mhurhangee/ep-ind-claims huggingface dataset:
A method for completing a transaction at a terminal between the terminal and a mobile device comprising: initiating (210, 410) a transaction at the terminal; the terminal initiating communication with the mobile device; the terminal transmitting (225, 425) a wireless power signal to power the mobile device; the terminal sending (230, 430) a transaction authentication request message to the mobile device after transmitting the wireless power signal; the terminal receiving (235, 435) an authentication message from the mobile device; and completing (240, 440) the transaction after receiving the authentication message from the mobile device, characterized in that: the method comprises the terminal determining (220, 420) that the mobile device is without power by reading information from a near field communication chip in the mobile device, wherein the read information indicates that the mobile device is without power; and in that said steps of: the terminal transmitting the wireless power signal to power the mobile device; the terminal sending the transaction authentication request message to the mobile device after transmitting the wireless power signal; the terminal receiving the authentication message from the mobile device; and completing the transaction after receiving the authentication message from the mobile device, are performed in response to said determining that the mobile device is without power by reading information from the near field communication chip in the mobile device, and in that said wireless power signal allows the mobile device to become active for user input of authentication information. initiating (210, 410) a transaction at the terminal; the terminal initiating communication with the mobile device; the terminal transmitting (225, 425) a wireless power signal to power the mobile device; the terminal sending (230, 430) a transaction authentication request message to the mobile device after transmitting the wireless power signal; the terminal receiving (235, 435) an authentication message from the mobile device; and completing (240, 440) the transaction after receiving the authentication message from the mobile device, characterized in that: the method comprises the terminal determining (220, 420) that the mobile device is without power by reading information from a near field communication chip in the mobile device, wherein the read information indicates that the mobile device is without power; and the terminal transmitting the wireless power signal to power the mobile device; the terminal sending the transaction authentication request message to the mobile device after transmitting the wireless power signal; the terminal receiving the authentication message from the mobile device; and completing the transaction after receiving the authentication message from the mobile device, are performed in response to said determining that the mobile device is without power by reading information from the near field communication chip in the mobile device, and in that said wireless power signal allows the mobile device to become active for user input of authentication information.
An acute stroke treatment device comprising a flexible delivery wire (108, 208) and a fiber-based clot engagement element that comprises at least one bundle of unwoven fibers (102, 202) and a first attachment element (104, 204) wherein each fiber (102, 202) of the bundle (100, 200) is secured at one end to the first attachment element (104,204), and an actuation structure that slides over the flexible delivery wire (108, 208), wherein the bundle of fibers (102, 202) have a first low profile delivery configuration and a second extended deployed configuration with a portion of the fibers that is unsecured flaring outward relative to the delivery wire (108, 208) and the fibers do not spontaneously transition between the first configuration and the second configuration, wherein the actuation structure is configured to engage the bundle (100, 200) to transition the fibers to an extended deployed configuration, and wherein the first attachment element (104, 204) comprises an anchor that is secured at a fixed position around the circumference of the delivery wire (108, 208), characterized in that the other end of the fibers are unsecured or are secured in a bundle at a second attachment element without fixed attachment to the actuation structure; and the actuation structure is configured to engage the second attachment element to move the second attachment element with the secured fiber ends along the delivery wire (108, 208) to extend radially outward the center of the fibers or to interface with the unsecured ends of the fiber bundle to flare the ends of the fibers into an extended configuration. wherein the first attachment element (104, 204) comprises an anchor that is secured at a fixed position around the circumference of the delivery wire (108, 208), characterized in that the other end of the fibers are unsecured or are secured in a bundle at a second attachment element without fixed attachment to the actuation structure; and the actuation structure is configured to engage the second attachment element to move the second attachment element with the secured fiber ends along the delivery wire (108, 208) to extend radially outward the center of the fibers or to interface with the unsecured ends of the fiber bundle to flare the ends of the fibers into an extended configuration.
