mhurhangee/ep-ind-claims huggingface dataset:
Refrigeration appliance, in particular a household refrigeration appliance, with a container for chilled goods, said container being arranged in a storage compartment of the refrigerator, and a fan for driving an air flow, wherein a passage for the flow of air into and/or out of the container is formed in a wall of the container and a movable closure element (14; 49) is arranged at the passage between the fan and the container, allowing an air flow driven by the fan to circulate in the container in the open position and guiding the air flow driven by the fan by way of a duct running along an outer face of a wall of the container in the closed position, characterised in that a control unit is set up to control the fan based on the air humidity present in the container.
A system for the controlled release of one or more physiologically or pharmacologically active substances for use in the zootechnical and/or veterinary field comprising compositions in the form of microparticles having a size of between 0.1 and 5000 microns, comprising a core which consists of one or more substances having a pharmacological action or acting as a feed supplement, wherein the active substances are selected from the group consisting of isoleucine, leucine, lysine, methionine, phenylalanine, threonine, tryptophan, valine, alanine, asparagine, aspartic acid, cysteine, glutamic acid, glutamine, glycine, proline, selenocysteine, serine, tyrosine, arginine, histidine, choline, betaine, carnitine, thiamine, pyridoxine, streptomycin, colistin, tiamulin, neomycin, arginine, glucosamine, niacinamide and their salts, particularly choline chloride, betaine hydrochloride, lysine hydrochloride, thiamine hydrochloride, thiamine mononitrate, pyridoxine hydrochloride, colistin sulfate, and tiamulin fumarate, said one or more substances being characterized,by the presence, within their chemical structure, of a basic functional group, said core further having one or more carboxylic acids and/or salts thereof added on its surface, said one or more carboxylic acids or salts thereof being characterized by the presence of at least one carboxyl group and a lipophilic functional group, wherein said acidic functional group interacts with the basic functional group of the active substance, the core having an outer coating comprising a mixture of glycerides of fatty acids.
An electric hair clipper comprising: a housing for containing an electrical source and drive-related components, said housing including two substantially opposed and substantially parallel sides and a bottom; a clipper mechanism located beneath said bottom of said housing and spaced therefrom; a central hub (18, 118) extending from said bottom of said housing to said clipper mechanism and connecting said clipper mechanism to said housing; said clipper mechanism including a reciprocating clipper defining a line; characterized by: a first pair of elongated recesses (22, 24) formed on said sides of said housing, said first pair of elongated recesses (22, 24) being substantially parallel to each other and lying in a plane that is spaced apart from the line of said clipper, and a second set of elongated spaced apart recesses (26, 28) formed in said bottom of said housing, the recesses of said second set (26, 28) being located on opposite sides of said hub (18, 118) and extending perpendicular to said first pair of recesses (22,24). a housing for containing an electrical source and drive-related components, said housing including two substantially opposed and substantially parallel sides and a bottom; a clipper mechanism located beneath said bottom of said housing and spaced therefrom; a central hub (18, 118) extending from said bottom of said housing to said clipper mechanism and connecting said clipper mechanism to said housing; said clipper mechanism including a reciprocating clipper defining a line; characterized by: a first pair of elongated recesses (22, 24) formed on said sides of said housing, said first pair of elongated recesses (22, 24) being substantially parallel to each other and lying in a plane that is spaced apart from the line of said clipper, and a second set of elongated spaced apart recesses (26, 28) formed in said bottom of said housing, the recesses of said second set (26, 28) being located on opposite sides of said hub (18, 118) and extending perpendicular to said first pair of recesses (22,24). a first pair of elongated recesses (22, 24) formed on said sides of said housing, said first pair of elongated recesses (22, 24) being substantially parallel to each other and lying in a plane that is spaced apart from the line of said clipper, and a second set of elongated spaced apart recesses (26, 28) formed in said bottom of said housing, the recesses of said second set (26, 28) being located on opposite sides of said hub (18, 118) and extending perpendicular to said first pair of recesses (22,24).
