mhurhangee/ep-ind-claims huggingface dataset:
An image sensor, comprising: a substrate; an isolation structure disposed on the substrate, wherein the isolation structure is electrically non-conductive and defines a plurality of pixel regions on the substrate; a photoelectric conversion layer disposed on the pixel regions defined by the isolation structure, wherein the isolation structure prevents cross-talk of electrical signals in the photoelectric conversion layer among the pixel regions; a transparent electrode layer disposed over the isolation structure and the photoelectric conversion layer; an encapsulation layer disposed over the transparent electrode layer; a color filter layer disposed over the encapsulation layer corresponding to the pixel regions; and a micro-lens layer disposed on the color filter layer, wherein the isolation structure comprises isolation walls, wherein the isolation walls are portions of the isolation structure between adjacent ones of the plurality of pixel regions, characterized in that the photoelectric conversion layer exposes at least a portion of sidewalls of the isolation walls. a substrate; an isolation structure disposed on the substrate, wherein the isolation structure is electrically non-conductive and defines a plurality of pixel regions on the substrate; a photoelectric conversion layer disposed on the pixel regions defined by the isolation structure, wherein the isolation structure prevents cross-talk of electrical signals in the photoelectric conversion layer among the pixel regions; a transparent electrode layer disposed over the isolation structure and the photoelectric conversion layer; an encapsulation layer disposed over the transparent electrode layer; a color filter layer disposed over the encapsulation layer corresponding to the pixel regions; and a micro-lens layer disposed on the color filter layer, wherein the isolation structure comprises isolation walls, wherein the isolation walls are portions of the isolation structure between adjacent ones of the plurality of pixel regions, characterized in that the photoelectric conversion layer exposes at least a portion of sidewalls of the isolation walls.
A method to determine a glucose concentration in a blood sample, the method comprising: depositing a blood sample in a test chamber of a test strip having at least first and second electrodes (10, 12, 14) in contact with a reagent and third and fourth electrodes (19a, 20a) not in contact with the reagent; driving a non-oscillating signal to the at least first and second electrodes (10, 12, 14) to cause a reaction with the glucose in the blood sample and the reagent; measuring a current output of the reaction to establish a preliminary glucose concentration; applying a first oscillating input signal at a first frequency to third and fourth electrodes (19a, 20a); detecting a first oscillating output signal from the third and fourth electrodes (19a, 20a); measuring a first time differential (Δ t1) between the first input and output oscillating signals (500, 502); applying a second oscillating input signal at a second frequency to the third and fourth electrodes (19a, 20a); detecting a second oscillating output signal from the third and fourth electrodes (19a, 20a); measuring a second time differential (Δ t2) between the first input and output oscillating signals; estimating a hematocrit of the blood sample based on the first and second time differentials (Δ t1, Δ t2); and deriving a final glucose concentration based on the preliminary glucose concentration and the hematocrit from the estimating step. depositing a blood sample in a test chamber of a test strip having at least first and second electrodes (10, 12, 14) in contact with a reagent and third and fourth electrodes (19a, 20a) not in contact with the reagent; driving a non-oscillating signal to the at least first and second electrodes (10, 12, 14) to cause a reaction with the glucose in the blood sample and the reagent; measuring a current output of the reaction to establish a preliminary glucose concentration; applying a first oscillating input signal at a first frequency to third and fourth electrodes (19a, 20a); detecting a first oscillating output signal from the third and fourth electrodes (19a, 20a); measuring a first time differential (Δ t1) between the first input and output oscillating signals (500, 502); applying a second oscillating input signal at a second frequency to the third and fourth electrodes (19a, 20a); detecting a second oscillating output signal from the third and fourth electrodes (19a, 20a); measuring a second time differential (Δ t2) between the first input and output oscillating signals; estimating a hematocrit of the blood sample based on the first and second time differentials (Δ t1, Δ t2); and deriving a final glucose concentration based on the preliminary glucose concentration and the hematocrit from the estimating step.
