mhurhangee/patent-ind-claim-en huggingface dataset:
A fingerprint template input method, wherein the method comprises: acquiring an i th fingerprint image captured by a fingerprint identification sensor, i being a positive integer; obtaining a candidate fingerprint template by splicing all of the acquired i fingerprint images; detecting whether the candidate fingerprint template meets a preset condition or not, wherein the preset condition comprises the following: a number of feature points in the candidate fingerprint template is larger than a second threshold value; if the candidate fingerprint template meets the preset condition, inputting the candidate fingerprint template as a fingerprint template of the user's fingerprint; and if the number of the feature points in the candidate fingerprint template is smaller than the second threshold value, displaying a second prompt information for displaying a region in which the number of the feature points in the candidate fingerprint template is smaller than a third threshold value, wherein the second threshold value is larger than the third threshold value; and setting i=i+1, and re-executing the step of acquiring the i th fingerprint image captured by the fingerprint identification sensor. acquiring an i th fingerprint image captured by a fingerprint identification sensor, i being a positive integer; obtaining a candidate fingerprint template by splicing all of the acquired i fingerprint images; detecting whether the candidate fingerprint template meets a preset condition or not, wherein the preset condition comprises the following: a number of feature points in the candidate fingerprint template is larger than a second threshold value; if the candidate fingerprint template meets the preset condition, inputting the candidate fingerprint template as a fingerprint template of the user's fingerprint; and if the number of the feature points in the candidate fingerprint template is smaller than the second threshold value, displaying a second prompt information for displaying a region in which the number of the feature points in the candidate fingerprint template is smaller than a third threshold value, wherein the second threshold value is larger than the third threshold value; and setting i=i+1, and re-executing the step of acquiring the i th fingerprint image captured by the fingerprint identification sensor.
A heating body , applied to an electronic atomization device and configured to atomize an aerosol-generating substance, the heating body comprises: a liquid-guiding substrate ; a heating material layer , arranged on a first surface of the liquid-guiding substrate , wherein the heating material layer is a resistance heating material, and comprises: a heating portion , wherein a portion of the liquid-guiding substrate , where the heating portion is arranged, is defined as a heating region (a); and a connection portion , wherein another portion of the liquid-guiding substrate , where the connection portion is arranged, is defined as an electrode region (b) characterized by a first protecting film , at least partially arranged on the surface of the heating portion away from the liquid-guiding substrate , wherein the material of the first protecting film is non-conductive and resistant to corrosion of the aerosol-generating substance; and a second protecting film , at least partially arranged on the surface of the connection portion away from the liquid-guiding substrate , wherein the material of the second protecting film is conductive and resistant to the corrosion of the aerosol-generating substance. a liquid-guiding substrate ; a heating material layer , arranged on a first surface of the liquid-guiding substrate , wherein the heating material layer is a resistance heating material, and comprises: a heating portion , wherein a portion of the liquid-guiding substrate , where the heating portion is arranged, is defined as a heating region (a); and a connection portion , wherein another portion of the liquid-guiding substrate , where the connection portion is arranged, is defined as an electrode region (b) characterized by a heating portion , wherein a portion of the liquid-guiding substrate , where the heating portion is arranged, is defined as a heating region (a); and a connection portion , wherein another portion of the liquid-guiding substrate , where the connection portion is arranged, is defined as an electrode region (b) characterized by a first protecting film , at least partially arranged on the surface of the heating portion away from the liquid-guiding substrate , wherein the material of the first protecting film is non-conductive and resistant to corrosion of the aerosol-generating substance; and a second protecting film , at least partially arranged on the surface of the connection portion away from the liquid-guiding substrate , wherein the material of the second protecting film is conductive and resistant to the corrosion of the aerosol-generating substance.
A method performed by a terminal in a wireless communication system using beamforming, the method comprising: receiving, from a base station, configuration information for paging, the configuration information for paging being signaled by the base station using one of RRC signaling or system information; identifying a plurality of paging slots based on the configuration information for paging; and receiving, from the base station, a paging message by monitoring a paging slot among the plurality of paging slots, wherein the paging slot corresponds to a synchronization signal block, SSB, the SSB including a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH. receiving, from a base station, configuration information for paging, the configuration information for paging being signaled by the base station using one of RRC signaling or system information; identifying a plurality of paging slots based on the configuration information for paging; and receiving, from the base station, a paging message by monitoring a paging slot among the plurality of paging slots, wherein the paging slot corresponds to a synchronization signal block, SSB, the SSB including a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH.