An insulated connection system for connecting at least a first busbar and a second busbar to at least a first connector and a second connector, the second busbar including a bar orifice to connect the first connector to the first busbar through the second busbar, the insulated connection system having: - a busbar positioning assurance member having a hollow body of electrically insulating material configured to accommodate a portion of the first connector, the insulated connection system being characterised in that: - the insulated connection system comprises an electrically insulating casing defining:. a first recess portion for accommodating a first connecting portion of the first busbar, the first recess portion defining a first connection orifice for connecting the first connecting portion to the first connector,. a second recess portion for accommodating a second connecting portion of the second busbar; the second recess portion defining a second connection orifice for connecting the second connecting portion to the second connector,. a sleeve portion for accommodating a portion of the second busbar provided with the bar orifice, the sleeve portion defining a connector passage (43A, 43B) configured to allow the passage of the first connector through the sleeve portion, - the busbar positioning assurance member being further configured to be received in the connector passage (43A, 43B) and the bar orifice when the bar orifice is aligned with the connector passage (43A, 43B). - the insulated connection system comprises an electrically insulating casing defining:. a first recess portion for accommodating a first connecting portion of the first busbar, the first recess portion defining a first connection orifice for connecting the first connecting portion to the first connector,. a second recess portion for accommodating a second connecting portion of the second busbar; the second recess portion defining a second connection orifice for connecting the second connecting portion to the second connector,. a sleeve portion for accommodating a portion of the second busbar provided with the bar orifice, the sleeve portion defining a connector passage (43A, 43B) configured to allow the passage of the first connector through the sleeve portion,. a first recess portion for accommodating a first connecting portion of the first busbar, the first recess portion defining a first connection orifice for connecting the first connecting portion to the first connector,. a second recess portion for accommodating a second connecting portion of the second busbar; the second recess portion defining a second connection orifice for connecting the second connecting portion to the second connector,. a sleeve portion for accommodating a portion of the second busbar provided with the bar orifice, the sleeve portion defining a connector passage (43A, 43B) configured to allow the passage of the first connector through the sleeve portion, - the busbar positioning assurance member being further configured to be received in the connector passage (43A, 43B) and the bar orifice when the bar orifice is aligned with the connector passage (43A, 43B).
A process for reducing air flow through a structure insulated with one or more layers of fiber wool or particulate insulating material, the layers of fiber wool or particulate insulating material having an exposed surface and edges at which the exposed surface of the fiber wool or particulate insulating material meets an enclosing member of the structure, comprising a) applying a layer of a foamed fluid polymeric composition onto the exposed surface of the fiber wool or particulate insulating material to cover the edges at which the exposed surface of the fiber wool or particulate insulating material meets an enclosing member of the structure and then; b) curing the applied layer of foamed fluid polymeric composition to form a polymeric coating on the exposed surface of the fiber wool or particulate insulating material, which coating seals the edge or edges at which the exposed surface of the insulation meets the enclosing members of the structure, and wherein the polymeric coating has at least one glass transition temperature of 15°C or less, and wherein the polymeric coating covers the entire exposed surface of the insulation. a) applying a layer of a foamed fluid polymeric composition onto the exposed surface of the fiber wool or particulate insulating material to cover the edges at which the exposed surface of the fiber wool or particulate insulating material meets an enclosing member of the structure and then; b) curing the applied layer of foamed fluid polymeric composition to form a polymeric coating on the exposed surface of the fiber wool or particulate insulating material, which coating seals the edge or edges at which the exposed surface of the insulation meets the enclosing members of the structure, and wherein the polymeric coating has at least one glass transition temperature of 15°C or less, and wherein the polymeric coating covers the entire exposed surface of the insulation.
A vertical wind generator having at least two blades which are rotatably mounted with regard to a central vertical rotation axis, wherein the blades each comprise a main blade with a longitudinal side and a fore blade attached to the longitudinal side of the main blade, wherein the fore blade is movable between a first position and a second position each with regard to the main blade, wherein the vertical wind generator comprises a mechanical, automatic mechanism which is adapted to move the fore blades between the first and the second position with regard to the main blades, wherein the mechanism is adapted to move the fore blades toward the main blade at increasing wind speeds and to move the fore blades away from the main blade at decreasing wind speeds depending on the angular speed of the blades.
