mhurhangee/ep-ind-claims huggingface dataset:
A terminal constituting any of positive and negative electrodes of a secondary battery, the terminal comprising: a plate-like metallic first member and a metallic second member ultrasonically welded to one plate surface of the first member, wherein a recessed portion is formed on a surface on an opposite side to the surface, to which the second member is welded, of the first member, and ultrasonic welding between the first member and the second member is realized in the recessed portion, characterized in that the first member and the second member are constituted by metals that differ from each other. a plate-like metallic first member and a metallic second member ultrasonically welded to one plate surface of the first member, wherein a recessed portion is formed on a surface on an opposite side to the surface, to which the second member is welded, of the first member, and ultrasonic welding between the first member and the second member is realized in the recessed portion, characterized in that the first member and the second member are constituted by metals that differ from each other.
A washing machine comprising: a drum; and a balancer mounted to the drum to offset unbalanced load generated in the drum during rotation of the drum, wherein the balancer comprises: a balancer housing having an annular channel defined therein; at least one mass movably disposed in the channel; characterised by further comprising a magnet case (162, 262) mounted to the balancer housing; wherein the magnet case is coupled to the rear surface of the balancer housing opposite to a front plate of the drum, in a state in which a magnet is received in the magnet case to restrain the mass. a drum; and a balancer mounted to the drum to offset unbalanced load generated in the drum during rotation of the drum, wherein the balancer comprises: a balancer housing having an annular channel defined therein; at least one mass movably disposed in the channel; characterised by further comprising a magnet case (162, 262) mounted to the balancer housing; wherein the magnet case is coupled to the rear surface of the balancer housing opposite to a front plate of the drum, in a state in which a magnet is received in the magnet case to restrain the mass. a balancer housing having an annular channel defined therein; at least one mass movably disposed in the channel;
Use of a piping system comprising at least one metal pipeline for penetrating a building ceiling or building wall, in a sealing of a fire section of a building part with respect to another building part of the same building, wherein the sealing comprises a building ceiling or building wall of the building which is penetrated by the at least one metal pipeline, wherein the piping system further comprises at least one floor pipeline, which is designed as a plastic piping or plastic-metal multilayer composite piping and is connected to a metal connecting piece connected to the metal pipeline, wherein the metal pipeline, the connecting piece and the floor pipeline are provided with a jacket-shaped fire protection insulation (9.1, 9.2) made of mineral wool having a melting point of more than 1,000°C, wherein the connecting piece is designed in the form of a T-piece, bend or branch and has plastically deformable press-fit connection sections (4.1) which are each provided with an annular bead (4.2) and a sealing ring accommodated therein, wherein the floor pipeline is connected to the connecting piece via a transition piece (7, 7'), wherein the transition piece (7, 7') comprises a sleeve-shaped insertion part (7.1, 7.1') and a press ring (7.2, 7.2'), the insertion part (7.1, 7.1') being inserted into the floor pipeline and connected to the connection piece, the distance of the floor pipeline press-connected to the insertion part (7.1, 7.1') from the central axis of the metal pipeline lies in a range from 35 mm to 150 mm, wherein the fire protection insulation (9.1) encasing the metal pipeline has an insulation thickness in the range from 20 to 60 mm, wherein the fire protection insulation (9.2) has an insulation thickness in the range from 15 to 25 mm, and wherein the fire protection insulation (9.2) encasing the floor pipeline directly adjoins the fire protection insulation (9.1) encasing the metal pipeline and has a length of at least 10 mm and at most 320 mm measured from the fire protection insulation (9.1) encasing the metal pipeline.
Filter device for filtering a supply voltage (Ub) of an ultrasonic sensor of a motor vehicle, wherein the filter device can be electrically connected, on the input side, to a voltage source, which provides the supply voltage (Ub), and can be electrically connected, on the output side, to the ultrasonic sensor, and wherein the filter device comprises a low-pass filter having a resistor and a capacitor, wherein the filter device comprises a diode which is connected in parallel with the resistor, wherein the resistor and optionally the diode are dimensioned in such a manner that the diode is on if a predetermined transmission current (Is) flows through the filter device during a transmission phase of the ultrasonic sensor and the diode is off if a predetermined evaluation current (Ia) flows through the filter device during an evaluation phase of the ultrasonic sensor.
