mhurhangee/ep-ind-claims huggingface dataset:
A stochastic time-to-digital converter (1000; 2000) comprising: a first arbiter cell (100; 2210) configured to compare a timing of a reference signal with a timing of an input signal and to output a first comparison result (OT); a second arbiter cell (200; 2220) configured to compare the timing of the reference signal with the timing of the input signal and to output a second comparison result(OT); and a binary converter configured to calculate a phase difference between the reference signal and the input signal based on the first comparison result (OT) and the second comparison result (OT), characterized in that the first arbiter cell (100; 2210) is configured to compare based on a voltage selected by a first selection signal (SEL) from among a first voltage (VDDH) or a second voltage (VDDL) and the second arbiter cell (200; 2220) is configured to compare based on a voltage selected by a second selection signal (SEL) from among the first voltage (VDDH) or the second voltage (VDDL). a first arbiter cell (100; 2210) configured to compare a timing of a reference signal with a timing of an input signal and to output a first comparison result (OT); a second arbiter cell (200; 2220) configured to compare the timing of the reference signal with the timing of the input signal and to output a second comparison result(OT); and a binary converter configured to calculate a phase difference between the reference signal and the input signal based on the first comparison result (OT) and the second comparison result (OT), characterized in that the first arbiter cell (100; 2210) is configured to compare based on a voltage selected by a first selection signal (SEL) from among a first voltage (VDDH) or a second voltage (VDDL) and the second arbiter cell (200; 2220) is configured to compare based on a voltage selected by a second selection signal (SEL) from among the first voltage (VDDH) or the second voltage (VDDL).
Climbing bracket for suspension in a formwork part, with a frame and a hook displaceably mounted in the frame, wherein the hook can be suspended in the formwork part and can be secured within the formwork part against detachment from the formwork part, wherein the formwork part can be inserted into a formwork to form a wall opening and has an entry opening to the outside, a closed rear side and, in the lower part, a cavity for receiving a part of the hook, characterized in that, for securing reasons the formwork part and the hook of the climbing bracket each comprise at least one passive safety element (4a, 4b; 4c, 4d), wherein a respective securing element of the formwork part engages with a respective securing element of the hook during the action of a force on the hook in the vertical or oblique upward direction in such a way that the hook can be prevented from becoming detached from the formwork part, wherein the hook has a first surface and the formwork part has a second surface cooperating with the first surface under tensile load of the hook, wherein - the hook has a projection on the first surface and the formwork part has a recess on the second surface as securing elements, and/or - the first surface of the hook and the second surface of the formwork part, which interact when the hook is subjected to tensile load, are inclined in the insertion direction (x) of the hook in such a way that a lower region of the first and second surfaces (4c, 4d) is further away from a vertical rear side of the formwork part, wherein the rear side is perpendicular to the insertion direction (x), than an upper region of the first and second surfaces (4c, 4d). - the hook has a projection on the first surface and the formwork part has a recess on the second surface as securing elements, and/or - the first surface of the hook and the second surface of the formwork part, which interact when the hook is subjected to tensile load, are inclined in the insertion direction (x) of the hook in such a way that a lower region of the first and second surfaces (4c, 4d) is further away from a vertical rear side of the formwork part, wherein the rear side is perpendicular to the insertion direction (x), than an upper region of the first and second surfaces (4c, 4d).
