mhurhangee/ep-ind-claims huggingface dataset:
A liquid crystal display, comprising: a first display panel and a second display panel opposing the first display panel with a liquid crystal layer interposed between the first display panel and the second display panel; the first display panel comprises a gate line and a data line disposed on first substrate, a pixel electrode connected to the gate line and the data line and disposed on the first substrate, and a first alignment layer disposed on the pixel electrode; the second display panel comprises a common electrode disposed on the second substrate and a second alignment layer disposed on the common electrode,; wherein the first alignment layer comprises first photo-polymerization protrusions including a photo-polymerized material formed from prepolymers being polymerized by ultraviolet light and disposed at the surface of the first display panel facing the liquid crystal layer; and the second alignment layer comprises second photo-polymerization protrusions including a photo-polymerized material formed from prepolymers being polymerized by ultraviolet light and disposed at the surface of the second display panel facing the liquid crystal layer; characterized in that the density and the size of the first photo-polymerization protrusions are greater than the density and the size of the second photo-polymerization protrusions; and in that the liquid crystal display has a curvature; and an axis of the curvature is parallel to at least one extending direction of the gate line and the data line. a first display panel and a second display panel opposing the first display panel with a liquid crystal layer interposed between the first display panel and the second display panel; the first display panel comprises a gate line and a data line disposed on first substrate, a pixel electrode connected to the gate line and the data line and disposed on the first substrate, and a first alignment layer disposed on the pixel electrode; the second display panel comprises a common electrode disposed on the second substrate and a second alignment layer disposed on the common electrode,; wherein the first alignment layer comprises first photo-polymerization protrusions including a photo-polymerized material formed from prepolymers being polymerized by ultraviolet light and disposed at the surface of the first display panel facing the liquid crystal layer; and the second alignment layer comprises second photo-polymerization protrusions including a photo-polymerized material formed from prepolymers being polymerized by ultraviolet light and disposed at the surface of the second display panel facing the liquid crystal layer; characterized in that the density and the size of the first photo-polymerization protrusions are greater than the density and the size of the second photo-polymerization protrusions; and in that the liquid crystal display has a curvature; and an axis of the curvature is parallel to at least one extending direction of the gate line and the data line.
A method of determination of an analyte in solution in which partial fill is detected, in an electrochemical test strip having electrodes and a liquid sample disposed between the electrodes, the method comprising the steps of: (a) introducing sample to an electrochemical test strip; (b) applying a constant potential difference, V app, between the electrodes of the test strip to which the sample has been introduced, said application of potential being carried out at least a first time, and optionally a second time; (c) switching off the applied potential at time t switch after the first application of potential and before any second application of potential to create an open circuit that forces the current to be zero and optionally reapplying a second potential; wherein determination of analyte in solution is made by making an analyte-dependent current measurement between the electrodes during the first or second applications of potential, and wherein detection of partial fill comprises the steps of: (d) measuring a first current value between the electrodes, wherein the first measured current value is representative of the current between the electrodes just prior to time t switch or an extrapolated value of this current to a measurement time, t meas, assuming that the applied potential had not been switched off; (e) measuring a voltage change after the applied potential is switched off, and determining the double layer capacitance of test strip from the measured current and the observed voltage change; and (f) comparing the determined double layer capacitance to a reference value, wherein a double layer capacitance less than the reference value is an indication that the liquid sample covers a portion of the electrodes and that the electrochemical test strip is only partially filled. (a) introducing sample to an electrochemical test strip; (b) applying a constant potential difference, V app, between the electrodes of the test strip to which the sample has been introduced, said application of potential being carried out at least a first time, and optionally a second time; (c) switching off the applied potential at time t switch after the first application of potential and before any second application of potential to create an open circuit that forces the current to be zero and optionally reapplying a second potential; (d) measuring a first current value between the electrodes, wherein the first measured current value is representative of the current between the electrodes just prior to time t switch or an extrapolated value of this current to a measurement time, t meas, assuming that the applied potential had not been switched off; (e) measuring a voltage change after the applied potential is switched off, and determining the double layer capacitance of test strip from the measured current and the observed voltage change; and (f) comparing the determined double layer capacitance to a reference value, wherein a double layer capacitance less than the reference value is an indication that the liquid sample covers a portion of the electrodes and that the electrochemical test strip is only partially filled.