A method for maintaining an inventory of packaging supplies comprising: receiving by a processing element an initial level of packaging supplies; receiving by the processing element packaging historical data corresponding to supply use by one or more packaging machines over a predetermined time period; determining by the processing element, by subtracting supply use from the initial level of packaging supplies, a current level of packaging supplies; and predicting, by the processing element, based on the historical data, a future supply use for the one or more packaging machines and using the future supply use and the current supply to determine whether based on at least the current level of packaging supplies and a future predicted level of supplies, a new order process should be initiated. receiving by a processing element an initial level of packaging supplies; receiving by the processing element packaging historical data corresponding to supply use by one or more packaging machines over a predetermined time period; determining by the processing element, by subtracting supply use from the initial level of packaging supplies, a current level of packaging supplies; and predicting, by the processing element, based on the historical data, a future supply use for the one or more packaging machines and using the future supply use and the current supply to determine whether based on at least the current level of packaging supplies and a future predicted level of supplies, a new order process should be initiated.
An electrically bias-able device comprising: an electrically conductive core; a rubber material disposed over and surrounding the electrically conductive core, wherein the rubber material comprises a plurality of nanotubes dispersed throughout a rubber matrix in an amount to provide the rubber material with a first electrical resistivity and a mechanical conformability; wherein a surface material disposed over and surrounding the rubber material, wherein the surface material comprises a second electrical resistivity and a protecting surface, wherein a resistance of the surface material dominates the resistance of the electrically bias-able devices, and wherein the plurality of nanotubes comprises single wall carbon nanotubes (SWCNTs) having a weight loading of less than 0.1 % throughout the rubber matrix. an electrically conductive core; a rubber material disposed over and surrounding the electrically conductive core, wherein the rubber material comprises a plurality of nanotubes dispersed throughout a rubber matrix in an amount to provide the rubber material with a first electrical resistivity and a mechanical conformability; wherein a surface material disposed over and surrounding the rubber material, wherein the surface material comprises a second electrical resistivity and a protecting surface, wherein a resistance of the surface material dominates the resistance of the electrically bias-able devices, and wherein the plurality of nanotubes comprises single wall carbon nanotubes (SWCNTs) having a weight loading of less than 0.1 % throughout the rubber matrix.
A method for manufacturing a steel sheet, the method comprising: a hot-rolling process in which a steel material (Br) is hot-rolled using a finishing mill so as to obtain a hot-rolled steel sheet having an edge wave shape with a wave height periodically changing in a rolling direction; and a cooling process in which the hot-rolled steel sheet is cooled in a cooling section provided on a sheet-threading path, wherein the hot-rolling process includes: a target steepness-setting process in which a target steepness of the edge wave shape is set based on first correlation data indicating a correlation between a steepness of the edge wave shape of the hot-rolled steel sheet before the cooling process and a temperature standard deviation Y in the rolling direction during or after cooling of the hot-rolled steel sheet, which have been experimentally obtained in advance; and a shape-controlling process in which operation parameters of the finishing mill are controlled so as to match the steepness of the edge wave shape with the target steepness. a hot-rolling process in which a steel material (Br) is hot-rolled using a finishing mill so as to obtain a hot-rolled steel sheet having an edge wave shape with a wave height periodically changing in a rolling direction; and a cooling process in which the hot-rolled steel sheet is cooled in a cooling section provided on a sheet-threading path, wherein the hot-rolling process includes: a target steepness-setting process in which a target steepness of the edge wave shape is set based on first correlation data indicating a correlation between a steepness of the edge wave shape of the hot-rolled steel sheet before the cooling process and a temperature standard deviation Y in the rolling direction during or after cooling of the hot-rolled steel sheet, which have been experimentally obtained in advance; and a shape-controlling process in which operation parameters of the finishing mill are controlled so as to match the steepness of the edge wave shape with the target steepness. a target steepness-setting process in which a target steepness of the edge wave shape is set based on first correlation data indicating a correlation between a steepness of the edge wave shape of the hot-rolled steel sheet before the cooling process and a temperature standard deviation Y in the rolling direction during or after cooling of the hot-rolled steel sheet, which have been experimentally obtained in advance; and a shape-controlling process in which operation parameters of the finishing mill are controlled so as to match the steepness of the edge wave shape with the target steepness.
