery pack so as to reach said setpoint temperature (T s); - entering a sleep mode when the battery pack has reached said setpoint temperature (T s); and - terminating said charging when said sleep mode is entered. - executing a ready-to-run function for optimizing the performance of said battery pack during use, said ready-to-run function being executed when said battery pack is electrically connected to an external power supply which is configured for charging said battery pack; - executing the ready-to-run function by calculating a setpoint temperature (T s) for the battery pack to reach in order to provide a sufficient level of performance without further thermal conditioning during a predetermined time period (t) after said charging is terminated; wherein said setpoint temperature (Ts) is selected depending on at least an ambient temperature and said predetermined time period (t) is selected depending on any one of a time needed for carrying out maintenance of the battery pack and a time needed for calibrating a parameter indicating the condition of the battery pack; - thermally conditioning said battery pack so as to reach said setpoint temperature (T s); - entering a sleep mode when the battery pack has reached said setpoint temperature (T s); and - terminating said charging when said sleep mode is entered.
A multilayer filter medium for a filter, comprising: a wet-laid nonwoven fabric layer including a nanofiber A having a single-fiber diameter within a range of 200 to 800 nm and a fiber length within a range of 0.4 to 0.7 mm, a fiber B having a greater single-fiber diameter than the nanofiber A, and a binder fiber C, the weight ratio (A + B):C being within a range of 40:60 to 70:30; and a wet-laid nonwoven fabric layer including a nanofiber A having a single-fiber diameter within a range of 200 to 800 nm and a fiber length within a range of 0.4 to 0.7 mm, a fiber B having a greater single-fiber diameter than the nanofiber A, and a binder fiber C, the weight ratio (A + B): C being within a range of 40:60 to 70:30, the weight proportion of the nanofiber A being greater than in the wet-laid nonwoven fabric layer, wherein the proportion of the JIS Class-8 dust holding capacity of the wet-laid nonwoven fabric layer is within a range of 60 to 97%, and the proportion of the JIS Class-8 dust holding capacity of the wet-laid nonwoven fabric layer is within a range of 3 to 40%. a wet-laid nonwoven fabric layer including a nanofiber A having a single-fiber diameter within a range of 200 to 800 nm and a fiber length within a range of 0.4 to 0.7 mm, a fiber B having a greater single-fiber diameter than the nanofiber A, and a binder fiber C, the weight ratio (A + B):C being within a range of 40:60 to 70:30; and a wet-laid nonwoven fabric layer including a nanofiber A having a single-fiber diameter within a range of 200 to 800 nm and a fiber length within a range of 0.4 to 0.7 mm, a fiber B having a greater single-fiber diameter than the nanofiber A, and a binder fiber C, the weight ratio (A + B): C being within a range of 40:60 to 70:30, the weight proportion of the nanofiber A being greater than in the wet-laid nonwoven fabric layer, wherein the proportion of the JIS Class-8 dust holding capacity of the wet-laid nonwoven fabric layer is within a range of 60 to 97%, and the proportion of the JIS Class-8 dust holding capacity of the wet-laid nonwoven fabric layer is within a range of 3 to 40%.
A tile cutting machine comprising: a tub for receiving water therein; and a tile supporting surface located in the tub for supporting a tile to be cut, wherein the tile supporting surface has a first area where a bottom surface of a tile placed thereon would be at a first height, characterized in that the tile supporting surface has a second area where a bottom surface of a tile placed thereon would be at a second height, wherein the first height and the second height are not co-planar, and wherein the tile supporting surface includes a plurality of upwardly extending nubs, and wherein the nubs in the first area have a height dimension that is different than a height dimension of the nubs in the second area. a tub for receiving water therein; and a tile supporting surface located in the tub for supporting a tile to be cut, wherein the tile supporting surface has a first area where a bottom surface of a tile placed thereon would be at a first height, characterized in that the tile supporting surface has a second area where a bottom surface of a tile placed thereon would be at a second height, wherein the first height and the second height are not co-planar, and wherein the tile supporting surface includes a plurality of upwardly extending nubs, and wherein the nubs in the first area have a height dimension that is different than a height dimension of the nubs in the second area.