A non-aqueous electrolyte additive comprising: at least one compound selected from a first compound group consisting of phosphazene compounds represented by the following general formula: (NPR 2) n ··· wherein one R of the total number 2 × n of R groups represents a hexafluoroisopropoxy group and the other Rs represent fluorine, and n is from 3 to 14; and at least one compound selected from a second compound group consisting of borate represented by the following general formula, bis(oxalato)borate, difluoro(oxalato)borate, tris(oxalato)phosphate, difluoro(bisoxalato)phosphate, and tetrafluoro(oxalato)phosphate: wherein A a+ represents a cation, and a represents a valency of the cation. at least one compound selected from a first compound group consisting of phosphazene compounds represented by the following general formula: (NPR 2) n ··· wherein one R of the total number 2 × n of R groups represents a hexafluoroisopropoxy group and the other Rs represent fluorine, and n is from 3 to 14; and at least one compound selected from a second compound group consisting of borate represented by the following general formula, bis(oxalato)borate, difluoro(oxalato)borate, tris(oxalato)phosphate, difluoro(bisoxalato)phosphate, and tetrafluoro(oxalato)phosphate: wherein A a+ represents a cation, and a represents a valency of the cation.
A ski having a structure including: • a lower assembly formed by a base bordered by edges and one or more lower reinforcing layers; • an upper assembly formed by one or more upper reinforcing layers and an upper protective and decorative layer; • a core interposed between the lower assembly and the upper assembly; • an elongated element extending in the longitudinal direction of the ski, separating the core into two portions (21, 22) and coming into contact with the upper assembly and lower assembly, characterized in that the elongated element is formed by assembling at least three layers extending vertically between the upper assembly and lower assembly, the three layers comprising a central layer produced from a material having a transverse Young's modulus which is higher than the transverse Young's modulus of the material composing the core (21, 22), and two lateral layers (31, 32) which come into contact with the central layer and are produced from an elastomeric material. • a lower assembly formed by a base bordered by edges and one or more lower reinforcing layers; • an upper assembly formed by one or more upper reinforcing layers and an upper protective and decorative layer; • a core interposed between the lower assembly and the upper assembly; • an elongated element extending in the longitudinal direction of the ski, separating the core into two portions (21, 22) and coming into contact with the upper assembly and lower assembly,
An apparatus comprising: a building information model defined by a set of geographic coordinates of a secured area embodied in a memory; a plurality of security devices (12, 14) located within the secured area where each of the plurality of security devices (12, 14) has a wireless transceiver (42, 44) and a short range wireless transceiver (50, 52), wherein each of the plurality of security devices (12, 14) is wirelessly connected to a control panel using a respective wireless transceiver (42, 44); and a portable user device having a portable device wireless transceiver, a global positioning system and a programmed processor wherein the programmed processor of the portable user device interrogates the short range wireless transceiver (50, 52) of each of the plurality of security devices (12, 14) using the portable device wireless transceiver for identification and functional information of the security device (12, 14) as a user of the portable user device traverses the secured area, the programmed processor saves the identification and functional information along with geographic coordinates of each of the plurality of security devices (12, 14) under the BIM into a memory. a building information model defined by a set of geographic coordinates of a secured area embodied in a memory; a plurality of security devices (12, 14) located within the secured area where each of the plurality of security devices (12, 14) has a wireless transceiver (42, 44) and a short range wireless transceiver (50, 52), wherein each of the plurality of security devices (12, 14) is wirelessly connected to a control panel using a respective wireless transceiver (42, 44); and a portable user device having a portable device wireless transceiver, a global positioning system and a programmed processor wherein the programmed processor of the portable user device interrogates the short range wireless transceiver (50, 52) of each of the plurality of security devices (12, 14) using the portable device wireless transceiver for identification and functional information of the security device (12, 14) as a user of the portable user device traverses the secured area, the programmed processor saves the identification and functional information along with geographic coordinates of each of the plurality of security devices (12, 14) under the BIM into a memory.