A nucleic acid amplification device comprising: (i) a first reaction chamber fluidically coupled to a first inlet port and a first outlet port; (ii) second reaction chambers fluidically coupled to a second inlet port and a second outlet port, wherein each second reaction chamber is a detection chamber; (iii) a first pump, wherein the first inlet port is fluidically coupled to the first reaction chamber via the first pump and wherein the first pump is configured to provide a sample delivered to the nucleic acid amplification device via the first inlet port to the first reaction chamber; (iv) a second pump, wherein the first reaction chamber is fluidically coupled to the second reaction chambers via the second pump; and (v) a third pump, wherein the second inlet port is fluidically coupled to the second reaction chambers via the third pump, wherein the second and third pumps are configured to combine a reagent delivered to the nucleic acid amplification device body via the second inlet port with a product from the first reaction chamber to yield a reactant mixture, wherein the second and third pumps are configured to provide a portion of the reactant mixture to each of the second reaction chambers, and wherein the nucleic acid amplification device is a microfluidic device. (i) a first reaction chamber fluidically coupled to a first inlet port and a first outlet port; (ii) second reaction chambers fluidically coupled to a second inlet port and a second outlet port, wherein each second reaction chamber is a detection chamber; (iii) a first pump, wherein the first inlet port is fluidically coupled to the first reaction chamber via the first pump and wherein the first pump is configured to provide a sample delivered to the nucleic acid amplification device via the first inlet port to the first reaction chamber; (iv) a second pump, wherein the first reaction chamber is fluidically coupled to the second reaction chambers via the second pump; and (v) a third pump, wherein the second inlet port is fluidically coupled to the second reaction chambers via the third pump,
Compensation device for retaining specifiable target positions of a load that can be handled using a cable hoist and is attached to a cable on said cable hoist, said load changing its respective specifiable target position involuntarily to a different actual position as a result of disruptive influences, consisting of at least - one sensor device (240, 242) for directly or indirectly determining the respective actual position of the load; - one rotary drive (226, 228, 230) for specifying an effective cable length of the cable of the cable hoist; - at least one control device, which changes the effective cable length after determining the respective actual position of the load until the load regains its specifiable target position, wherein the respective rotary drive (226, 228, 230) can at least partially be controlled by at least one hydraulic motor (226, 228, 230) with opposing directions of rotation, said hydraulic motor being connected to an actuating device such as to convey fluids, said actuating device comprising at least two separate pressure chambers (250, 252, 282-288) with different pressure levels during operation to form a drive element for the respective hydraulic motor (226, 228, 230) and being able to be actuated and controlled by the control device, characterised in that the one pressure chamber of the actuating device in each case is operated in a form of high-pressure mode and at least one other pressure chamber of the drive element in each case is operated correspondingly in a form of low pressure mode, said chamber being permanently connected to a low-pressure accumulator in the form of a hydraulic accumulator. - one sensor device (240, 242) for directly or indirectly determining the respective actual position of the load; - one rotary drive (226, 228, 230) for specifying an effective cable length of the cable of the cable hoist; - at least one control device, which changes the effective cable length after determining the respective actual position of the load until the load regains its specifiable target position,
A patient interface device for a pressure support system, the pressure support system comprising a gas flow generator structured to produce a flow of breathing gas to be delivered to an airway of a patient, the patient interface device comprising: a sealing element structured to engage a face of the patient and to receive the flow of breathing gas; a lumen (104,104') having a first end and a second end (108, 108') opposite and distal the first end, the first end being in fluid communication with an interior of the sealing element; a connector member; a pressure sensor; wherein the connector member is coupled to the second end of the lumen and in that; the pressure sensor is coupled to the connector member, the pressure sensor being structured to sense pressure of a gas exiting the second end of the lumen and wherein a surface (120,120') is provided on the connector member, the surface defining a thru hole (122, 122') through which undesirable liquid in the lumen can escape so as to exit the patient interface device. a sealing element structured to engage a face of the patient and to receive the flow of breathing gas; a lumen (104,104') having a first end and a second end (108, 108') opposite and distal the first end, the first end being in fluid communication with an interior of the sealing element; a connector member; a pressure sensor; wherein the connector member is coupled to the second end of the lumen and in that; the pressure sensor is coupled to the connector member, the pressure sensor being structured to sense pressure of a gas exiting the second end of the lumen and wherein a surface (120,120') is provided on the connector member, the surface defining a thru hole (122, 122') through which undesirable liquid in the lumen can escape so as to exit the patient interface device.
A machine for making liquid and/or semi-liquid ice cream products comprising: a processing container forming a processing chamber for making a liquid and/or semi-liquid ice cream, pastry or catering product; a stirrer mounted inside the processing chamber; a thermal treatment system provided with at least one heat exchanger associated with the processing container, for exchanging heat with the container; a feed unit comprising a container containing a basic preparation for an ice cream, pastry or catering product, and a device for injecting a pressurized gaseous fluid, at a pressure measured inside the container with the container closed greater than 0.04 MPascal in differential relative to the atmospheric pressure, configured to inject the gaseous fluid into the container in such a way as to cause the basic preparation to be expelled from the container and transferred to the processing container; a diluting liquid injection device for delivering a diluting liquid which is associated with the processing container, for injecting the diluting liquid into the processing container, wherein the container is provided with an opening on its wall and houses an element which is movable between a closed position where the opening is closed and an open position where the opening is open, wherein the feed unit further comprises a plurality of containers (220A, 220B, 220C, 220D, 220E) for containing basic products, mounted above the container and a connecting duct for connecting the containment containers (220A, 220B, 220C, 220D, 220E) to the container. a processing container forming a processing chamber for making a liquid and/or semi-liquid ice cream, pastry or catering product; a stirrer mounted inside the processing chamber; a thermal treatment system provided with at least one heat exchanger associated with the processing container, for exchanging heat with the container; a feed unit comprising a container containing a basic preparation for an ice cream, pastry or catering product, and a device for injecting a pressurized gaseous fluid, at a pressure measured inside the container with the container closed greater than 0.04 MPascal in differential relative to the atmospheric pressure, configured to inject the gaseous fluid into the container in such a way as to cause the basic preparation to be expelled from the container and transferred to the processing container; a diluting liquid injection device for delivering a diluting liquid which is associated with the processing container, for injecting the diluting liquid into the processing container, wherein the container is provided with an opening on its wall and houses an element which is movable between a closed position where the opening is closed and an open position where the opening is open, wherein the feed unit further comprises a plurality of containers (220A, 220B, 220C, 220D, 220E) for containing basic products, mounted above the container and a connecting duct for connecting the containment containers (220A, 220B, 220C, 220D, 220E) to the container.