A quick response, QR, code feature detection method, comprising: presetting a threshold of a number of rows, and dividing a received QR code image into a multi-row image of rows of pixels whose number of rows is the same as the threshold of the number of rows; calculating an average grayscale value of each column of pixels in the multi-row image to form row data; binarizing the row data; counting the number of consecutive "1" and the number of consecutive "0" in the binarized row data to form row proportions based on the counted number of consecutive "1" and consecutive "0"; presetting a row proportion threshold, and extracting a rectangle image corresponding to a row proportion whose similarity score with respect to a preset proportion is smaller than the row proportion threshold from the row proportions; presetting a width threshold, and binarizing the rectangle image and a region formed by extending the rectangle image by the width threshold upwardly and downwardly respectively; searching for column line segments meeting the preset proportion on a middle column of the rectangle image; translating a diagonal line of a square image containing the rectangle image and the column line segments in upward and downward directions respectively; searching for and recording black-white demarcation points on the edge of the square image on the translated diagonal line; and connecting the black-white demarcation points to form a position detection pattern of the QR code. presetting a threshold of a number of rows, and dividing a received QR code image into a multi-row image of rows of pixels whose number of rows is the same as the threshold of the number of rows; calculating an average grayscale value of each column of pixels in the multi-row image to form row data; binarizing the row data; counting the number of consecutive "1" and the number of consecutive "0" in the binarized row data to form row proportions based on the counted number of consecutive "1" and consecutive "0"; presetting a row proportion threshold, and extracting a rectangle image corresponding to a row proportion whose similarity score with respect to a preset proportion is smaller than the row proportion threshold from the row proportions; presetting a width threshold, and binarizing the rectangle image and a region formed by extending the rectangle image by the width threshold upwardly and downwardly respectively; searching for column line segments meeting the preset proportion on a middle column of the rectangle image; translating a diagonal line of a square image containing the rectangle image and the column line segments in upward and downward directions respectively; searching for and recording black-white demarcation points on the edge of the square image on the translated diagonal line; and connecting the black-white demarcation points to form a position detection pattern of the QR code.
A bumper assembly, which enables to decrease the effect of crash on the life cabin by absorbing the shock effect created by the vehicle accidents and comprising; - at least one traverse which is manufactured from metal sheet and extends along the width of the vehicle, - at least two first shock absorbers which are provided at both ends of the traverse between the traverse and the vehicle chassis, enable to absorb crash effects transferred from the traverse, - at least two second shock absorbers being provided at both ends of the traverse on the side where the traverse is not connected to the vehicle chassis, which two second shock absorbers absorb crash effects transferred from the traverse, - at least one third shock absorber being provided in the middle of the traverse on the side where the traverse is not connected to the vehicle chassis, which third shock absorber absorbs crash effects transferred from the traverse, and characterized by - the traverse has at least one hole at each end where the first shock absorber and the second shock absorber correspond to - the first shock absorber has protrusions thereon passing through the holes on the traverse, - the protrusions which are provided on the first shock absorber, and fixed to the second shock absorber using hot member welding method. - at least one traverse which is manufactured from metal sheet and extends along the width of the vehicle, - at least two first shock absorbers which are provided at both ends of the traverse between the traverse and the vehicle chassis, enable to absorb crash effects transferred from the traverse, - at least two second shock absorbers being provided at both ends of the traverse on the side where the traverse is not connected to the vehicle chassis, which two second shock absorbers absorb crash effects transferred from the traverse, - at least one third shock absorber being provided in the middle of the traverse on the side where the traverse is not connected to the vehicle chassis, which third shock absorber absorbs crash effects transferred from the traverse, and characterized by - the traverse has at least one hole at each end where the first shock absorber and the second shock absorber correspond to - the first shock absorber has protrusions thereon passing through the holes on the traverse, - the protrusions which are provided on the first shock absorber, and fixed to the second shock absorber using hot member welding method.
Device for igniting an aircraft engine, comprising at least two spark plugs, the device comprising a power supply, a first path for supplying power to a first spark plug and a second path for supplying power to a second spark plug, said paths (3, 4) being connected to the power supply by distribution means of the power supply, characterised in that said distribution means comprise a first circuit that is configured to alternately supply power to said first path or said second path, and a second circuit for simultaneously supplying power to said first and second paths, the device being configured to use either the first circuit or the second circuit during start-up.
A brewer system for making and dispensing a beverage from a mixture of liquid and infusible solid particles, the system comprising: a chamber for receiving the liquid and the particles, the chamber being provided with an inner surface and an outlet for dispensing the beverage; a piston in sealed contact with the inner surface and vertically displaceable within the chamber, the piston dividing the chamber into an upper portion above the piston and a sealed lower portion below the piston, the piston comprising a filter and configured so that the mixture collects in the upper portion; a driving mechanism mountable to the piston and configured for displacing the piston within the chamber according to an infusion cycle, the infusion cycle comprising displacing the piston downward within the chamber, thereby forcing air from the sealed lower portion through the filter and into the upper portion so as to agitate the mixture, and subsequently displacing the piston upward within the chamber, thereby drawing the beverage from the upper portion through the filter and into the sealed lower portion while spent solid particles remain above the filter; and a dispensing mechanism mounted about the outlet of the chamber, the dispensing mechanism dispensing the beverage out of said brewer system. a chamber for receiving the liquid and the particles, the chamber being provided with an inner surface and an outlet for dispensing the beverage; a piston in sealed contact with the inner surface and vertically displaceable within the chamber, the piston dividing the chamber into an upper portion above the piston and a sealed lower portion below the piston, the piston comprising a filter and configured so that the mixture collects in the upper portion; a driving mechanism mountable to the piston and configured for displacing the piston within the chamber according to an infusion cycle, the infusion cycle comprising displacing the piston downward within the chamber, thereby forcing air from the sealed lower portion through the filter and into the upper portion so as to agitate the mixture, and subsequently displacing the piston upward within the chamber, thereby drawing the beverage from the upper portion through the filter and into the sealed lower portion while spent solid particles remain above the filter; and a dispensing mechanism mounted about the outlet of the chamber, the dispensing mechanism dispensing the beverage out of said brewer system.