Handle fastening coupling, in particular for household and garden appliances, with a guide piece which is pressed into one handle end and has an elongate guide channel for an appliance plug-in pin which is adapted in terms of its shape and its dimensions to the guide channel and has a first end which is fastened to the appliance and a second free end, the second end having a locking opening, and with a bolt element which is preloaded by way of a latching spring in a first radial direction transversely with respect to the handle axis and is configured for latching into the locking opening of the appliance plug-in pin, it being possible for the bolt element to be moved out of the locking opening in the radial direction by way of an operating button, in order to release the appliance plug-in pin for pulling out of the guide channel, characterized in that at least one pressure cam which is preloaded inwards in the radial direction is arranged adjacently with respect to the locking opening in the guide channel of the guide piece, which pressure cam is configured to exert a radial force at an angle with respect to the first radial direction on an appliance plug-in pin which is plugged into the guide channel and, adjacently with respect to the locking opening, has recesses which extend from the respective outer edges of the appliance plug-in pin in the direction of its centre axis and into which the at least one pressure cam of an appliance plug-in pin which is plugged into the guide channel engages.
An electronic aerosol provision device, the device comprising a housing for receipt of an aerosol generating component, the housing comprising an air inlet and an aerosol outlet, wherein the device is configured to induce a reduction in the temperature of an aerosol when exiting the air inlet, characterised in that the air inlet comprises an aperture with at least one fixed obstruction which extends at least partially across the aperture without fully preventing airflow through the aperture.
Heat transfer module with a heat transfer device for tempering a fluid by means of a heat transfer medium, wherein the heat transfer device is disposed on a base plate, - wherein on the base plate is disposed at least one additional unit, - wherein in the base plate are provided at least following channels, - a feed and a discharge for the fluid to be tempered, and - a feed and a discharge for the heat transfer medium, characterised in - that in the base plate are disposed at least one feed duct and one discharge duct of the at least one additional unit, which feed duct and discharge duct are in the base plate fluidically separated from the feed (7, 9) and from the discharge (8, 10), - that the feed duct and the discharge duct of the at least one additional unit are disposed both externally to and below the heat transfer device, - that the additional unit is formed as a pump or as a filter device, in particular as an oil filter. - wherein on the base plate is disposed at least one additional unit, - wherein in the base plate are provided at least following channels, - a feed and a discharge for the fluid to be tempered, and - a feed and a discharge for the heat transfer medium, characterised in - a feed and a discharge for the fluid to be tempered, and - a feed and a discharge for the heat transfer medium, - that in the base plate are disposed at least one feed duct and one discharge duct of the at least one additional unit, which feed duct and discharge duct are in the base plate fluidically separated from the feed (7, 9) and from the discharge (8, 10), - that the feed duct and the discharge duct of the at least one additional unit are disposed both externally to and below the heat transfer device, - that the additional unit is formed as a pump or as a filter device, in particular as an oil filter.
A method to characterize a power transfer of a heating surface of a nuclear heating component with a deposit layer of material placed on a side of the component, comprising; obtaining a sample of the deposit layer on the side of the heating component; obtaining an image of an interior facing inside surface of the sample; obtaining an image of an exterior facing outside surface of the sample; analyzing the images of the inside surface and the outside surface of the sample for a presence of capillaries and steam chimneys; determining a number of capillaries and steam chimneys for the inside surface and the outside surface; determining a diameter of capillaries and steam chimneys for the inside surface and the outside surface; and calculating the power transfer of the heating component based on the number of steam chimneys in the deposit layer.