Method for cleaning a print head of a continuous ink jet printer, said print head comprising: * a cavity for the circulation of jets, * means (4, 4 1, 4 x, 4 n) for producing at least one ink jet in said cavity, * means, for sorting drops or segments of one or several of said jets intended for printing from drops or segments that are not used for printing; * at least one spraying nozzle (20, 24), arranged in said cavity, said at least one spraying nozzle (20, 24) being different from said means (4, 4 1, 4 x, 4 n) for producing at least one inkjet, * an outlet slot, open onto the exterior of the cavity and allowing the exiting of the drops or segment of ink intended for printing, * at least one gutter for recovering (7, 70) drops or segments not intended for printing, said method comprising: - supplying said spraying nozzle (20, 24) with cleaning fluid, and - projecting several pulses of a cleaning fluid by said spraying nozzle into the cavity and towards at least: * the means (4, 4 1, 4 x, 4 n) for producing at least one ink jet in said cavity; *and/or the gutter for recovering; *and/or said means for sorting drops or segments. * a cavity for the circulation of jets, * means (4, 4 1, 4 x, 4 n) for producing at least one ink jet in said cavity, * means, for sorting drops or segments of one or several of said jets intended for printing from drops or segments that are not used for printing; * at least one spraying nozzle (20, 24), arranged in said cavity, said at least one spraying nozzle (20, 24) being different from said means (4, 4 1, 4 x, 4 n) for producing at least one inkjet, * an outlet slot, open onto the exterior of the cavity and allowing the exiting of the drops or segment of ink intended for printing, * at least one gutter for recovering (7, 70) drops or segments not intended for printing, - supplying said spraying nozzle (20, 24) with cleaning fluid, and - projecting several pulses of a cleaning fluid by said spraying nozzle into the cavity and towards at least: * the means (4, 4 1, 4 x, 4 n) for producing at least one ink jet in said cavity; *and/or the gutter for recovering; *and/or said means for sorting drops or segments. * the means (4, 4 1, 4 x, 4 n) for producing at least one ink jet in said cavity; *and/or the gutter for recovering; *and/or said means for sorting drops or segments.
Use of compounds of the formula I, where R 1 and R 2 stand, independently of one another, for -H, -OH, -straight-chain or branched O-(C 1 - to C 6 -alkyl), where R 1 and R 2 may also together form an unsubstituted or substituted five-membered ring, in which one or two non-adjacent CH 2 groups may be replaced by O and which may be substituted by at least one straight-chain or branched alkyl group having 1 to 6 C atoms, and/or salts, tautomers, conformers and/or solvates thereof, including mixtures thereof in all ratios, as self-tanning substance. R 1 and R 2 stand, independently of one another, for -H, -OH, -straight-chain or branched O-(C 1 - to C 6 -alkyl), where R 1 and R 2 may also together form an unsubstituted or substituted five-membered ring, in which one or two non-adjacent CH 2 groups may be replaced by O and which may be substituted by at least one straight-chain or branched alkyl group having 1 to 6 C atoms, and/or salts, tautomers, conformers and/or solvates thereof, including mixtures thereof in all ratios, as self-tanning substance.
A burner, in particular a gas turbine burner, comprising: - at least one swirler, the swirler having at least one air inlet opening, at least one air outlet opening positioned downstream to the air inlet opening, swirler vanes, a swirler support and at least one swirler air passage extending between neighbouring swirler vanes from the at least one air inlet opening to the at least one air outlet opening which is delimited by swirler air passage walls (20, 22), the air passage walls (20, 22) comprising downstream wall sections adjoining the at least one air outlet opening where at least the downstream section of one air passage wall (20, 22) is corrugated,; and - a fuel injection system which comprises at least one first fuel injection opening arranged in at least one swirler vane so as to inject fuel into the swirler air passage and at least one second fuel injection openings which is arranged in the swirler support; characterised in that - the swirler support has a circular shape, - the at least one first fuel injection opening of a swirler air passage is positioned on a specific radius of the circular swirler support, and - the at least one second fuel injection opening in the swirler air passage is arranged at least nearly on the same radius as the first fuel injection opening. - at least one swirler, the swirler having at least one air inlet opening, at least one air outlet opening positioned downstream to the air inlet opening, swirler vanes, a swirler support and at least one swirler air passage extending between neighbouring swirler vanes from the at least one air inlet opening to the at least one air outlet opening which is delimited by swirler air passage walls (20, 22), the air passage walls (20, 22) comprising downstream wall sections adjoining the at least one air outlet opening where at least the downstream section of one air passage wall (20, 22) is corrugated,; and - a fuel injection system which comprises at least one first fuel injection opening arranged in at least one swirler vane so as to inject fuel into the swirler air passage and at least one second fuel injection openings which is arranged in the swirler support; characterised in that - the swirler support has a circular shape, - the at least one first fuel injection opening of a swirler air passage is positioned on a specific radius of the circular swirler support, and - the at least one second fuel injection opening in the swirler air passage is arranged at least nearly on the same radius as the first fuel injection opening.