Method for determining at least one pendulum angle (φ) and/or angle of rotation (ψ) of a load attached to a crane via at least one cable-based fastening means, wherein the crane has a jib and a trolley which can be moved linearly along the jib by means of a drive facility, to which the load is fastened via the at least one cable-based fastening means, and there is provision on the crane for at least one optical detection facility for detecting a pendulum angle (φ) and/or angle of rotation (ψ) of the load, in which - a pendulum angle (φ) and/or angle of rotation (ψ) of the load is detected by means of the at least one optical detection facility, characterised in that - it is assumed that the detected pendulum angle (φ) and/or angle of rotation (ψ) is subject to a systematic error caused by the at least one optical detection facility, wherein a mathematic model is deployed which takes into account that the pendulum angle and/or the angle of rotation can contain an error, and - the value of the systematic error, to which the detected pendulum angle (φ) and/or angle of rotation (ψ) is subject, is established. - a pendulum angle (φ) and/or angle of rotation (ψ) of the load is detected by means of the at least one optical detection facility, - it is assumed that the detected pendulum angle (φ) and/or angle of rotation (ψ) is subject to a systematic error caused by the at least one optical detection facility, wherein a mathematic model is deployed which takes into account that the pendulum angle and/or the angle of rotation can contain an error, and - the value of the systematic error, to which the detected pendulum angle (φ) and/or angle of rotation (ψ) is subject, is established.
Kitchen appliance comprising a mixing vessel and a drive for a mixer in the mixing vessel, it being possible to heat the lower region of the mixing vessel, a mixer adjustment further being provided in which mixing phases operating at a predetermined mixing speed are interrupted by phases that start automatically and have a rotational speed (n) that is reduced compared with the mixing phases, characterised in that the reduced rotational speed (n) can be determined according to measurement data relating to the mixing vessel or the food to be cooked located therein, and/or the drive of the mixer.
An icemaker for a refrigerator appliance, the icemaker comprising: an icemaker box selectively closeable by a door, wherein an outer gasket (18, 18a, 18b, 18c) is positioned about an inner edge of the door and a sealing gasket is positioned around a center portion of the door; a plurality of protrusions extending from a box rim of the icemaker box, wherein a liner is aligned with and spaced apart from the box rim; and a first gasket and a second gasket positioned between the box rim and the liner, wherein the plurality of protrusions defines a first channel and a second channel, wherein the first gasket is positioned within the first channel and the second gasket is positioned within the second channel, wherein the plurality of protrusions includes a first protrusion positioned about an outer edge of the box rim, a second protrusion positioned between the outer edge of the box rim and an inner edge of the box rim and a third protrusion positioned about the inner edge of the box rim, wherein the liner includes a liner rim having an inner surface and an edge and wherein each of the inner surface and the edge of the liner rim abuts at least one of the plurality of protrusions. an icemaker box selectively closeable by a door, wherein an outer gasket (18, 18a, 18b, 18c) is positioned about an inner edge of the door and a sealing gasket is positioned around a center portion of the door; a plurality of protrusions extending from a box rim of the icemaker box, wherein a liner is aligned with and spaced apart from the box rim; and a first gasket and a second gasket positioned between the box rim and the liner, wherein the first gasket is positioned within the first channel and the second gasket is positioned within the second channel, wherein the plurality of protrusions includes a first protrusion positioned about an outer edge of the box rim, a second protrusion positioned between the outer edge of the box rim and an inner edge of the box rim and a third protrusion positioned about the inner edge of the box rim, wherein the liner includes a liner rim having an inner surface and an edge and wherein each of the inner surface and the edge of the liner rim abuts at least one of the plurality of protrusions.
