mhurhangee/ep-ind-claims huggingface dataset:
A video display apparatus, comprising: a screen configured to display a video signal an input configured to receive an audio/video signal containing at least picture information of a picture to be displayed on the screen; a processor configured to sense a viewing direction of a viewer with respect to said display screen; a video processor configured to: perform a zooming function on the received video signal; detect the occurrence of a scene change in said received video signal and generate a reset signal if a scene change is detected; and modify said received video signal by applying a pan and tilt function according to a control signal obtained from a controller and provide said modified video signal to the screen; and the controller responsive to an output signal of said processor and to an output signal of the video processor, configured to: determine the pan and tilt function to be applied with respect to said viewing direction sensed by the processor to track the viewer's viewing angle and wherein, upon detection of the occurrence of a scene change; and center the picture of the audio/video signal when receiving the reset signal. a screen configured to display a video signal an input configured to receive an audio/video signal containing at least picture information of a picture to be displayed on the screen; a processor configured to sense a viewing direction of a viewer with respect to said display screen; a video processor configured to: perform a zooming function on the received video signal; detect the occurrence of a scene change in said received video signal and generate a reset signal if a scene change is detected; and modify said received video signal by applying a pan and tilt function according to a control signal obtained from a controller and provide said modified video signal to the screen; and perform a zooming function on the received video signal; detect the occurrence of a scene change in said received video signal and generate a reset signal if a scene change is detected; and modify said received video signal by applying a pan and tilt function according to a control signal obtained from a controller and provide said modified video signal to the screen; and the controller responsive to an output signal of said processor and to an output signal of the video processor, configured to: determine the pan and tilt function to be applied with respect to said viewing direction sensed by the processor to track the viewer's viewing angle and wherein, upon detection of the occurrence of a scene change; and center the picture of the audio/video signal when receiving the reset signal. determine the pan and tilt function to be applied with respect to said viewing direction sensed by the processor to track the viewer's viewing angle and wherein, upon detection of the occurrence of a scene change; and center the picture of the audio/video signal when receiving the reset signal.
An integrated circuit, IC, structure, comprising: a support structure; a first electrically conductive structure over the support structure; a via over the first electrically conductive structure, the via formed of an electrically conductive material; a second electrically conductive structure over the via, and a cover dielectric over the IC structure, a height of the cover dielectric over the first electrically conductive structure being equal to a sum of the heights of the second electrically conductive structure and the via, where: the via has a first portion and a second portion, the first portion is between the first electrically conductive structure and the second portion, the second portion is between the first portion and the second electrically conductive structure, and a width of the second portion is smaller than a width of the first portion, the via to provide electrical connectivity between the first electrically conductive structure and the second electrically conductive structure. a support structure; a first electrically conductive structure over the support structure; a via over the first electrically conductive structure, the via formed of an electrically conductive material; a second electrically conductive structure over the via, and a cover dielectric over the IC structure, a height of the cover dielectric over the first electrically conductive structure being equal to a sum of the heights of the second electrically conductive structure and the via, where: the via has a first portion and a second portion, the first portion is between the first electrically conductive structure and the second portion, the second portion is between the first portion and the second electrically conductive structure, and a width of the second portion is smaller than a width of the first portion, the via to provide electrical connectivity between the first electrically conductive structure and the second electrically conductive structure. the via has a first portion and a second portion, the first portion is between the first electrically conductive structure and the second portion, the second portion is between the first portion and the second electrically conductive structure, and a width of the second portion is smaller than a width of the first portion, the via to provide electrical connectivity between the first electrically conductive structure and the second electrically conductive structure.