A hot stamp molded body obtainable by hot-stamping an electrogalvanized steel sheet consisting of as components of a steel sheet, by mass %: C: from 0.10 to 0.35%, Si: from 0.01 to 3.00%, Al: from 0.01 to 3.00%, Mn: from 1.0 to 3.5%, P: from 0.001 to 0.100%, S: from 0.001 to 0.010%, N: from 0.0005 to 0.0100%, Ti: from 0.000 to 0.200%, Nb: from 0.000 to 0.200%, Mo: from 0.00 to 1.00%, Cr: from 0.00 to 1.00%, V: from 0.000 to 1.000%, Ni: from 0.00 to 3.00%, B: from 0.0000 to 0.0050%, Ca: from 0.0000 to 0.0050%, and Mg: from 0.0000 to 0.0050%, a balance being Fe and impurities, wherein the steel sheet is electrogalvanized on each face with a plating weight not less than 5 g/m 2 and less than 40 g/m 2 ; wherein a galvanized layer of the hot stamp molded body is configured with 0 g/m 2 to 15 g/m 2 of a Zn-Fe intermetallic compound and a Fe-Zn solid solution phase as a balance, wherein, in the galvanized layer of the hot stamp molded body, 1x10 pcs to 1x10 4 pcs of particulate matter with an average diameter of from 10 nm to 1 μm are present per 1 mm length of the galvanized layer, wherein the particulate matter are oxides, and wherein the particulate matter is one, or two or more kinds of oxides containing one, or two or more kinds out of Si, Mn, Cr or Al. C: from 0.10 to 0.35%, Si: from 0.01 to 3.00%, Al: from 0.01 to 3.00%, Mn: from 1.0 to 3.5%, P: from 0.001 to 0.100%, S: from 0.001 to 0.010%, N: from 0.0005 to 0.0100%, Ti: from 0.000 to 0.200%, Nb: from 0.000 to 0.200%, Mo: from 0.00 to 1.00%, Cr: from 0.00 to 1.00%, V: from 0.000 to 1.000%, Ni: from 0.00 to 3.00%, B: from 0.0000 to 0.0050%, Ca: from 0.0000 to 0.0050%, and Mg: from 0.0000 to 0.0050%,
A construction machine, comprising: - a system area rotatable about an axis of rotation (D) with respect to a machine frame , wherein the rotatable system area is a compactor roller , - on the rotatable system area : at least one sensor , a data transmission unit with at least one transmission antenna , and a first data transmission arrangement for transmitting data from the at least one sensor to the data transmission unit, - on the machine frame : a data receiving unit with at least one receiving antenna , a data evaluation system , and a second data transmission arrangement for transmitting data from the data receiving unit to the data evaluation system , - a direct voltage power supply arrangement , characterized in that the data transmission unit comprises at least two transmission antennas and/or the data receiving unit comprises at least two receiving antennas and in that the direct voltage power supply arrangement comprises an induction power transmission arrangement for wireless power transmission into the rotatable system area , wherein the induction power transmission arrangement comprises a transmission arrangement with at least one transmission coil and on the rotatable system area a receiving arrangement with at least one receiver coil . - a system area rotatable about an axis of rotation (D) with respect to a machine frame , wherein the rotatable system area is a compactor roller , - on the rotatable system area : at least one sensor , a data transmission unit with at least one transmission antenna , and a first data transmission arrangement for transmitting data from the at least one sensor to the data transmission unit, - on the machine frame : a data receiving unit with at least one receiving antenna , a data evaluation system , and a second data transmission arrangement for transmitting data from the data receiving unit to the data evaluation system , - a direct voltage power supply arrangement ,
An electronic apparatus comprising: a communicator ; a memory ; and a processor configured to: obtain information on a recipe including a plurality of unit functions for provision of a service, based on receiving, from a plurality of electronic apparatuses (200-1, 200-2), information for a plurality of unit functions which are capable of being performed at the plurality of electronic apparatuses (200-1, 200-2) through the communicator, the claimed electronic apparatus being characterised in that the processor is further configured to identify a plurality of electronic apparatuses (200-1, 200-2) matched to the plurality of unit functions included in the recipe , wherein each of the identified electronic apparatuses (200-1, 200-2) matches one or more unit functions, and control the communicator to transmit signals for performing each of the plurality of matched unit functions included in the recipe to the plurality of identified electronic apparatuses. a communicator ; a memory ; and a processor configured to: obtain information on a recipe including a plurality of unit functions for provision of a service, based on receiving, from a plurality of electronic apparatuses (200-1, 200-2), information for a plurality of unit functions which are capable of being performed at the plurality of electronic apparatuses (200-1, 200-2) through the communicator, the claimed electronic apparatus being characterised in that the processor is further configured to identify a plurality of electronic apparatuses (200-1, 200-2) matched to the plurality of unit functions included in the recipe , wherein each of the identified electronic apparatuses (200-1, 200-2) matches one or more unit functions, and control the communicator to transmit signals for performing each of the plurality of matched unit functions included in the recipe to the plurality of identified electronic apparatuses. obtain information on a recipe including a plurality of unit functions for provision of a service, based on receiving, from a plurality of electronic apparatuses (200-1, 200-2), information for a plurality of unit functions which are capable of being performed at the plurality of electronic apparatuses (200-1, 200-2) through the communicator, the claimed electronic apparatus being characterised in that the processor is further configured to identify a plurality of electronic apparatuses (200-1, 200-2) matched to the plurality of unit functions included in the recipe , wherein each of the identified electronic apparatuses (200-1, 200-2) matches one or more unit functions, and control the communicator to transmit signals for performing each of the plurality of matched unit functions included in the recipe to the plurality of identified electronic apparatuses.