Plant having biological activity of a haploid inducer and comprising a nucleotide sequence encoding a centromer histone H3 (CENH3) protein comprising a CATD domain, wherein the nucleotide sequence comprises a mutation causing an amino acid substitution at (a) position 92 of SEQ ID NO: 34; (b) position 106 of SEQ ID NO: 44; or (c) position 4 of SEQ ID NO: 1, wherein the amino acid substitution confers the biological activity of a haploid inducer.
A method for casting concrete products with a circulating line casting process (1, 1') comprising at least two straight and parallel production lines of production phases or work stations, which production lines are connected to each other with transversal transfer tracks at the ends of the production lines, where molds are transferred through production stages along a circulating line, and reinforcements for the concrete products to be cast are prefabricated in a separate reinforcement shop and transferred to the circulating line casting process, characterized in that the reinforcements are transferred from the reinforcement shop with a carriage (18, 18', 19) to the area located inside the circulating line casting process (1, 1') and left inside of the circulating line.
A heater, comprising: a ceramic body having a pillar or cylindrical shape; a heat generating resistor disposed in an interior of the ceramic body; a metallic layer which is disposed on an outer peripheral surface of the ceramic body and extends along a circumferential direction thereof; and a flange bonded to the metallic layer via a bonding material, the bonding material including a meniscus part extending from the metallic layer to the flange; characterized in that the heater further comprises a metallic wire which is disposed in an interior of the meniscus part on the outer peripheral surface of the ceramic body and extends along the circumferential direction. a ceramic body having a pillar or cylindrical shape; a heat generating resistor disposed in an interior of the ceramic body; a metallic layer which is disposed on an outer peripheral surface of the ceramic body and extends along a circumferential direction thereof; and a flange bonded to the metallic layer via a bonding material, the bonding material including a meniscus part extending from the metallic layer to the flange; characterized in that the heater further comprises a metallic wire which is disposed in an interior of the meniscus part on the outer peripheral surface of the ceramic body and extends along the circumferential direction.
A method for operating a turbocharged internal combustion engine, in which method gaseous fuel is introduced into an oxidation catalyst that is arranged between the engine and a turbine of a turbocharger for regenerating the oxidation catalyst, characterized in that the fuel is introduced into the oxidation catalyst sequentially in different locations for increasing the temperature of the exhaust gas for regenerating part of the oxidation catalyst at a time.
A color control system for controlling, in real time, the color of an article positioned on a carrier (201, 202) moving in a given direction of movement, comprising: - an illuminating device (101, 105) configured to illuminate said moving article in successive illuminating cycles, each illuminating cycle comprising successively generating, at a given frequency, a given number N of lines of light having distinct spectral bands, N ≥ 4, said lines of light being substantially perpendicular to the direction of movement, the set of N lines of light generated during an illuminating cycle defining, on the moving article, an illuminating strip of given dimension in the direction of movement; - a detecting device (102, 106) configured to detect, during each illuminating cycle, the light backscattered by the article successively illuminated by each of said lines of light, such as to generate, during each illuminating cycle, for each dot (P k) of a number of given dots of an observation strip perpendicular to the direction of movement, a number N of signals corresponding to the light backscattered by said dot in each of the spectral bands, respectively; - a processing unit configured to determine, for each of the dots of the observation strip and on the basis of said N signals, at least one value representative of the color of said dot. - an illuminating device (101, 105) configured to illuminate said moving article in successive illuminating cycles, each illuminating cycle comprising successively generating, at a given frequency, a given number N of lines of light having distinct spectral bands, N ≥ 4, said lines of light being substantially perpendicular to the direction of movement, the set of N lines of light generated during an illuminating cycle defining, on the moving article, an illuminating strip of given dimension in the direction of movement; - a detecting device (102, 106) configured to detect, during each illuminating cycle, the light backscattered by the article successively illuminated by each of said lines of light, such as to generate, during each illuminating cycle, for each dot (P k) of a number of given dots of an observation strip perpendicular to the direction of movement, a number N of signals corresponding to the light backscattered by said dot in each of the spectral bands, respectively; - a processing unit configured to determine, for each of the dots of the observation strip and on the basis of said N signals, at least one value representative of the color of said dot.