Method of detecting clogging of the dialyzer in an extracorporeal blood cleaning device, whereby the pressure is measured at at least one pressure sensor on the blood side and the UV absorbance of at least one urinary excreted substance in the outflowing dialysate is measured and, from a predefined number (n) of measured pressure measurement values (P x) where x denotes the number of pressure measurements, a best fit line is calculated as a baseline, and a tolerance range around the baseline and a tolerance range for the measured UV absorbance values is calculated and, from a predefined number (m) of measured UV absorbance values (A y) a future UV absorbance value (A y+1(calculated)) is calculated by extrapolation, y denoting the number of UV measurements, and it is ascertained whether the measured pressure measurement value (P (measured)) lies within the calculated tolerance range around the baseline and whether the measured UV absorbance value (A y+1(measured)) lies within the calculated tolerance range for the calculated UV absorbance (A y+1(calculated)), and clogging is detected if the measured pressure measurement value (P (measured)) lies outside the calculated tolerance range around the baseline and the measured UV absorbance (A y+1(measured)) lies outside the calculate tolerance range for the calculated UV absorbance (A y+1(calculated)).
An electrolytic capacitor comprising a capacitor element comprising an anode foil having a dielectric film on its surface, a cathode foil and a separator interposed between said anode foil and said cathode foil, an electrolytic solution with which said capacitor element is impregnated, and a conductive polymer provided on a surface of said separator, characterized in that said conductive polymer contains a p-type dopant agent, said electrolytic solution comprises an acid component including at least one organic carboxylic acid, a base component and a solvent, and a molar quantity of an organic carboxylic acid component contained in said electrolytic solution is in excess of that of said base component contained in said electrolytic solution.
A wind turbine comprising: a tower; a wind rotor, which is arranged at a top portion of the tower and which comprises at least one blade, wherein the at least one blade is arranged in a first blade pitch position; and a seismic event control device, configured to actuate the at least one blade from the first blade pitch position to a second blade pitch position, being different from the first blade pitch position, in order to reduce seismic load acting on the wind turbine; wherein a first blade edge resonant frequency of the first blade pitch position is closer to a dominant seismic event resonant frequency than a second blade edge resonant frequency of the second blade pitch position; and/or wherein the first blade pitch position is a non energy production position, and wherein the second blade pitch position is an energy production position. a tower; a wind rotor, which is arranged at a top portion of the tower and which comprises at least one blade, wherein the at least one blade is arranged in a first blade pitch position; and a seismic event control device, configured to actuate the at least one blade from the first blade pitch position to a second blade pitch position, being different from the first blade pitch position, in order to reduce seismic load acting on the wind turbine; wherein a first blade edge resonant frequency of the first blade pitch position is closer to a dominant seismic event resonant frequency than a second blade edge resonant frequency of the second blade pitch position; and/or
A method at a service communication proxy, SCP, comprising: receiving a first request for creating a service entry, wherein the first request includes at least one parameter to build a context for the service entry; creating the service entry based on the at least one parameter in the first request; applying the service entry to process a service request from a network function, NF, consumer; and sending a first response to the first request to the NF consumer, wherein the first response includes an address of the service entry. receiving a first request for creating a service entry, wherein the first request includes at least one parameter to build a context for the service entry; creating the service entry based on the at least one parameter in the first request; applying the service entry to process a service request from a network function, NF, consumer; and sending a first response to the first request to the NF consumer, wherein the first response includes an address of the service entry.
A method for eliminating noises with multi-microphone array, the method comprising wherein the multi-microphone array consisting of three or more microphones which have equal or different spacings therebetween; according to the number of different spacings between each of pairs of microphones of the multi-microphone array, dividing a full frequency band into the same number of sub-bands; decomposing signals of each of the pairs of microphones with the different spacings into a corresponding one of the sub-bands, wherein the larger the spacing between each pair of microphones is, the lower the frequencies of the sub-band into which the signals of the pair of microphones are decomposed will be; adaptively reducing the noises in the decomposed signals of each of the pairs of microphones with the different spacings in the corresponding sub-band to obtain noise-reduced signals for each of the sub-bands; and synthesizing the noise-reduced signals of each of the sub-bands to obtain a signal in which the noises have been reduced with the multi-microphone array in the full frequency band. wherein the multi-microphone array consisting of three or more microphones which have equal or different spacings therebetween; according to the number of different spacings between each of pairs of microphones of the multi-microphone array, dividing a full frequency band into the same number of sub-bands; decomposing signals of each of the pairs of microphones with the different spacings into a corresponding one of the sub-bands, wherein the larger the spacing between each pair of microphones is, the lower the frequencies of the sub-band into which the signals of the pair of microphones are decomposed will be; adaptively reducing the noises in the decomposed signals of each of the pairs of microphones with the different spacings in the corresponding sub-band to obtain noise-reduced signals for each of the sub-bands; and synthesizing the noise-reduced signals of each of the sub-bands to obtain a signal in which the noises have been reduced with the multi-microphone array in the full frequency band.