mhurhangee/ep-ind-claims huggingface dataset:
A rotary vibratory screener for particle separation, the screener comprising: a screen comprising an upper surface, a lower surface, and a plurality of apertures; an attachment post extending above the upper surface of the screen; a cleaning system (40; 100) positioned above the upper surface of the screen; a collection area positioned below the lower surface of the screen; and a vibration generator that vibrates the screen and the cleaning system (40; 100) and causes rotation of the arms (44; 144) relative to the upper surface of the screen; characterized in that the cleaning system (40; 100) comprises: a support plate (42; 142) comprising a plurality of channels; a plurality of arms (44; 144), each of which comprises a proximal end positioned in one of the plurality of channels and which extends radially from the support plate (42; 142); and at least one brush (46; 146) extending downwardly from each of the arms (44; 144), wherein each brush (46; 146) comprises a plurality of bristles that each has a distal end, and wherein each brush (46; 146) is positioned so that the distal end of at least one of its bristles contacts the upper surface of the screen. a screen comprising an upper surface, a lower surface, and a plurality of apertures; an attachment post extending above the upper surface of the screen; a cleaning system (40; 100) positioned above the upper surface of the screen; a collection area positioned below the lower surface of the screen; and a vibration generator that vibrates the screen and the cleaning system (40; 100) and causes rotation of the arms (44; 144) relative to the upper surface of the screen; characterized in that the cleaning system (40; 100) comprises: a support plate (42; 142) comprising a plurality of channels; a plurality of arms (44; 144), each of which comprises a proximal end positioned in one of the plurality of channels and which extends radially from the support plate (42; 142); and at least one brush (46; 146) extending downwardly from each of the arms (44; 144), wherein each brush (46; 146) comprises a plurality of bristles that each has a distal end, and wherein each brush (46; 146) is positioned so that the distal end of at least one of its bristles contacts the upper surface of the screen. a support plate (42; 142) comprising a plurality of channels; a plurality of arms (44; 144), each of which comprises a proximal end positioned in one of the plurality of channels and which extends radially from the support plate (42; 142); and at least one brush (46; 146) extending downwardly from each of the arms (44; 144), wherein each brush (46; 146) comprises a plurality of bristles that each has a distal end, and wherein each brush (46; 146) is positioned so that the distal end of at least one of its bristles contacts the upper surface of the screen.
Method for the manufacture of an electrical surface heating device, wherein a processible construction material which is processible in the liquid or in the paste-like state is mixed from a material mixture, which comprises at least one inorganic binder, for example cement and/or gypsum, at least one electrically non-conductive aggregate, for example sand and/or rock flour, and at least one additional aggregate comprising electrically conductive particles, for example ferrosilicon or carbon fibers and/or carbon chippings, which may also be from a recycling material made of carbon fiber mats, characterized in that the conductive particles are completely mingled with the other components of the material mixture and thereby are homogeneously distributed within the material mixture, from which a construction material which is processible in the liquid or in the paste-like state is puddled by addition of water, and in that this construction material is processed into a planar product, which is provided with low-resistance contactings for feeding a two-dimensionally distributed electrical current, wherein the liquid or the paste-like construction material is hardened in situ on a boundary surface of a room of a building as a solid, weight-bearing substrate, for example in the form of a screed, plaster, mortar or an adhesive.
A method for performing a staining procedure for a biological sample for the purpose of detecting and identifying disease-causing microorganisms, the method comprising: recording a first image of the sample; applying a staining agent to the sample so as to prepare a stained sample comprising a plurality of stained entities and/or a plurality of superficially stained entities; recording a second image of the stained sample; generating a first difference image by comparing the second image to the first image so as to determine a location of at least one of the stained entities on the stained sample, if present; applying a decolorizing agent to the stained sample so as to prepare a partially decolorized sample wherein at least a portion of the staining reagent is removed from the superficially stained entities, if present; recording a third image of the partially decolorized sample; generating a second difference image by comparing the third image to the second image so as to determine a location of at least one of the superficially stained entities on the stained sample, if present; analyzing the second difference image to determine an exposure time during which the decolorizing agent could be applied to the partially decolorized sample to substantially decolorize the superficially stained entities, if present, without substantially decolorizing the stained entities, if present; and correcting the application of the staining agent and/or the decolorizing agent based at least in part on the at least one difference image. recording a first image of the sample; applying a staining agent to the sample so as to prepare a stained sample comprising a plurality of stained entities and/or a plurality of superficially stained entities; recording a second image of the stained sample; generating a first difference image by comparing the second image to the first image so as to determine a location of at least one of the stained entities on the stained sample, if present; applying a decolorizing agent to the stained sample so as to prepare a partially decolorized sample wherein at least a portion of the staining reagent is removed from the superficially stained entities, if present; recording a third image of the partially decolorized sample; generating a second difference image by comparing the third image to the second image so as to determine a location of at least one of the superficially stained entities on the stained sample, if present; analyzing the second difference image to determine an exposure time during which the decolorizing agent could be applied to the partially decolorized sample to substantially decolorize the superficially stained entities, if present, without substantially decolorizing the stained entities, if present; and correcting the application of the staining agent and/or the decolorizing agent based at least in part on the at least one difference image.