A method performed by a networking device comprising: determining a first signal characteristic of a first connection between an electronic device and a first wireless communications network; determining a second signal characteristic between the electronic device and a second wireless communications network; and based on the first signal characteristic and the second signal characteristic, preventing the electronic device from attempting to establish a second connection between the electronic device and the second wireless communication network until one or more establishment criteria are met, wherein the first wireless communications network is a cellular network, wherein the second wireless communications network is a wireless local area network, WLAN, wherein the first signal characteristic and the second signal characteristic include respective information characterizing a quality of signals between the electronic device and the respective wireless communications network, wherein preventing the electronic device from attempting to establish the second connection includes partially null-beamforming probe responses transmitted to the electronic device. determining a first signal characteristic of a first connection between an electronic device and a first wireless communications network; determining a second signal characteristic between the electronic device and a second wireless communications network; and based on the first signal characteristic and the second signal characteristic, preventing the electronic device from attempting to establish a second connection between the electronic device and the second wireless communication network until one or more establishment criteria are met, wherein the first wireless communications network is a cellular network, wherein the second wireless communications network is a wireless local area network, WLAN, wherein the first signal characteristic and the second signal characteristic include respective information characterizing a quality of signals between the electronic device and the respective wireless communications network, wherein preventing the electronic device from attempting to establish the second connection includes partially null-beamforming probe responses transmitted to the electronic device.
Operating device having an operating element with haptic feedback, wherein the operating element has an input surface and can be actuated by an operator by means of an input member, wherein the operating device has two ferromagnetic planar components (1, 2, 101, 102, 200) and a coil (4, 401, 402), wherein the largest surfaces of the ferromagnetic planar components (1, 2, 101, 102, 200) are oriented with respect to one another and can be moved relative to one another, and wherein the coil (4, 401, 402) is disposed between the ferromagnetic components (1, 2, 101, 102, 200), wherein the input surface is configured either as part of one of the ferromagnetic planar components or is coupled by means of a coupling device (11a, 500) to one of the ferromagnetic planar components (1, 200), wherein the ferromagnetic planar components (1, 2, 101, 102, 200) can be moved with respect to one another by energizing the coil (4, 401, 402), and the movement of one of the ferromagnetic planar components (1, 2, 101, 102, 200) is perceptible to the tactile sense of the operator on the operating element either directly or by means of the coupling device (500, 11a), characterized in that the coil (4, 401, 402) is configured as a flat coil and wherein the flat coil (4, 401, 402) is implemented from conductor tracks on a printed circuit board (3, 300).
Modular fence structure, comprising at least one upright adapted to support at least one transverse containment element (3, 4, 6, 8, 9, 10, 19) and/or at least one stringer, said at least one upright being constituted by a tubular body, whereby said modular fence structure comprises at least one connection and support element of said at least one upright for the connection, e.g. removable, of said at least one upright to the ground or in a curb or low wall constrained to the ground as well as the support of said at least one upright, said at least one connection and support element being, on one side, connectable or fixable or fitted in the ground or in a curb or low wall and on the other side it is insertable or inserted in the through hole delimited by a respective upright or it is arranged side-by-side or outside a respective upright, said structure also comprising means for constraining or engaging said at least one connection and support element with said at least one upright, wherein said at least one connection and support element comprises a section bar or post with U-shaped section and including a main sheet with two edges or wings folded with respect to the main sheet, said section bar or post being inserted in said at least one upright or it is located side-by-side or outside said at least one upright, characterised in that said section bar or post delimits first slots having main extension, in use, vertical, whereas said at least one upright delimits second slots having main extension, in use, horizontal and partially aligned with the first slots in the section bar or post for the insertion of a screw or bolt of the means for constraining or engaging, so that it is possible to arrange bidirectional adjustments for the installation of the fence, or wherein said section bar or post delimits first slots having main extension, in use, horizontal, whereas said at least one upright delimits second slots having main extension, in use, vertical and partially aligned with the first slots in the section bar or post for the insertion of a screw or bolt of the means for constraining or engaging, so that it is possible to arrange bidirectional adjustments for the installation of the fence.