A method (300, 400) of determining an effect of a liquid sample on light, the method comprising: rotating an assay device comprising one or more chambers for containing the liquid sample; directing light from a light source to the rotating assay device such that the light passes through the one or more chambers as each of the one or more chambers is in a respective predetermined configuration relative to the light source and a light receiver; receiving (310, 402), at the light receiver, light from the light source that has passed through the one or more chambers within the rotating assay device for at least one complete rotation of the assay device; determining a set of light intensity measurements for each complete rotation of the assay device; determining the number of measurements that meet a light intensity condition in one of the sets of measurements; changing the speed of rotation of the assay device based on the determined number of measurements that met the light intensity condition; determining measurements within each set that were obtained when the light passed through the one or more chambers; and determining, using the measurements that were obtained when the light passed through the one or more chambers, the effect of the liquid sample on the light from the light source. rotating an assay device comprising one or more chambers for containing the liquid sample; directing light from a light source to the rotating assay device such that the light passes through the one or more chambers as each of the one or more chambers is in a respective predetermined configuration relative to the light source and a light receiver; receiving (310, 402), at the light receiver, light from the light source that has passed through the one or more chambers within the rotating assay device for at least one complete rotation of the assay device; determining a set of light intensity measurements for each complete rotation of the assay device; determining the number of measurements that meet a light intensity condition in one of the sets of measurements; changing the speed of rotation of the assay device based on the determined number of measurements that met the light intensity condition; determining measurements within each set that were obtained when the light passed through the one or more chambers; and determining, using the measurements that were obtained when the light passed through the one or more chambers, the effect of the liquid sample on the light from the light source.
A camera module comprising: a first housing in which a lens module is disposed; a second housing including a base and a support portion extending upward from the base; and a hook part (341, 342, 343, 344) extending from the base to more upward than the support portion, wherein the hook part (341, 342, 343, 344) comprising a hook (341-1, 342-1, 343-1, 344-1) at end portion thereof is disposed on an upper surface of a substrate of the lens module, wherein upward movement of the substrate is blocked by the hook (341-1, 342-1, 343-1, 344-1), and wherein the substrate and the support portion are disposed in the first housing, and a lower surface of the first housing is coupled with an upper surface of the base. a first housing in which a lens module is disposed; a second housing including a base and a support portion extending upward from the base; and a hook part (341, 342, 343, 344) extending from the base to more upward than the support portion, wherein the hook part (341, 342, 343, 344) comprising a hook (341-1, 342-1, 343-1, 344-1) at end portion thereof is disposed on an upper surface of a substrate of the lens module, wherein upward movement of the substrate is blocked by the hook (341-1, 342-1, 343-1, 344-1), and wherein the substrate and the support portion are disposed in the first housing, and a lower surface of the first housing is coupled with an upper surface of the base.
An enamel composition, comprising: silicon dioxide (SiO 2) at 25 to 50 wt%; boron oxide (B 2 O 3) at 1 to 15 wt%; one or more of lithium oxide (Li 2 O), sodium oxide (Na 2 O), or potassium oxide (K 2 O) at 10 to 20 wt%; sodium fluoride (NaF) at 1 to 5 wt%; zinc oxide (ZnO) at 1 to 10 wt%; and one or more of titanium dioxide (TiO 2), molybdenum oxide (MoO 3), bismuth oxide (Bi 2 O 3), or cerium dioxide (CeO 2) at 20 to 40 wt%,and further comprising manganese dioxide (MnO 2), iron oxide (Fe 2 O 3), cobalt oxide (Co 3 O 4), and nickel oxide (NiO) at 2 to 5 wt%. silicon dioxide (SiO 2) at 25 to 50 wt%; boron oxide (B 2 O 3) at 1 to 15 wt%; one or more of lithium oxide (Li 2 O), sodium oxide (Na 2 O), or potassium oxide (K 2 O) at 10 to 20 wt%; sodium fluoride (NaF) at 1 to 5 wt%; zinc oxide (ZnO) at 1 to 10 wt%; and one or more of titanium dioxide (TiO 2), molybdenum oxide (MoO 3), bismuth oxide (Bi 2 O 3), or cerium dioxide (CeO 2) at 20 to 40 wt%,and further comprising manganese dioxide (MnO 2), iron oxide (Fe 2 O 3), cobalt oxide (Co 3 O 4), and nickel oxide (NiO) at 2 to 5 wt%.
A diaphragm for a lung demand valve, comprising: a CBRN layer which is sufficiently resistant to the permeation of at least some CBRN agents; and a resilient layer which is resiliently deformable; wherein the CBRN layer comprises a plastics material which comprises polyvinylidene fluoride, the CBRN layer being arranged to restrict the permeation of at least some CBRN agents through the diaphragm, and wherein the resilient layer is arranged to allow the diaphragm to be resiliently deformed. a CBRN layer which is sufficiently resistant to the permeation of at least some CBRN agents; and a resilient layer which is resiliently deformable; wherein the CBRN layer comprises a plastics material which comprises polyvinylidene fluoride, the CBRN layer being arranged to restrict the permeation of at least some CBRN agents through the diaphragm, and wherein the resilient layer is arranged to allow the diaphragm to be resiliently deformed.