Process for producing a three-dimensional tissue by introducing eukaryotic cells into a matrix and cultivating the cells within the matrix in a cell culture medium within a cell culture vessel while determining the dissolved oxygen concentration by measuring the emission from an oxygen-sensitive dye, which oxygen-sensitive dye is a dye phosphorescing upon irradiation of an excitation wavelength, wherein an oxygen-permeable particulate support containing in its inner volume the oxygen-sensitive dye is integrated into the matrix, directing an irradiation onto the matrix, the irradiation having an excitation wavelength suitable for exciting emission from the oxygen-sensitive dye, and by measuring the emission from the support containing the oxygen-sensitive dye, characterized in that the particulate support containing the oxygen-sensitive dye is immobilized in the inner volume of the matrix and in that the irradiation having an excitation wavelength is modulated to at least two different frequencies, and the phase-shift of the emission is determined from the emission for each of the frequencies and that the decay time of the phosphorescence of the oxygen-sensitive dye is determined from the phase shift.
A radio base station comprising: a terminal detection unit configured to detect an uplink signal of a first terminal serviced by another base station; a storage unit configured to store an allocation priority of a radio resource for a predetermined period; and a resource allocation unit configured to allocate a radio resource to a second terminal serviced by the radio base station, using the allocation priority of the radio resource stored in the storage unit, wherein, when the terminal detection unit detects the uplink signal of the first terminal, the resource allocation unit is configured to allocate a radio resource of an uplink of a high allocation priority to the second terminal while lowering an allocation priority of a radio resource estimated to be used next for the uplink by the first terminal. a terminal detection unit configured to detect an uplink signal of a first terminal serviced by another base station; a storage unit configured to store an allocation priority of a radio resource for a predetermined period; and a resource allocation unit configured to allocate a radio resource to a second terminal serviced by the radio base station, using the allocation priority of the radio resource stored in the storage unit, wherein, when the terminal detection unit detects the uplink signal of the first terminal, the resource allocation unit is configured to allocate a radio resource of an uplink of a high allocation priority to the second terminal while lowering an allocation priority of a radio resource estimated to be used next for the uplink by the first terminal.
A laser radar apparatus comprising: a transmission and reception optical system for emitting a pulse into an atmosphere, and receiving reflected light of the pulse that is reflected from an observation object and returned back; a spectrum calculating unit for calculating a spectrum signal in range bins from the reflected light received by the transmission and reception optical system; a wind velocity calculating unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is equal to or greater than a first threshold, calculating a wind velocity in the range bin which is a velocity of the observation object from the spectrum signal; a wind velocity model selecting unit for selecting a wind velocity model corresponding to wind velocities in the range bins that are calculated by the wind velocity calculating unit from a plurality of wind velocity models each showing a relationship between range bins and wind velocities in the atmosphere; and a wind velocity searching unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is less than the first threshold, determining a search center of a search scope for a Doppler frequency corresponding to a wind velocity in the range bin by using the wind velocity model selected by the wind velocity model selecting unit, and searching for a wind velocity in the range bin from the spectrum signal within the search scope whose search center is determined. a transmission and reception optical system for emitting a pulse into an atmosphere, and receiving reflected light of the pulse that is reflected from an observation object and returned back; a spectrum calculating unit for calculating a spectrum signal in range bins from the reflected light received by the transmission and reception optical system; a wind velocity calculating unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is equal to or greater than a first threshold, calculating a wind velocity in the range bin which is a velocity of the observation object from the spectrum signal; a wind velocity model selecting unit for selecting a wind velocity model corresponding to wind velocities in the range bins that are calculated by the wind velocity calculating unit from a plurality of wind velocity models each showing a relationship between range bins and wind velocities in the atmosphere; and a wind velocity searching unit for, when a signal strength in a range bin for which a spectrum signal that is calculated by the spectrum calculating unit is less than the first threshold, determining a search center of a search scope for a Doppler frequency corresponding to a wind velocity in the range bin by using the wind velocity model selected by the wind velocity model selecting unit, and searching for a wind velocity in the range bin from the spectrum signal within the search scope whose search center is determined.