A utility knife blade retainer (400, 500) configured to be received in and held by a tool container (200, 300), the utility knife blade retainer (400, 500) comprising: a generally trapezoidal shape defined in the utility knife blade retainer (400, 500) configured to contact multiple faces of a trapezoidal shape of utility knife blades received in the utility knife blade retainer (400, 500); an engagement feature configured to engage with the tool container (200, 300) to limit movement of the utility knife blade retainer (400, 500) within the tool container (200, 300); and characterized in that the utility knife blade retainer (400, 500) comprises a body portion (410, 510) having a relatively protruded region (410a, 510a) raised above a relatively recessed region (410b, 510b) positioned below a non-sharpened edge of a blade received in the utility knife blade retainer (400, 500) to maintain a space underneath the non-sharpened edge of the blade to facilitate grasping and removing the blade from the utility knife blade retainer (400, 500). a generally trapezoidal shape defined in the utility knife blade retainer (400, 500) configured to contact multiple faces of a trapezoidal shape of utility knife blades received in the utility knife blade retainer (400, 500); an engagement feature configured to engage with the tool container (200, 300) to limit movement of the utility knife blade retainer (400, 500) within the tool container (200, 300); and characterized in that the utility knife blade retainer (400, 500) comprises a body portion (410, 510) having a relatively protruded region (410a, 510a) raised above a relatively recessed region (410b, 510b) positioned below a non-sharpened edge of a blade received in the utility knife blade retainer (400, 500) to maintain a space underneath the non-sharpened edge of the blade to facilitate grasping and removing the blade from the utility knife blade retainer (400, 500).
Floor nozzle for a vacuum cleaner, comprising a floor body, at least one suction mouth which is arranged on the floor body and is fluidically connectable or connected to a suction assembly, and an abutment device which is able to abut against a surface to be cleaned and which surrounds the at least one suction mouth, wherein, when the abutment device abuts against the surface to be cleaned, a suction space is formed between the surface to be cleaned and the abutment device, into which space the suction mouth opens, and wherein the abutment device has on at least one side openings into the suction space, and wherein a moveable strip, which has at least two positions (108, 114), is associated with the at least one side having the openings, wherein a first position is a closing position, in which the openings are covered, and a second position is an unblocking position, in which the openings are unblocked, characterized in that a movement mechanism is provided for the at least one moveable strip, which couples the position of the at least one moveable strip to a stroke of the floor nozzle on the surface to be cleaned, and in that the movement mechanism has a first arm which is pivotably mounted relative to the floor nozzle and on which the at least one moveable strip is arranged, wherein a pivot movement of the first arm brings about a movement of the at least one moveable strip.
A central-string inverter device, comprising a container, and a plurality of string inverters installed in the container, wherein pulling structures corresponding to the plurality of string inverters are arranged on a string inverter bracket which is installed on a bottom wall of the container, and each of the string inverters is installed or removed through the corresponding pulling structure; the plurality of string inverters are arranged in two rows located respectively on two opposite sides of the container; an air outlet is arranged on each of the side walls of these two opposite sides of the container; an isolation duct is arranged on each of the side walls of the container having the air outlet; an air inlet is arranged on each of the side walls of the other two opposite sides of the container; an intermediate duct is formed between the two rows of string inverters; and the central-string inverter device is configured so that cold air enters into the container from the air inlets, then is passed through each of the string inverters for heat radiation, and after that the hot air is discharged directly to the outside environment of the container through the isolation duct and the air outlet.
Partially crystalline polyethylene terephthalate having a degree of polymerization larger than 80, manufactured from (a) a diol component which consists to 95 mol % up to 100 mol % of ethylene glycol, and (b) a dicarboxylic acid component, which consists to 95 mol % up to 100 mol % terephthalic acid, wherein the total comonomer content lies between 1 and 7%, wherein in a first step the diol component and dicarboxylic acid component are brought together in liquid phase to obtain a low viscosity prepolymer having a degree of polymerization between 10 and 50, and said prepolymer is thereafter granulated into granules having an average granule size between 0.2 mm and 3 mm, and the granules are subjected to a solid phase polycondensation at a temperature below 220°C for 6-30 h to obtain a polyethylene terephthalate, wherein the DSC melting point of said polyethylene terephthalate measured at a heat-up rate of 10° C/min in a first run and in a second run, lies below a comonomer-dependent melting temperature (Tm) of a comparable polyethylene terephthalate having been prepared via a solid state polycondensation from a prepolymer having a degree of polymerization between 65 and 80, which was formed into granules having a mass of 10 to 30 mg and which was cooled with water below its glass transition temperature, wherein Tm = T0 - 2.5°C *% comonomer content (in mol %) with T0 being smaller than/equal to 260°C, wherein the comonomer proportion of the diol component is comprised mainly of diethylene glycol, or wherein Tm = T0 - 3°C *% comonomer content (in mol %) with T0 being smaller than/equal to 260°C. (a) a diol component which consists to 95 mol % up to 100 mol % of ethylene glycol, and (b) a dicarboxylic acid component, which consists to 95 mol % up to 100 mol % terephthalic acid, wherein the total comonomer content lies between 1 and 7%,