A particulate material comprising a plurality of composite particles, wherein the composite particles comprise: (a) a porous carbon framework comprising micropores and mesopores, wherein (i) the micropores and mesopores have a total pore volume as measured by gas adsorption as defined in the description of P 1 cm 3 /g, wherein P 1 represents a natural number having a value in the range from 0.6 to 0.9, wherein micropores are pores of less than 2 nm in diameter and mesopores are pores of 2-50 nm in diameter, (ii) the volume fraction of micropores (φ a) is in the range from 0.5 to 0.8, based on the total volume of micropores and mesopores; (iii) the volume fraction of pores having a pore diameter of no more than 5 nm (φ 5) is at least 0.75, based on the total volume of micropores and mesopores, and (iv) the porous carbon framework has a D 50 particle size as measured by the method defined in the description of less than 20 μm; (b) a plurality of nanoscale elemental silicon domains located within the micropores and/or mesopores of the porous carbon framework; wherein the weight ratio of silicon to the porous carbon framework in the composite particles is in the range from [1×P 1 to 2.2×P 1]: 1. (a) a porous carbon framework comprising micropores and mesopores, wherein (i) the micropores and mesopores have a total pore volume as measured by gas adsorption as defined in the description of P 1 cm 3 /g, wherein P 1 represents a natural number having a value in the range from 0.6 to 0.9, wherein micropores are pores of less than 2 nm in diameter and mesopores are pores of 2-50 nm in diameter, (ii) the volume fraction of micropores (φ a) is in the range from 0.5 to 0.8, based on the total volume of micropores and mesopores; (iii) the volume fraction of pores having a pore diameter of no more than 5 nm (φ 5) is at least 0.75, based on the total volume of micropores and mesopores, and (iv) the porous carbon framework has a D 50 particle size as measured by the method defined in the description of less than 20 μm; (i) the micropores and mesopores have a total pore volume as measured by gas adsorption as defined in the description of P 1 cm 3 /g, wherein P 1 represents a natural number having a value in the range from 0.6 to 0.9, wherein micropores are pores of less than 2 nm in diameter and mesopores are pores of 2-50 nm in diameter, (ii) the volume fraction of micropores (φ a) is in the range from 0.5 to 0.8, based on the total volume of micropores and mesopores; (iii) the volume fraction of pores having a pore diameter of no more than 5 nm (φ 5) is at least 0.75, based on the total volume of micropores and mesopores, and (iv) the porous carbon framework has a D 50 particle size as measured by the method defined in the description of less than 20 μm; (b) a plurality of nanoscale elemental silicon domains located within the micropores and/or mesopores of the porous carbon framework;
A dispenser for dispensing rolled product having a series of interconnected sheets separated by perforations, the dispenser comprising: a body having a product holding area for holding the rolled product; a dispensing device having an orifice defining an opening in the body to the product holding area, a gate configured to move between a first position and a second position with respect to the orifice, a biasing device configured to bias the gate towards the first position, and a dampener coupled to the gate and configured to impede the biasing device from biasing the gate towards the first position to delay, in time, the gate from moving from the second position to the first position; wherein: in the first position the gate frictionally engages the series of interconnected sheets passing through the orifice with enough force to break a perforation separating two contiguous sheets of the series to cause single sheet dispensing; and the delay allows multiple sheets of the series of interconnected sheets to pass through the orifice, when pulled at a given rate, before the gate moves from the second position to the first position; and wherein the dispenser further comprises a movable door, wherein the orifice is defined at least in part by the gate, and the movable door is configured to allow the series of interconnected sheets to enter the orifice through a side of the orifice. a body having a product holding area for holding the rolled product; a dispensing device having an orifice defining an opening in the body to the product holding area, a gate configured to move between a first position and a second position with respect to the orifice, a biasing device configured to bias the gate towards the first position, and a dampener coupled to the gate and configured to impede the biasing device from biasing the gate towards the first position to delay, in time, the gate from moving from the second position to the first position; wherein: in the first position the gate frictionally engages the series of interconnected sheets passing through the orifice with enough force to break a perforation separating two contiguous sheets of the series to cause single sheet dispensing; and the delay allows multiple sheets of the series of interconnected sheets to pass through the orifice, when pulled at a given rate, before the gate moves from the second position to the first position; and in the first position the gate frictionally engages the series of interconnected sheets passing through the orifice with enough force to break a perforation separating two contiguous sheets of the series to cause single sheet dispensing; and the delay allows multiple sheets of the series of interconnected sheets to pass through the orifice, when pulled at a given rate, before the gate moves from the second position to the first position; and wherein the dispenser further comprises a movable door, wherein the orifice is defined at least in part by the gate, and the movable door is configured to allow the series of interconnected sheets to enter the orifice through a side of the orifice.
A particulate cobalt ion adsorption material having a particle size of 100 μm or more and 1000 μm or less and comprising 0.3 parts by mass or more and 8.0 parts by mass or less of a binder consisting of fine particles of a water-insoluble metal oxide or metal hydroxide with respect to 100 parts by mass of a cobalt ion adsorption main agent consisting of potassium hydrogen dititanate hydrate, wherein the potassium hydrogen dititanate hydrate is represented by the chemical formula K 2-x H x O·2TiO 2 ·nH 2 O wherein x is 0.1 or more and 1.8 or less, and n is greater than 0, and wherein the fine particles of the metal oxide or metal hydroxide have shape anisotropy, wherein the particle size is measured according to particle sizing, as defined in the description. wherein the potassium hydrogen dititanate hydrate is represented by the chemical formula K 2-x H x O·2TiO 2 ·nH 2 O wherein x is 0.1 or more and 1.8 or less, and n is greater than 0, and wherein the fine particles of the metal oxide or metal hydroxide have shape anisotropy, wherein the particle size is measured according to particle sizing, as defined in the description.