A customizable bicycle saddle comprising: padding; a support shell (162, 284) located underneath the padding and configured to support a rider's body, the support shell including at least one internal thermal element (166, 296) that is capable of heating; and characterised in that the at least one internal thermal element is capable of heating the support shell to mold the support shell to a rider's anatomy while the rider is supported by the customizable bicycle saddle, wherein the support shell includes a frame member and a thermoplastic body in thermal contact with the at least one internal thermal element, wherein the thermoplastic body is positioned to support the rider's sit bones; and further wherein the at least one internal thermal element is embedded within the customizable bicycle saddle, or wherein the at least one internal thermal element is configured to be temporarily attached to the saddle, and wherein the at least one internal thermal element being configured to heat one or more thermoformable portions (150, 152, 164) of the support shell subjected to relatively high applied pressures to a predetermined temperature, wherein the predetermined temperature is a softening temperature, a glass transition temperature, or a melt temperature of the thermoformable portions. padding; a support shell (162, 284) located underneath the padding and configured to support a rider's body, the support shell including at least one internal thermal element (166, 296) that is capable of heating; and characterised in that the at least one internal thermal element is capable of heating the support shell to mold the support shell to a rider's anatomy while the rider is supported by the customizable bicycle saddle, wherein the support shell includes a frame member and a thermoplastic body in thermal contact with the at least one internal thermal element, wherein the thermoplastic body is positioned to support the rider's sit bones; and further wherein the at least one internal thermal element is embedded within the customizable bicycle saddle, or wherein the at least one internal thermal element is configured to be temporarily attached to the saddle, and wherein the at least one internal thermal element being configured to heat one or more thermoformable portions (150, 152, 164) of the support shell subjected to relatively high applied pressures to a predetermined temperature, wherein the predetermined temperature is a softening temperature, a glass transition temperature, or a melt temperature of the thermoformable portions.
A composition comprising an Fc variant of a human IgG Fc polypeptide, where said Fc variant comprises 428L and 434S, wherein said Fc variant exhibits increased binding to FcRn as compared to said human IgG Fc polypeptide, and wherein numbering is according to the EU index of Kabat.
A method of using microbial activity monitored by ATP measurement, bioreporter measurement, biomarker measurement and/or oxygen depletion measurement to give on-demand control of filtration systems, the method comprising: (a) providing a filtration system in communication with a controller controlling biocide addition, wherein when the microbial activity is increasing biocide addition increases as well and when the microbial activity goes down as a result of biocide treatment biocide output will be reduced, wherein the controller is operable to automatically adjust the flow rate of water passing through the filtration system; (b) monitoring the microbial activity by measuring ATP, bioreporter, biomarker and/or oxygen depletion; and (c) adjusting the filtration system by increasing the flow of water to be filtered to lower biocide consumption and lowering the volume of water passing through the filter when the microbial activity goes down as a result of biocide treatment. (a) providing a filtration system in communication with a controller controlling biocide addition, wherein when the microbial activity is increasing biocide addition increases as well and when the microbial activity goes down as a result of biocide treatment biocide output will be reduced, wherein the controller is operable to automatically adjust the flow rate of water passing through the filtration system; (b) monitoring the microbial activity by measuring ATP, bioreporter, biomarker and/or oxygen depletion; and (c) adjusting the filtration system by increasing the flow of water to be filtered to lower biocide consumption and lowering the volume of water passing through the filter when the microbial activity goes down as a result of biocide treatment.