A magnesium secondary battery comprising: a cathode comprising a current collector comprising a metallic base made of stainless steel, and a cathode active material capable of intercalating and deintercalating magnesium ions coated on the current collector; an anode comprising magnesium or an anode active material including a magnesium compound; a separator interposed between the cathode and the anode; and an electrolytic solution comprising magnesium ions; characterized in that the current collector is formed by coating a primer comprising a conductive material and a polymer material on the metallic base; and the primer coating layer has an average surface roughness of 0.3 μm to 20 μm. a cathode comprising a current collector comprising a metallic base made of stainless steel, and a cathode active material capable of intercalating and deintercalating magnesium ions coated on the current collector; an anode comprising magnesium or an anode active material including a magnesium compound; a separator interposed between the cathode and the anode; and an electrolytic solution comprising magnesium ions; characterized in that the current collector is formed by coating a primer comprising a conductive material and a polymer material on the metallic base; and the primer coating layer has an average surface roughness of 0.3 μm to 20 μm.
A method implemented by a radio device (30, 3291, 3292, 3212a, 3212b, 3212c, 33320, 3330) of radio resource allocation for transmitting data on a plurality of communication carriers in a device-to-device direct communication, comprising: • sensing on a first carrier and obtaining a first set of candidate radio resources for a first transmission on the first carrier, • performing a first selection of one or a plurality of the candidate radio resources from the first set to be used for the first transmission, characterized by further comprising: • sensing on a second carrier and obtaining a second set of candidate radio resources for a second transmission on the second carrier, • performing a second selection of one or a plurality of the candidate radio resources from the second set to be used for the second transmission, • wherein the first selection and the second selection are performed in dependency to each other, • wherein the second selection is performed based on an evaluation of resource properties: of the one or the plurality of the candidate radio resources selected from the first set, and of the candidate radio resources of the second set, • and wherein one of the resource properties is a transmission time interval, TTI, within a timeframe. • sensing on a first carrier and obtaining a first set of candidate radio resources for a first transmission on the first carrier, • performing a first selection of one or a plurality of the candidate radio resources from the first set to be used for the first transmission, • sensing on a second carrier and obtaining a second set of candidate radio resources for a second transmission on the second carrier, • performing a second selection of one or a plurality of the candidate radio resources from the second set to be used for the second transmission, • wherein the first selection and the second selection are performed in dependency to each other, • wherein the second selection is performed based on an evaluation of resource properties: of the one or the plurality of the candidate radio resources selected from the first set, and of the candidate radio resources of the second set, • and wherein one of the resource properties is a transmission time interval, TTI, within a timeframe.
A projection ring suitable to be worn on a finger, comprising: an annular body; and a projector; characterized in that, the projection ring further comprises: a telescopic portion (2, 2') disposed on the annular body, wherein the projector is disposed on the telescopic portion (2, 2'), and the telescopic portion (2, 2') is configured to adjust a location of the projector, so as to adjust a size or a projection angle of a picture as projected by the projector. an annular body; and a projector; characterized in that, the projection ring further comprises: a telescopic portion (2, 2') disposed on the annular body, wherein the projector is disposed on the telescopic portion (2, 2'), and the telescopic portion (2, 2') is configured to adjust a location of the projector, so as to adjust a size or a projection angle of a picture as projected by the projector.
