mhurhangee/ep-ind-claims huggingface dataset:
A pixel cell, comprising: a photodiode coupled to photogenerate image charge in response to incident light; a deep trench isolation structure disposed proximate to the photodiode to provide a capacitive coupling to the photodiode through the deep trench isolation structure, wherein the deep trench isolation structure includes a conductive material, and an oxide material lining an interior of the deep trench isolation structure; an amplifier transistor coupled to the deep trench isolation structure to generate amplified image data in response to the image charge read out from the photodiode through the capacitive coupling provided by the deep trench isolation structure; a row select transistor coupled to an output of the amplifier transistor to selectively output the amplified image data to a column bitline coupled to the row select transistor; a floating diffusion coupled to the amplifier transistor; a transfer transistor coupled between the photodiode and the floating diffusion to selectively couple the floating diffusion to the photodiode; a reset transistor coupled to the floating diffusion to selectively reset charge in the floating diffusion and the photodiode; and a switch transistor coupled between the deep trench isolation structure and the floating diffusion, wherein the amplifier transistor and the reset transistor are selectively coupled to the deep trench isolation structure through the switch transistor. a photodiode coupled to photogenerate image charge in response to incident light; a deep trench isolation structure disposed proximate to the photodiode to provide a capacitive coupling to the photodiode through the deep trench isolation structure, wherein the deep trench isolation structure includes a conductive material, and an oxide material lining an interior of the deep trench isolation structure; an amplifier transistor coupled to the deep trench isolation structure to generate amplified image data in response to the image charge read out from the photodiode through the capacitive coupling provided by the deep trench isolation structure; a row select transistor coupled to an output of the amplifier transistor to selectively output the amplified image data to a column bitline coupled to the row select transistor; a floating diffusion coupled to the amplifier transistor; a transfer transistor coupled between the photodiode and the floating diffusion to selectively couple the floating diffusion to the photodiode; a reset transistor coupled to the floating diffusion to selectively reset charge in the floating diffusion and the photodiode; and a switch transistor coupled between the deep trench isolation structure and the floating diffusion, wherein the amplifier transistor and the reset transistor are selectively coupled to the deep trench isolation structure through the switch transistor.
An in vitro method for differentiating pluripotent stem cells comprising: (a) contacting a plurality of pluripotent stem cells with at least one inhibitor of TGFβ/Activin-Nodal signaling; and (b) contacting the cells with at least one activator of Sonic hedgehog signaling and at least one activator of wingless (Wnt) signaling, wherein the concentration of the at least one activator of Wnt signaling is increased (i) between 2 days and 6 days from its initial contact with the cells and (ii) by between 250% and 1800% of its initial concentration contacted with the cells, to obtain a population of differentiated cells expressing forkhead box protein A2 (FOXA2) and LIM homeobox transcription factor 1 alpha (LMX1A). (a) contacting a plurality of pluripotent stem cells with at least one inhibitor of TGFβ/Activin-Nodal signaling; and (b) contacting the cells with at least one activator of Sonic hedgehog signaling and at least one activator of wingless (Wnt) signaling,
A mammalian cell comprising multiple expression units which are integrated therein and comprise exogenous genes of interest which are integrated therein, wherein the number of said multiple expression units is 3 or more; and further comprising exogenous gap elements among said multiple expression units wherein said gap elements have chain lengths of 0.5 kbp or more and 20 kbp or less, and said gap elements are mutually different sequences, and homology between said mutually different gap elements is 95% or less.
A system for detecting microwave power, the system comprising: an array of resonators comprising a first resonator and a second resonator, wherein: the first resonator comprises a graphene-insulating-superconducting junction; the first resonator has a first resonant frequency; the second resonator comprises a graphene-insulating-superconducting junction; and the second resonator has a second resonant frequency different from the first resonant frequency; a probe signal source, coupled to the first resonator and to the second resonator; and a probe signal analyzer, the probe signal analyzer being configured: to measure a change in amplitude or phase of a probe signal received by the probe signal analyzer from the probe signal source, and to infer, from the change in amplitude or phase, a change in microwave power received by the graphene-insulating-superconducting junction; wherein the probe signal source is a multi-frequency source, configured to operate at a frequency within 10% of the first resonant frequency and at a frequency within 10% of the second resonant frequency. the first resonator comprises a graphene-insulating-superconducting junction; the first resonator has a first resonant frequency; the second resonator comprises a graphene-insulating-superconducting junction; and the second resonator has a second resonant frequency different from the first resonant frequency; a probe signal source, coupled to the first resonator and to the second resonator; and a probe signal analyzer, the probe signal analyzer being configured: to measure a change in amplitude or phase of a probe signal received by the probe signal analyzer from the probe signal source, and to infer, from the change in amplitude or phase, a change in microwave power received by the graphene-insulating-superconducting junction; to measure a change in amplitude or phase of a probe signal received by the probe signal analyzer from the probe signal source, and to infer, from the change in amplitude or phase, a change in microwave power received by the graphene-insulating-superconducting junction; wherein the probe signal source is a multi-frequency source, configured to operate at a frequency within 10% of the first resonant frequency and at a frequency within 10% of the second resonant frequency.