Apparatus for connecting a connector to an absorber tube of a solar thermal power plant, wherein during operation radiation energy from at least one solar collector being receivable by the absorber tube , the radiation energy being output to an operating medium, and the at least one solar collector being configured such that it can be pivoted about an axis, the apparatus comprising at least one flexible tube apparatus for connecting the connector to the absorber tube in order to absorb a torque which occurs during pivoting of the at least one solar collector and/or a force on account of a length change (E), through which flexible tube apparatus the operating medium can flow, the apparatus comprising, furthermore, a coupling means and a supporting element , characterized in that the at least one flexible tube apparatus is coupled fixedly to the supporting element via the coupling means , the supporting element being coupled during operation to the pivoting movement of the solar collector , the coupling means dividing the at least one flexible tube apparatus into two regions, the at least one flexible tube apparatus being configured in such a way that substantially forces from length changes (E) of the absorber tube are absorbed between the absorber tube and the coupling means , and that substantially forces and/or torques from the pivoting movement of the solar collectors are absorbed between the coupling means and the connector in a first and second flexible tube apparatus , the first and second flexible tube apparatus being connected to one another by way of a connecting element , through which the operating medium can flow, in such a way that the said flexible tube apparatuses lie in parallel planes with respect to one another.
Apparatus for deforming two opposite ends of a piece of wire extending in a longitudinal direction (X-X), comprising a first forming device for forming the first end of the piece of wire , configured to form the first end by means of cold-deformation such as to produce a cross-section of the first end with an area greater than the cross-section of the initial piece of wire; and a second forming device for forming the second end of the same piece of wire , configured to perform forming of the second end by means of cold-deformation such as to produce a cross-section of the formed second end greater than the cross-section of the initial piece of wire; Wherein said first device for forming the first end and second device for forming the second end each comprise a fixed die assembly and a finishing assembly (1100;2100) coaxially movable in the longitudinal direction from/towards the associated fixed die assembly characterized in that each finishing assembly is coaxially movable in the longitudinal direction from/towards the associated fixed die assembly from a distanced position into a position in contact with the latter, whereby the first end of the piece of wire is deformed inside the first finishing assembly, with the finishing assembly in the position in contact with the first fixed die assembly, and the second end is deformed inside the second fixed die assembly, with the first end housed inside the second movable finishing assembly which is in the position in contact with the second fixed die assembly
Actuating device with an energy swing for a mechanical brake system, wherein the actuating device has an actuating drive for adjusting a brake part for a service brake function, wherein the actuating device has a force cartridge with a pretensioned spring and a first ramp bearing as an energy swing, the first ramp bearing being fastened to the actuating drive on one side and to the spring on the other side, the force cartridge being mounted on a force-action line of the actuating drive and interacting with the actuating drive in such a way that a force component is made available to support the actuator drive as a function of the adjustment position of the actuator drive, characterised in that the actuator drive has a second ramp bearing for the brake feed, the second ramp bearing having a cam track with one or more linear and/or non-linear region(s).