An agent for use in treating bleeding wounds in mammals, in the form of a flexible sheet material formed from an organic polymer material comprising at least one particulate crystalline inorganic polyphosphate, wherein the organic polymer material forms a sheet-like matrix in which the particles of the particulate crystalline inorganic polyphosphate are present in finely divided form, the polyphosphate at 20°C having a solubility in deionized water of less than 5 g/L and the anion of the polyphosphate having an average (number average) of at least four phosphorus atoms per polyphosphate anion.
A battery pack case, comprising: a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate surround to form an accommodating portion configured to accommodate a unit cell; a plurality of first grooves and a plurality of second grooves opening toward the accommodating portion are provided on the bottom plate, wherein the plurality of first grooves are spaced apart from each other, the plurality of second grooves are spaced apart from each other, and the first grooves and the second grooves are arranged to cross each other, wherein the battery pack case further comprises a supporting beam provided on a surface of the bottom plate facing the accommodating portion, the supporting beam comprises a first connecting section, an intermediate supporting section and a second connecting section successively distributed, the first connecting section is connected and fixed to the side plate or a wide side of the bottom plate along a width direction of the bottom plate, and the second connecting section is connected and fixed to the wide side of the bottom plate, the intermediate supporting section is configured to install the unit cell. a bottom plate and a side plate connected to the bottom plate, wherein the bottom plate and the side plate surround to form an accommodating portion configured to accommodate a unit cell; a plurality of first grooves and a plurality of second grooves opening toward the accommodating portion are provided on the bottom plate, wherein the plurality of first grooves are spaced apart from each other, the plurality of second grooves are spaced apart from each other, and the first grooves and the second grooves are arranged to cross each other, wherein the battery pack case further comprises a supporting beam provided on a surface of the bottom plate facing the accommodating portion, the supporting beam comprises a first connecting section, an intermediate supporting section and a second connecting section successively distributed, the first connecting section is connected and fixed to the side plate or a wide side of the bottom plate along a width direction of the bottom plate, and the second connecting section is connected and fixed to the wide side of the bottom plate, the intermediate supporting section is configured to install the unit cell.
A facility for washing a shopping cart of the type comprising an enclosure with a generally parallelepiped shape including at least a bottom face forming a floor, a top face and side faces connecting the top and bottom faces (4, 5) to one another, said enclosure being provided with means, such as nozzles, for spraying a cleaning liquid inside the enclosure, and being compartmentalized by a partition into two washing chambers (31, 32) positioned side by side, said chambers (31, 32) each being provided with a closable inlet/outlet opening for introducing a cart into the enclosure, said inlet/outlet openings of the chambers being arranged on a same side face of the enclosure, characterized in that the facility has controlled means for driving the movement of at least part of the cleaning liquid spraying means from one washing chamber to another through at least one opening, preferably closable, positioned at said partition compartmentalizing the enclosure.
Method for producing a piston by means of a multipart casting die, in which - a casting melt is introduced into a casting bed of the casting die via an inlet, characterised in that - the casting melt solidifies in a preferably annular groove, which surrounds the riser in the casting bed and is spaced apart radially from the latter, into a preferably annular sealing rib, in that an inner rib flank of the sealing rib bears in a sealing manner on an inner groove flank of the groove and/or - the casting melt solidifies on a preferably annular collar surrounding the riser in the casting bed and spaced apart radially from the latter by forming a preferably annular sealing groove, in that an outer groove flank of the sealing groove bears in a sealing manner on an outer collar flank of the collar, - at least one insert is placed into the casting mould and is infiltrated by pressure exerted on the casting melt, - the infiltration is supported by generating a negative pressure by means of suction lines. - a casting melt is introduced into a casting bed of the casting die via an inlet, characterised in that - the casting melt solidifies in a preferably annular groove, which surrounds the riser in the casting bed and is spaced apart radially from the latter, into a preferably annular sealing rib, in that an inner rib flank of the sealing rib bears in a sealing manner on an inner groove flank of the groove and/or - the casting melt solidifies on a preferably annular collar surrounding the riser in the casting bed and spaced apart radially from the latter by forming a preferably annular sealing groove, in that an outer groove flank of the sealing groove bears in a sealing manner on an outer collar flank of the collar, - at least one insert is placed into the casting mould and is infiltrated by pressure exerted on the casting melt, - the infiltration is supported by generating a negative pressure by means of suction lines.