A power supply device for converting an input voltage (U E) into an output voltage (U A), comprising at least one switching stage controlled by a pulse-width modulation circuit in a clocked manner, wherein a control circuit is provided, which influences the pulse-width modulation circuit so as to change the level of the output voltage (U A), and wherein a current limiting circuit is provided which, after a threshold has been exceeded, limits an output current (I A) of the power supply device first to an elevated maximum current (I' max) for a period of time and thereafter to a regular maximum current (I max), wherein the current limiting circuit comprises a first comparison stage, which compares a voltage that is proportional to the output current (I A) with a first reference value, wherein the first reference value corresponds to the level of the present maximum current, characterized in that the control circuit is configured such that the period of time, for which the output current (I A) is limited to the elevated maximum current (I' max), is longer, the smaller the difference is between the output current (I A) and the threshold value during the period of time and that there is an integrator circuit, via which the voltage that is proportional to the output current (I A) is supplied filtered to a second comparison stage, which compares the filtered voltage with a second reference value that corresponds to the regular maximum current (I' max), wherein an output of the second comparison stage is coupled to the first comparison stage in such a way that it influences the level of the first reference value.
A wireless communication method for a mobile station, the method comprising: establishing a communication session with a wireless local area network; thereafter selecting media content for download from a content provider via the communication session with the wireless local area network; characterized in that the method further comprises: thereafter requesting the download from the content provider via a wide area network; and thereafter receiving the selected media content via the communication session with the wireless local area network in response to the request. establishing a communication session with a wireless local area network; thereafter selecting media content for download from a content provider via the communication session with the wireless local area network; characterized in that the method further comprises: thereafter requesting the download from the content provider via a wide area network; and thereafter receiving the selected media content via the communication session with the wireless local area network in response to the request.
An assembling structure of a contact terminal, in which a contact plate is fixed to the contact terminal by riveting the contact plate around a riveting projection mounted on a proximal portion of the contact terminal, and the proximal portion of the contact terminal is supported by a housing through an forced insertion thereof in a groove formed in the housing, the contact plate has a proximal portion, the proximal portion has a front portion and a rear portion which are positioned on an upstream side and a downstream side with respect to a direction of the insertion of the contact terminal, respectively, the rear portion has at least one fitting projection which is formed therein, and the front portion has a corner formed with a cutout which facilitates the insertion of the contact terminal, characterized in that the at least one fitting projection projects from the contact plate beyond the riveting projection, and in that the housing has a portion which is projected at a bottom corner of the groove, the portion being configured so that an edge of the front portion of the contact terminal makes a contact with the portion.
A processor-implemented method, comprising: acquiring fluid image information from an imaging device having a field of view including fluid, the fluid image information including fossil image information; processing the fossil image information to identify fossil types in the fluid as data that associates the fossil types with a formation from which the fluid was acquired; determining a location of a first borehole in the formation based on the data and offset records associated with a second borehole; and publishing the data in conjunction with indications of the location. acquiring fluid image information from an imaging device having a field of view including fluid, the fluid image information including fossil image information; processing the fossil image information to identify fossil types in the fluid as data that associates the fossil types with a formation from which the fluid was acquired; determining a location of a first borehole in the formation based on the data and offset records associated with a second borehole; and publishing the data in conjunction with indications of the location.
A process for producing inorganic particulate material mainly composed of silicon oxide, wherein the particulate material comprises mesopores and macropores and the process includes the steps of: (a) dissolving a water-soluble polymer or another pore forming agent and a precursor for a matrix dissolving agent in a medium that promotes the hydrolysis of the metalorganic compound (see step b); (b) mixing a metalorganic compound or a mixture of metalorganic compounds which contains hydrolyzable ligands to promote hydrolysis reaction; (c) solidifying the mixture through a sol-gel transition, wherein the mixture is continuously stirred, whereby particles are prepared which have three dimensional interconnected phase domains one rich in solvent the other rich in inorganic component in which surface pores are contained, wherein in step (c) changes in torque are monitored; (d) setting the matrix dissolving agent free from its precursor, whereby the matrix dissolving agent modifies the structure of said inorganic component; (e) removing the solvent by evaporation drying and/or heat-treatment. (a) dissolving a water-soluble polymer or another pore forming agent and a precursor for a matrix dissolving agent in a medium that promotes the hydrolysis of the metalorganic compound (see step b); (b) mixing a metalorganic compound or a mixture of metalorganic compounds which contains hydrolyzable ligands to promote hydrolysis reaction; (c) solidifying the mixture through a sol-gel transition, wherein the mixture is continuously stirred, whereby particles are prepared which have three dimensional interconnected phase domains one rich in solvent the other rich in inorganic component in which surface pores are contained, wherein in step (c) changes in torque are monitored; (d) setting the matrix dissolving agent free from its precursor, whereby the matrix dissolving agent modifies the structure of said inorganic component; (e) removing the solvent by evaporation drying and/or heat-treatment.