A printing apparatus comprising: a printhead configured to discharge ink; a carriage, on which the printhead is mounted, configured to move in a first direction such that the printhead moves across a printing region where a printing operation by the printhead is performed and a standby region adjacent to the printing region; a cap arranged in the standby region and configured to suck the ink from the printhead; and a wiper configured to perform wiping for the printhead, wherein the cap can be displaced to a first position (P1') and a second position (P2'), wherein the first position (P1') of the cap corresponds to a cleaning position of the printhead and is farther from the printing region in the first direction than the second position (P2'), and wherein, at the first position (P1'), the cap can be displaced to an upper first position to cap the printhead at the cleaning position, characterized in that at the first position (P1'), the cap can further be displaced to a lower first position to be separated from the printhead, allowing the wiper to wipe the printhead by passing through a space between the cap at the lower first position and the printhead at the cleaning position. a printhead configured to discharge ink; a carriage, on which the printhead is mounted, configured to move in a first direction such that the printhead moves across a printing region where a printing operation by the printhead is performed and a standby region adjacent to the printing region; a cap arranged in the standby region and configured to suck the ink from the printhead; and a wiper configured to perform wiping for the printhead, wherein the cap can be displaced to a first position (P1') and a second position (P2'), wherein the first position (P1') of the cap corresponds to a cleaning position of the printhead and is farther from the printing region in the first direction than the second position (P2'), and wherein, at the first position (P1'), the cap can be displaced to an upper first position to cap the printhead at the cleaning position, characterized in that at the first position (P1'), the cap can further be displaced to a lower first position to be separated from the printhead, allowing the wiper to wipe the printhead by passing through a space between the cap at the lower first position and the printhead at the cleaning position.
A structure for attaching a fuel pump to a fuel tank, in which part of a tubular pump housing of a fuel pump is inserted into a fuel tank through a through hole provided in the fuel tank, and the pump housing is provided with a flange part that protrudes outwardly from the pump housing so that sealing means surrounding the through hole is interposed between the flange part and an outer face of the fuel tank, and a plurality of projecting parts (27, 28, 29, 30) that project outwardly from the pump housing on the outer side of the fuel tank, the sealing means and the flange part being sandwiched between the fuel tank and a hold-down plate mounted on the fuel tank from the outside, characterized in that the hold-down plate comprises a plurality of plate members (51, 52) that are divided in a peripheral direction of the pump housing, are formed as separate bodies from each other, and have opposite end parts in the peripheral direction superimposed on one another in a direction along an axis of the pump housing.
A sealing device for sealing a window frame in the lower region of a wall opening, the sealing device having first, second and third sealing surfaces (111, 121, 131) formed to sealingly face a lower side, an outer side and a longitudinal edge side of the window frame with the interposition of at least one seal, the sealing device comprising at least one support section having the first sealing surface and configured to support the window frame at the lower side thereof, wherein the sealing device comprises at least a first lateral section having the second sealing surface and being externally connected to the support section, and at least a second lateral section having the third sealing surface and being laterally connected to the support section and wherein the first, second and third sealing surfaces (111,121,131) meet at a common corner point, characterized in that the support section and the first lateral section are substantially made of an insulating material and the second lateral section is made of a moisture-resistant plastic.
A method of diversity processing at least two signals (INPUT 1, INPUT 2) having a carrier frequency having a given period, T o, propagated via at least two diversity antennas (1, 2), the method including the steps of: - coupling each said at least two signals to each said at least two diversity antennas (1, 2) via respective signal propagation paths, thus giving rise to at least four propagation paths, and - subjecting the signals propagating over at least two of said propagation paths to time variable delays (161 to 164; 261 to 264; 1261 to 1264), - continuously varying said time variable delays in the range between zero and said carried period, T o, so that the cross-correlation between the output signals propagated over said propagation paths is lower than the cross-correlation of the input signals to be propagated over said propagation paths. - coupling each said at least two signals to each said at least two diversity antennas (1, 2) via respective signal propagation paths, thus giving rise to at least four propagation paths, and - subjecting the signals propagating over at least two of said propagation paths to time variable delays (161 to 164; 261 to 264; 1261 to 1264), - continuously varying said time variable delays in the range between zero and said carried period, T o, so that the cross-correlation between the output signals propagated over said propagation paths is lower than the cross-correlation of the input signals to be propagated over said propagation paths.