A method of calibrating a printhead in a thermal inkjet printer, the printhead having ink ejection elements which are energizable by electrical pulses of a given energy with fire pulses of an amplitude and a fire pulse width (fp) to spit ink drops, comprising intiating calibrating the printhead, spitting a number of ink drops at a frequency by the electrical pulses, reading and storing printhead temperature, varying the fire pulse energy by repeating spitting ink drops and reading and storing printhead temperature, finding minimum temperature from the stored printhead temperatures, deriving an operational fire pulse (fp op) from a fire pulse (fp on) that has produced the minimum temperature, an additional over energy (oe), and from parameters related to ink formulation (k 1), ink storage age (k 2), printhead life (k 3), and amount of consumed ink (t), and using the operational fire pulse (fp op) for printing. spitting a number of ink drops at a frequency by the electrical pulses, reading and storing printhead temperature, varying the fire pulse energy by repeating spitting ink drops and reading and storing printhead temperature, finding minimum temperature from the stored printhead temperatures, deriving an operational fire pulse (fp op) from a fire pulse (fp on) that has produced the minimum temperature, an additional over energy (oe), and from parameters related to ink formulation (k 1), ink storage age (k 2), printhead life (k 3), and amount of consumed ink (t), and using the operational fire pulse (fp op) for printing.
A method of manufacturing an outsole, comprising: receiving light intensity data obtained by at least one sensor module on which an individual performs an activity, wherein a portion of the received sensor data is obtained by a frustrated total internal reflection, FTIR, system having a surface on which an individual may perform a movement; correlating the received light intensity data with a traction characteristic; building a computational traction profile in response to the correlation; creating, in response to the computational traction profile, a visual outsole pattern; and producing the outsole based on the visual outsole pattern. receiving light intensity data obtained by at least one sensor module on which an individual performs an activity, wherein a portion of the received sensor data is obtained by a frustrated total internal reflection, FTIR, system having a surface on which an individual may perform a movement; correlating the received light intensity data with a traction characteristic; building a computational traction profile in response to the correlation; creating, in response to the computational traction profile, a visual outsole pattern; and producing the outsole based on the visual outsole pattern.
A pressure reducing valve comprising: an inlet chamber, a pressure reducing valve seat, and an outlet chamber which are formed in a valve case so as to be arranged in a tandem manner from one end side to another end side; a pressure reducing member inserted into the inlet chamber so as to be advanceable and retractable, the pressure reducing member being biased by a valve-closing spring toward the pressure reducing valve seat on the other end side; a piston bore formed in the outlet chamber; and a pressure receiving piston inserted into the piston bore so as to be advanceable and retractable, the pressure receiving piston being biased by a pressure setting spring toward the one end side so as to separate the pressure reducing member from the pressure reducing valve seat; characterised by a fluid chamber defined by the piston bore and the pressure receiving piston, the volume of the fluid chamber increasing with advance of the pressure receiving piston toward the one end side and decreasing with retraction of the pressure receiving piston toward the other end side; a first passage and a second passage provided in parallel, each of which is provided to communicatively connect the fluid chamber and the outlet chamber with each other; a check valve provided in the first passage, the check valve being configured to prevent flow from the outlet chamber to the fluid chamber and to permit flow from the fluid chamber to the outlet chamber; and a throttle portion provided in the second passage. an inlet chamber, a pressure reducing valve seat, and an outlet chamber which are formed in a valve case so as to be arranged in a tandem manner from one end side to another end side; a pressure reducing member inserted into the inlet chamber so as to be advanceable and retractable, the pressure reducing member being biased by a valve-closing spring toward the pressure reducing valve seat on the other end side; a piston bore formed in the outlet chamber; and a pressure receiving piston inserted into the piston bore so as to be advanceable and retractable, the pressure receiving piston being biased by a pressure setting spring toward the one end side so as to separate the pressure reducing member from the pressure reducing valve seat; characterised by a fluid chamber defined by the piston bore and the pressure receiving piston, the volume of the fluid chamber increasing with advance of the pressure receiving piston toward the one end side and decreasing with retraction of the pressure receiving piston toward the other end side; a first passage and a second passage provided in parallel, each of which is provided to communicatively connect the fluid chamber and the outlet chamber with each other; a check valve provided in the first passage, the check valve being configured to prevent flow from the outlet chamber to the fluid chamber and to permit flow from the fluid chamber to the outlet chamber; and a throttle portion provided in the second passage.