A method for identifying a new master battery pack, comprising: detecting, by a first battery pack, that a master battery pack is removed from a battery cabinet of a power cabinet; detecting, by the first battery pack, that a new battery pack is not connected to the battery cabinet within a time period after the master battery pack is removed, wherein the time period indicates a longest time that the power cabinet continues to operate in its current configuration after the master battery pack is removed; and identifying, by the first battery pack, the new master battery pack and new slave battery packs according to a sorted result of battery pack identifiers when the new battery pack is not connected to the battery cabinet within the time period. detecting, by a first battery pack, that a master battery pack is removed from a battery cabinet of a power cabinet; detecting, by the first battery pack, that a new battery pack is not connected to the battery cabinet within a time period after the master battery pack is removed, wherein the time period indicates a longest time that the power cabinet continues to operate in its current configuration after the master battery pack is removed; and identifying, by the first battery pack, the new master battery pack and new slave battery packs according to a sorted result of battery pack identifiers when the new battery pack is not connected to the battery cabinet within the time period.
A heated ventilation assembly comprising: a fan; at least one air supply vent having an outlet aperture for supplying air to a habitable space of a building; a conduit connecting the at least one vent to the fan and defining an airflow pathway therebetween, the fan being located at a first end of the airflow pathway and arranged to supply air along the airflow pathway to the vent located at the second end of the airflow pathway; and a heating element located at a second end of the airflow pathway proximate the outlet aperture of the air supply vent; wherein the heating element and the fan are electrically connected and one of the fan and the heating element includes a power supply connection for connection to a power source, and the fan and the heating element are arranged to be powered by said power supply connection. a fan; at least one air supply vent having an outlet aperture for supplying air to a habitable space of a building; a conduit connecting the at least one vent to the fan and defining an airflow pathway therebetween, the fan being located at a first end of the airflow pathway and arranged to supply air along the airflow pathway to the vent located at the second end of the airflow pathway; and a heating element located at a second end of the airflow pathway proximate the outlet aperture of the air supply vent; wherein the heating element and the fan are electrically connected and one of the fan and the heating element includes a power supply connection for connection to a power source, and the fan and the heating element are arranged to be powered by said power supply connection.
A source port coupled to a destination port through a communication network, the source port comprising a circuit for generation of a master clock, from which subsystems of the source port are synchronized, characterized in that said circuit for generation of a master clock is adapted * to receive a frame transfer rate of the communication network and to produce from the frame transfer rate by multiplying and dividing the frame transfer rate the master clock, and wherein the master clock has a frequency of an integer multiple of 1125/2 of the frame transfer rate of 48 KHz or an integer multiple of 30000/49 of the frame transfer rate of 44.1KHz.
Method for designing knitted products to be made on a knitting machine or hosiery knitting machine, wherein a view of the pattern of the knitted product is displayed on a display device, wherein the view of the pattern is shown in a compressed symbol representation in which each position in a pattern is illustrated as a thread run, surface symbol or colour, and transfer operations and the associated racking are not incorporated, and, when editing the displayed view of the pattern, a knitted fabric simulation of at least one area of the view of the pattern is carried out at the same time and is shown on the display device simultaneously with the view of the pattern on the display device, characterised in that, each time that the knitted fabric simulation is updated after editing of the compressed symbol representation to create a contour of a shaped knitted product, the contour data describing the contour are entered into the compressed symbol representation and all data of the compressed symbol representation are deleted outside the contour.
A nanoparticle composition comprising a plurality of nanoparticles formed from a π-conjugated cross-linked polymer, the π-conjugated cross-linked polymer comprising a) 80-99.9 mol.% of π-conjugated monomers, and b) 0.1-20 mol.% of a cross-linker having the formula III shown below: wherein the nanoparticles forming the nanoparticle composition have a Z-average particle size of less than 30-200 nm, when measured by DLS in water. a) 80-99.9 mol.% of π-conjugated monomers, and b) 0.1-20 mol.% of a cross-linker having the formula III shown below: wherein the nanoparticles forming the nanoparticle composition have a Z-average particle size of less than 30-200 nm, when measured by DLS in water.