A lithium manganese phosphate/carbon nanocomposite suitable as a cathode material for rechargeable electrochemical cells, having the general formula Li x Mn y M 1-y (PO 4) z /C where M is at least one other metal selected from Fe, Ni, Co, Cr, V, Mg, Ca, Al, B, Zn, Cu, Nb, Ti, Zr, La, Ce, Y, x = 0.8-1.1, y = 0.5-1.0, 1.0 <z <1.1, with a carbon content of 0.5 to 20% by weight, obtainable by milling precursors of Li x Mn y M 1-y (PO 4) z with:- (a) electro-conductive carbon black having a specific surface area of at least 80 m 2 /g (b) graphite having a specific surface area of at least 9.5 m 2 /g or (c) activated carbon having a specific surface area of at least 200 m 2 /g wherein the phosphate precursor for lithium metal phosphate is utilized in stoichiometric excess with respect to the metal precursors. (a) electro-conductive carbon black having a specific surface area of at least 80 m 2 /g (b) graphite having a specific surface area of at least 9.5 m 2 /g or (c) activated carbon having a specific surface area of at least 200 m 2 /g wherein the phosphate precursor for lithium metal phosphate is utilized in stoichiometric excess with respect to the metal precursors.
A runner for a hydraulic machine, comprising: a band; a crown; a plurality of blades extending between the crown and the band, characterised in that the runner comprises a plurality of runner segments which together define the runner, each runner segment comprising a band portion, a crown portion and a single blade, each runner segment being integrally formed, each runner segment being attached to another runner segment at a band joining edge and a crown joining edge, wherein the band joining edge and the crown joining edge are each spaced apart from the blade of the runner segment. a band; a crown; a plurality of blades extending between the crown and the band, characterised in that the runner comprises a plurality of runner segments which together define the runner, each runner segment comprising a band portion, a crown portion and a single blade, each runner segment being integrally formed, each runner segment being attached to another runner segment at a band joining edge and a crown joining edge, wherein the band joining edge and the crown joining edge are each spaced apart from the blade of the runner segment.
A system for creating a temporal record in a polynucleotide log, the system comprising: a gene oscillator that creates a signal at a known periodicity; a double-stranded polynucleotide (100; 502; 600; 704) having a target site (102; 116; 504; 602; 604; 716); an enzyme (104; 506, 706) configured to create a double strand break in the double-stranded polynucleotide at a cut site (106; 202; 528) in the target site (102; 116; 504; 602; 604; 716); and a gene encoding a homology directed repair template (108; 514; 606; 708) configured for insertion into the cut site, the HDR template including a middle portion that is not homologous to the target site (102; 116; 504; 602; 604; 716), wherein expression of the gene encoding the HDR template is based on the presence of the signal relative to a threshold level, wherein the HDR template (108; 514; 606; 708) is incorporated into the double-stranded polynucleotide (100; 502; 600; 704) with a frequency that is based on the periodicity. a gene oscillator that creates a signal at a known periodicity; a double-stranded polynucleotide (100; 502; 600; 704) having a target site (102; 116; 504; 602; 604; 716); an enzyme (104; 506, 706) configured to create a double strand break in the double-stranded polynucleotide at a cut site (106; 202; 528) in the target site (102; 116; 504; 602; 604; 716); and a gene encoding a homology directed repair template (108; 514; 606; 708) configured for insertion into the cut site, the HDR template including a middle portion that is not homologous to the target site (102; 116; 504; 602; 604; 716), wherein expression of the gene encoding the HDR template is based on the presence of the signal relative to a threshold level, wherein the HDR template (108; 514; 606; 708) is incorporated into the double-stranded polynucleotide (100; 502; 600; 704) with a frequency that is based on the periodicity.