A fixing device comprising: a belt to rotate in a rotation direction; a heater to heat the belt; a conductive member to contact an inner face of the belt, the conductive member to pivot, the conductive member including: one end portion in the rotation direction of the belt; a contact portion to contact the belt; and an outboard portion disposed outboard from the contact portion in the rotation direction of the belt; a holding portion to hold the one end portion of the conductive member; characterised by a pivot restrictor to contact the outboard portion of the conductive member, the pivot restrictor to restrict pivoting of the conductive member about the one end portion of the conductive member. a belt to rotate in a rotation direction; a heater to heat the belt; a conductive member to contact an inner face of the belt, the conductive member to pivot, the conductive member including: one end portion in the rotation direction of the belt; a contact portion to contact the belt; and an outboard portion disposed outboard from the contact portion in the rotation direction of the belt; one end portion in the rotation direction of the belt; a contact portion to contact the belt; and an outboard portion disposed outboard from the contact portion in the rotation direction of the belt; a holding portion to hold the one end portion of the conductive member; characterised by a pivot restrictor to contact the outboard portion of the conductive member, the pivot restrictor to restrict pivoting of the conductive member about the one end portion of the conductive member.
A positioning apparatus, comprising: a first portion having a first opening for alignment with a port entry point; a second portion having a second opening being positionable for alignment with the first opening from a plurality of different positions; and an actuation mechanism coupled to the second portion to set relative positions of the first and second openings, wherein the second portion is positioned for alignment with the first opening from the plurality of the different positions; characterized in that the first opening and the second opening are configured to hold a same tool channel through which a tool can be inserted; and that the actuation mechanism is configured to set a specific orientation of an axis of the tool channel by setting the relative positions between the first portion having the first opening and the second portion having the second opening, wherein the first opening is formed in a plate that connects to a mounting position on a subject such that the first opening corresponds with a port entry point in the subject, wherein the actuation mechanism includes two orthogonal linear stages for adjustment of the second portion relative to the first opening. a first portion having a first opening for alignment with a port entry point; a second portion having a second opening being positionable for alignment with the first opening from a plurality of different positions; and an actuation mechanism coupled to the second portion to set relative positions of the first and second openings, wherein the second portion is positioned for alignment with the first opening from the plurality of the different positions; characterized in that the first opening and the second opening are configured to hold a same tool channel through which a tool can be inserted; and that the actuation mechanism is configured to set a specific orientation of an axis of the tool channel by setting the relative positions between the first portion having the first opening and the second portion having the second opening, wherein the first opening is formed in a plate that connects to a mounting position on a subject such that the first opening corresponds with a port entry point in the subject, wherein the actuation mechanism includes two orthogonal linear stages for adjustment of the second portion relative to the first opening.
A resin formed body having a surface in which hydrophobic fine particles are distributed, the hydrophobic fine particles having a BET specific surface area of not less than 400 m 2 /g, wherein (a) said hydrophobic fine particles are dispersed in the surface resin layer that is forming the surface of said resin formed body, said hydrophobic fine particles, further, being partly distributed in said surface and wherein said hydrophobic fine particles are added in an amount of 40 to 100 parts by weight per 100 parts by weight of the resin that forms said surface; and (b) said resin formed body has the form of a bottle, a pouring fitting, a cap, a tray or a cup. (a) said hydrophobic fine particles are dispersed in the surface resin layer that is forming the surface of said resin formed body, said hydrophobic fine particles, further, being partly distributed in said surface and wherein said hydrophobic fine particles are added in an amount of 40 to 100 parts by weight per 100 parts by weight of the resin that forms said surface; and (b) said resin formed body has the form of a bottle, a pouring fitting, a cap, a tray or a cup.
A method for producing a three-dimensional structure on a face of a flat substrate, comprising the following steps: - providing the substrate with the face ready to be treated; - applying a relief product in the form of droplets on the face, such that selected positions of droplets are produced on the face; - applying a covering product to the face such that it forms a layer over the face; - fixing by drying or curing the layer of the covering product to obtain the selected positions on the face free from the covering product; the relief product comprising properties which provide a delaying effect in the drying or curing such that the drying or curing time of the relief product is greater than that of the covering product. - providing the substrate with the face ready to be treated; - applying a relief product in the form of droplets on the face, such that selected positions of droplets are produced on the face; - applying a covering product to the face such that it forms a layer over the face; - fixing by drying or curing the layer of the covering product to obtain the selected positions on the face free from the covering product;