A method for analyzing a formalin fixed paraffin embedded tissue sample to determine whether a first target is proximal to a second target, the method comprising: contacting the sample with a first conjugate probe comprising a biotin ligase and a specific binding moiety for associating with the first target; contacting the sample with a second conjugate probe comprising a biotin ligase substrate and a specific binding moiety for associating with the second target; contacting the sample with biotin and ATP so that the biotin ligase biotinylates the biotin ligase substrate if the first target is proximal to the second target; and detecting the biotin if the first target is proximal to the second target. contacting the sample with a first conjugate probe comprising a biotin ligase and a specific binding moiety for associating with the first target; contacting the sample with a second conjugate probe comprising a biotin ligase substrate and a specific binding moiety for associating with the second target; contacting the sample with biotin and ATP so that the biotin ligase biotinylates the biotin ligase substrate if the first target is proximal to the second target; and detecting the biotin if the first target is proximal to the second target.
A monitoring device for detecting a disruption of a fluid connection between a first fluid containing system comprising a first pulse generator and a second fluid containing system comprising a second pulse generator, said monitoring device comprising: an input for receiving at least one pressure signal from a set of pressure sensors (6a, 6b) arranged in the first fluid containing system to detect first pulses originating from the first pulse generator and second pulses originating from the second pulse generator; and a signal processor connected to the input, characterized in that the signal processor is configured to: populate a plurality of signal vectors ( x k) of identical length such that each of the signal vectors ( x k) corresponds to a respective signal segment of signal values in the at least one pressure signal; process the signal vectors ( x k) by a source separation algorithm so as to compute one or more eigenvectors and/or one or more eigenvalues associated with the signal vectors ( x k); and detect the disruption based on a monitoring parameter, which is computed as a function of the one or more eigenvectors and/or the one or more eigenvalues to be responsive to the second pulses in the at least one pressure signal. an input for receiving at least one pressure signal from a set of pressure sensors (6a, 6b) arranged in the first fluid containing system to detect first pulses originating from the first pulse generator and second pulses originating from the second pulse generator; and a signal processor connected to the input, characterized in that the signal processor is configured to: populate a plurality of signal vectors ( x k) of identical length such that each of the signal vectors ( x k) corresponds to a respective signal segment of signal values in the at least one pressure signal; process the signal vectors ( x k) by a source separation algorithm so as to compute one or more eigenvectors and/or one or more eigenvalues associated with the signal vectors ( x k); and detect the disruption based on a monitoring parameter, which is computed as a function of the one or more eigenvectors and/or the one or more eigenvalues to be responsive to the second pulses in the at least one pressure signal. populate a plurality of signal vectors ( x k) of identical length such that each of the signal vectors ( x k) corresponds to a respective signal segment of signal values in the at least one pressure signal; process the signal vectors ( x k) by a source separation algorithm so as to compute one or more eigenvectors and/or one or more eigenvalues associated with the signal vectors ( x k); and detect the disruption based on a monitoring parameter, which is computed as a function of the one or more eigenvectors and/or the one or more eigenvalues to be responsive to the second pulses in the at least one pressure signal.
Adapter (1, 1') for fastening a filter element (25, 25') in a cylindrical receiving opening of a base part of a filter housing lower part with at least one seal (4, 7), which is arranged at the adapter circumference in an encircling groove (3, 5), for fluid-tight separation of a non-filtrate space, which surrounds the outer casing of the filter and from which the medium to be filtered can be fed to the filter, from a filtrate space into which the filtrate can be introduced from the filter, characterised in that the seal (4, 7, 28 is injection-moulded on a base surface of the encircling groove (3, 5, 26), the seal (4, 7, 28) has a spacing (16, 17, 31) from at least one side wall (12, 13, 32, 33), which bounds the base surface, of the groove, a second seal is injection-moulded in a second encircling groove at the base surface thereof, the two seals (4, 7) are arranged in grooves (3, 5) arranged to be parallel to one another, the seals (4, 7) bear against the two mutually facing inner side walls (10, 11) of the grooves (3, 5) free of spacing and the two seals (4, 7) are connected together by way of at least one web extending in axial direction.
Support frame for a gymnastic apparatus, particularly for a cycling simulation device, comprising a base, and a first arm hinged with said base and a second arm hinged with said base, so that said first and second arm can assume a closed position and an open position, rotating with respect to said base, characterized in that said support frame comprises an articulation member articulated with said base and said first and second arm such that the rotation of one of said first or second arm relatively to said base causes a rotational translation of said articulation body and the rotation of the other arm (23, 24) with respect to said base, causing the passage from said closed position to said open position or vice versa.