A method for making nanostructures, the method comprising: providing an insulating substrate with one or more isolated metal islands on top of or embedded in the surface of the substrate; depositing a continuous electrically conducting helplayer over and covering the substrate surface and the one or more isolated metal islands; depositing a patterned layer of catalyst (102; 104) on the conducting helplayer over the one or more isolated metal islands; growing the nanostructures (106; 108) on the layer of catalyst (102; 104); and selectively removing the electrically conducting helplayer between and around the nanostructures using the nanostructures (106; 108) as a self-aligned mask. providing an insulating substrate with one or more isolated metal islands on top of or embedded in the surface of the substrate; depositing a continuous electrically conducting helplayer over and covering the substrate surface and the one or more isolated metal islands; depositing a patterned layer of catalyst (102; 104) on the conducting helplayer over the one or more isolated metal islands; growing the nanostructures (106; 108) on the layer of catalyst (102; 104); and selectively removing the electrically conducting helplayer between and around the nanostructures using the nanostructures (106; 108) as a self-aligned mask.
A composition for ophthalmic delivery of a therapeutic agent, the composition comprising an oil-in-water (o/w) microemulsion comprising a fatty acid, or fatty acid ester, as the oil phase; an aqueous phase; a surfactant; and a co-surfactant, and wherein the composition further comprises a suspension of therapeutic agent-loaded nanoparticles in the aqueous phase of the oil-in-water emulsion.
A cosmetic for separately storing and for mixing different cosmetic materials, the cosmetic comprising: a cosmetic container ; an impregnation member accommodated in the cosmetic container and impregnated with a cosmetic material; and a containing body separately provided from the cosmetic container and containing a further cosmetic material, characterized in that the containing body is placed on the impregnation member and designed such that, when the containing body is pressed with a puff (P), the cosmetic material impregnated into the impregnation member passes through the containing body so that the cosmetic material of the impregnation member and the further cosmetic material contained in the containing body are simultaneously stuck on the puff (P) while being mixed up with each other. a cosmetic container ; an impregnation member accommodated in the cosmetic container and impregnated with a cosmetic material; and a containing body separately provided from the cosmetic container and containing a further cosmetic material, characterized in that the containing body is placed on the impregnation member and designed such that, when the containing body is pressed with a puff (P), the cosmetic material impregnated into the impregnation member passes through the containing body so that the cosmetic material of the impregnation member and the further cosmetic material contained in the containing body are simultaneously stuck on the puff (P) while being mixed up with each other.
A fluid processing apparatus configured for separating particles from a fluid flowing through the apparatus, the apparatus comprising: a fluid inlet configured to receive a fluid containing particles having one or more particle sizes; a main fluid channel extending from said fluid inlet and arranged in a spiral configuration and configured to cause differential migration of particles within the fluid flowing through said main fluid channel into unique equilibrium positions within said main channel according to the size of the particle thereby forming one or more particle streams and a particle-free region within the fluid flowing through said main channel; one or more outlets in fluid communication with said main fluid channel and configured to receive particles from a particle stream flowing from said main fluid channel; and one or more rectangular secondary channels extending from a side of said main fluid channel along a length of said main fluid channel between the fluid inlet and the one or more outlets and configured to draw at least a portion of the fluid from the particle-free region within said main channel to increase the concentration of particles within the remaining fluid flowing through said main channel, wherein the main channel has a non-uniform geometry, wherein the geometry of the portion of the main channel downstream from a secondary channel is reduced in width to compensate for a smaller fluid volume in the main channel resulting from fluid removal via the secondary channel; wherein the width of each secondary channel is between 40 and 250 μm. a fluid inlet configured to receive a fluid containing particles having one or more particle sizes; a main fluid channel extending from said fluid inlet and arranged in a spiral configuration and configured to cause differential migration of particles within the fluid flowing through said main fluid channel into unique equilibrium positions within said main channel according to the size of the particle thereby forming one or more particle streams and a particle-free region within the fluid flowing through said main channel; one or more outlets in fluid communication with said main fluid channel and configured to receive particles from a particle stream flowing from said main fluid channel; and one or more rectangular secondary channels extending from a side of said main fluid channel along a length of said main fluid channel between the fluid inlet and the one or more outlets and configured to draw at least a portion of the fluid from the particle-free region within said main channel to increase the concentration of particles within the remaining fluid flowing through said main channel, wherein the main channel has a non-uniform geometry, wherein the geometry of the portion of the main channel downstream from a secondary channel is reduced in width to compensate for a smaller fluid volume in the main channel resulting from fluid removal via the secondary channel; wherein the width of each secondary channel is between 40 and 250 μm.