An electrochromic element, comprising: a pair of electrodes; and an electrochromic layer disposed between the pair of electrodes and containing a plurality of kinds of organic electrochromic compounds, wherein: the electrochromic layer comprises anodic and cathodic electrochromic compounds, the anodic electrochromic compounds consist of 54 mM A-22, 7 mM C-5, and 15 mM C-10; the cathodic electrochromic compounds consist of 28 mM D-4, 140 mM D-10, and 130 mM D-11, and a pair of electrodes; and an electrochromic layer disposed between the pair of electrodes and containing a plurality of kinds of organic electrochromic compounds, wherein: the electrochromic layer comprises anodic and cathodic electrochromic compounds, the anodic electrochromic compounds consist of 54 mM A-22, 7 mM C-5, and 15 mM C-10; the cathodic electrochromic compounds consist of 28 mM D-4, 140 mM D-10, and 130 mM D-11, and the electrochromic layer comprises anodic and cathodic electrochromic compounds, the anodic electrochromic compounds consist of 54 mM A-22, 7 mM C-5, and 15 mM C-10; the cathodic electrochromic compounds consist of 28 mM D-4, 140 mM D-10, and 130 mM D-11, and
An audio signal processing device comprising: an immittance spectral frequency/line spectral frequency, ISF/LSF, quantizer configured to quantize ISF/LSF parameters; an ISF/LSF concealer configured to generate concealment ISF/LSF parameters representative of concealment information about the ISF/LSF parameters; a discontinuity detector (129, 213) configured to determine an occurrence of a discontinuity which occurs in a first audio packet which is received correctly after an occurrence of a packet loss, the discontinuity detector (129, 213) being configured to use distances between the quantized ISF/LSF parameters obtained in a quantization process of the ISF/LSF quantizer and the concealment ISF/LSF parameters generated by the ISF/LSF concealer to determine an occurrence of a discontinuity; and an auxiliary information encoder configured to encode auxiliary information for determination on an occurrence of a discontinuity. an immittance spectral frequency/line spectral frequency, ISF/LSF, quantizer configured to quantize ISF/LSF parameters; an ISF/LSF concealer configured to generate concealment ISF/LSF parameters representative of concealment information about the ISF/LSF parameters; a discontinuity detector (129, 213) configured to determine an occurrence of a discontinuity which occurs in a first audio packet which is received correctly after an occurrence of a packet loss, the discontinuity detector (129, 213) being configured to use distances between the quantized ISF/LSF parameters obtained in a quantization process of the ISF/LSF quantizer and the concealment ISF/LSF parameters generated by the ISF/LSF concealer to determine an occurrence of a discontinuity; and an auxiliary information encoder configured to encode auxiliary information for determination on an occurrence of a discontinuity.
A scroll compressor comprising: a thrust plate, a coating which is applied to a surface of said thrust plate, a housing having a thrust bearing face to which said thrust plate is attached, an orbiting scroll member having a slide face which is supported by said thrust plate and which orbits while sliding, and a peeling prevention part which reduces a sliding pressure acting on a thrust plate edge portion from said slide face, characterized in that the thrust plate is one where the coating is formed on a surface of a thin steel plate with a thickness of the thin steel plate of less than 0.9 mm; the thickness of the coating is less than 20 μm. a thrust plate, a coating which is applied to a surface of said thrust plate, a housing having a thrust bearing face to which said thrust plate is attached, an orbiting scroll member having a slide face which is supported by said thrust plate and which orbits while sliding, and a peeling prevention part which reduces a sliding pressure acting on a thrust plate edge portion from said slide face, characterized in that the thrust plate is one where the coating is formed on a surface of a thin steel plate with a thickness of the thin steel plate of less than 0.9 mm; the thickness of the coating is less than 20 μm.
A wind turbine rotary connection for two wind turbine components (102, 110; 103, 105; 106, 114; 108, 106) which are rotatable relative to each other, having a combined axial-radial bearing (1, 21; 1a, 1b), wherein the axial-radial bearing has an axial bearing component (5, 25) and a separate radial bearing component (7, 27), characterised in that the axial bearing component (5, 25) is in the form of a plain bearing component having a first convexly curved bearing surface (9, 29) and a corresponding second concavely curved bearing surface (11, 31).
A compound having the following formula: wherein R 4 is t-butyldimethylsilyl or hydrogen and R 6 is t-butyl, t-amyl, phenyl dimethyl ethyl, or metyl isopropyl cyclohexyl. wherein R 4 is t-butyldimethylsilyl or hydrogen and R 6 is t-butyl, t-amyl, phenyl dimethyl ethyl, or metyl isopropyl cyclohexyl.