A touch panel, comprising: an electroactive layer; a plurality of driving electrodes on one side of the electroactive layer, the driving electrodes configured to transmit a driving signal; a first touch sensor unit comprising a plurality of first sensing electrodes on another side of the electroactive layer and the plurality of driving electrodes, the first sensing electrodes configured to transmit voltage signals generated responsive to deformation of the electroactive layer; and a second touch sensor unit comprising a plurality of second sensing electrodes on the other side of the electroactive layer and the plurality of driving electrodes, the second sensing electrodes spaced apart from the plurality of first sensing electrodes and the plurality of driving electrodes, the second sensing electrodes configured to transmit capacitance signals indicating a change in capacitance between the driving electrodes and the second sensing electrodes, wherein the first touch sensor unit and the second touch sensor unit are arranged to share the plurality of driving electrodes as commonly used driving electrodes an electroactive layer; a plurality of driving electrodes on one side of the electroactive layer, the driving electrodes configured to transmit a driving signal; a first touch sensor unit comprising a plurality of first sensing electrodes on another side of the electroactive layer and the plurality of driving electrodes, the first sensing electrodes configured to transmit voltage signals generated responsive to deformation of the electroactive layer; and a second touch sensor unit comprising a plurality of second sensing electrodes on the other side of the electroactive layer and the plurality of driving electrodes, the second sensing electrodes spaced apart from the plurality of first sensing electrodes and the plurality of driving electrodes, the second sensing electrodes configured to transmit capacitance signals indicating a change in capacitance between the driving electrodes and the second sensing electrodes, wherein the first touch sensor unit and the second touch sensor unit are arranged to share the plurality of driving electrodes as commonly used driving electrodes
A coated cutting tool member whose hard coating layer exhibits a superior chipping resistance during a high speed and severe cutting operation, the coated cutting tool member comprising: a hard substrate; and a hard coating layer of a nitride compound containing Ti, Al, and Zr, which is formed on a surface of the hard substrate using a physical vapor deposition method at an overall average thickness of 1 to 15 μm, wherein the hard coating layer has a component composition profile in which maximum Al containing points and minimum Al containing points appear alternatingly and repeatedly at a predetermined interval in a direction of thickness of the hard coating layer, and the amount of contained Al component continuously varies from the maximum Al containing points to the minimum Al containing points and from the minimum Al containing points to the maximum Al containing points, the maximum Al containing points satisfy a composition formula of (Ti 1-(X+Y) Al X Zr Y)N, where X indicates an atomic ratio of 0.45 to 0.65, and Y indicates an atomic ratio of 0.01 to 0.15, and the minimum Al containing points satisfy a composition formula of (Ti 1-(X+Y) Al X Zr Y)N, where X indicates an atomic ratio of 0.15 to 0.40, and Y indicates an atomic ratio of 0.01 to 0.15, and a distance between one of the maximum Al containing points and adjacent one of the minimum Al containing points is from 0.01 to 0.1 μm. a hard substrate; and a hard coating layer of a nitride compound containing Ti, Al, and Zr, which is formed on a surface of the hard substrate using a physical vapor deposition method at an overall average thickness of 1 to 15 μm, wherein the hard coating layer has a component composition profile in which maximum Al containing points and minimum Al containing points appear alternatingly and repeatedly at a predetermined interval in a direction of thickness of the hard coating layer, and the amount of contained Al component continuously varies from the maximum Al containing points to the minimum Al containing points and from the minimum Al containing points to the maximum Al containing points, the maximum Al containing points satisfy a composition formula of (Ti 1-(X+Y) Al X Zr Y)N, where X indicates an atomic ratio of 0.45 to 0.65, and Y indicates an atomic ratio of 0.01 to 0.15, and the minimum Al containing points satisfy a composition formula of (Ti 1-(X+Y) Al X Zr Y)N, where X indicates an atomic ratio of 0.15 to 0.40, and Y indicates an atomic ratio of 0.01 to 0.15, and a distance between one of the maximum Al containing points and adjacent one of the minimum Al containing points is from 0.01 to 0.1 μm.
A solid non-crystalline form of 9,9-bis(4-(2-hydroxyethoxy)phenyl)fluorene, characterized in that an X-ray powder diffraction pattern of the non-crystalline form has a halo pattern at a diffraction angle in a range of 5° to 60°.
Method for manufacturing a toilet seat equipped with an at least regionally relief-like motif, the motif being applied to at least one side of the toilet seat, hereinafter referred to as the decorative side, whereby first the decorative side is cleaned and possibly also smoothed and / or ground and / or polished, then the planned design of the motif is sketched out on the decorative side, then an initially monochrome material is applied by 3D printing in the form of the desired relief-like structure of the motif in order to form a relief blank, and finally a second, coloured material is applied to the decorative side and the relief blank by 3D printing, a colour pattern layer being formed in order to achieve the desired coloured relief-like motif.