Method for adapting a first software application that is executed in a gateway and controls the data transmission of the gateway, said gateway connecting one or more devices of a local network to a cloud network, - wherein machine learning is carried out by means of a second software application on the basis of at least one state (s, S) of the environment of the gateway and also of at least one possible action (a, A) of the gateway, - wherein the result of the machine learning contains at least one quality value of a pairing of state (s, S) of the environment of the gateway and action (a, A) of the gateway, and - wherein the first software application carries out those actions (a, A) of the gateway that, for a given state (s, S) of the environment of the gateway, have a higher quality value than other actions, wherein the second software application comprises a method for confirmation learning, and for each pairing of state (s) of the environment of the gateway and action (a) of the gateway there is an acknowledgement in the form of a reward (r), wherein the reward takes place on the basis of the minimisation of specific metrics and the metrics at least comprise the average slowing down of a job relative to the ideal duration of the job and the load of the resources of the gateway at that particular moment is used as the state of the environment of the gateway. - wherein machine learning is carried out by means of a second software application on the basis of at least one state (s, S) of the environment of the gateway and also of at least one possible action (a, A) of the gateway, - wherein the result of the machine learning contains at least one quality value of a pairing of state (s, S) of the environment of the gateway and action (a, A) of the gateway, and - wherein the first software application carries out those actions (a, A) of the gateway that, for a given state (s, S) of the environment of the gateway, have a higher quality value than other actions, wherein the second software application comprises a method for confirmation learning, and for each pairing of state (s) of the environment of the gateway and action (a) of the gateway there is an acknowledgement in the form of a reward (r), wherein the reward takes place on the basis of the minimisation of specific metrics and the metrics at least comprise the average slowing down of a job relative to the ideal duration of the job and the load of the resources of the gateway at that particular moment is used as the state of the environment of the gateway.
A dual use gas diffusion-gas evolution electrode comprising: a conductive network of diamond-like carbon, the conductive network of diamond-like carbon comprising a catalyst that catalyzes a desired reaction during at least one of oxidation or reduction; wherein the diamond-like carbon requires an overpotential of at least 0.3 volts greater than graphite at a given current density for inner-sphere reactions; and the conductive network of diamond-like carbon has a thermal conductivity of at least about 1000W/m•K. a conductive network of diamond-like carbon, the conductive network of diamond-like carbon comprising a catalyst that catalyzes a desired reaction during at least one of oxidation or reduction; wherein the diamond-like carbon requires an overpotential of at least 0.3 volts greater than graphite at a given current density for inner-sphere reactions; and the conductive network of diamond-like carbon has a thermal conductivity of at least about 1000W/m•K.
A flexible body armor ballistic filler comprising: a first portion having a first subpanel stitched directly to a second subpanel with a stitching pattern, the first subpanel having one or more layers of woven fabric and the second subpanel having one or more layers of unidirectional fabric; and a second portion backing the first portion, the second portion having one or more layers of unstitched unidirectional fabric. a first portion having a first subpanel stitched directly to a second subpanel with a stitching pattern, the first subpanel having one or more layers of woven fabric and the second subpanel having one or more layers of unidirectional fabric; and a second portion backing the first portion, the second portion having one or more layers of unstitched unidirectional fabric.
Linear drive, comprising - a running track, - at least one movement unit which is linearly movable on the running track and has at least one magnetic element, preferably a secondary magnet, - a plurality of electrical primary magnets which are arranged on the running track in a stationary manner and which act magnetically on the at least one magnetic element, the primary magnets being actuatable individually or in groups in order to drive the movement unit, - a magnetically activatable element on the movement unit, - an actuator and/or a load on the movement unit, the magnetically activatable element being operatively connected to the actuator and/or the load, characterized in that the magnetically activatable element can be actuated by at least one primary magnet, independently of driving the movement unit, in particular for energy transfer to the magnetically activatable element, and at least one primary magnet can be used to actuate the magnetically activatable element, which primary magnet is not used for driving the movement unit at the moment of actuation. - a running track, - at least one movement unit which is linearly movable on the running track and has at least one magnetic element, preferably a secondary magnet, - a plurality of electrical primary magnets which are arranged on the running track in a stationary manner and which act magnetically on the at least one magnetic element, the primary magnets being actuatable individually or in groups in order to drive the movement unit, - a magnetically activatable element on the movement unit, - an actuator and/or a load on the movement unit, the magnetically activatable element being operatively connected to the actuator and/or the load, characterized in that the magnetically activatable element can be actuated by at least one primary magnet, independently of driving the movement unit, in particular for energy transfer to the magnetically activatable element, and at least one primary magnet can be used to actuate the magnetically activatable element, which primary magnet is not used for driving the movement unit at the moment of actuation.