mhurhangee/ep-ind-claims huggingface dataset:
A method of identifying and calculating non uniformity of an AMOLED display having pixels that are aging due to shifts in one or more aging characteristics of a current-driven component in each of the pixels, comprising the steps of: measuring, using a measurement circuit, an aging characteristic of at least some but not all pixels in at least a first region of the display using a down-sampling rate of K V × K H, such that the aging characteristic of at least every K V th pixel is measured along a column of the first region and the aging characteristic of at least every K H th pixel is measured along a row of the first region, to produce a set of initial pixel measurements, where K V and K H are positive integers that are identical or mutually distinct; interpolating the set of initial pixel measurements to produce an initial aging pattern for at least the first region; storing, in a memory device, the initial aging pattern; locating in the initial aging pattern using an edge detection algorithm an edge corresponding to a discontinuity in pixel intensity; measuring, using the measurement circuit, the aging characteristic of those of the pixels along the located edge in the initial aging pattern that were not measured in the initial set of pixel measurements to produce a set of edge measurements; applying a scattered data interpolation algorithm using the set of initial pixel measurements and the set of edge measurements to produce a refined aging pattern of at least the first region; and storing the refined aging pattern in the memory device said refine aging pattern corresponding to the pixel resolution of the AMOLED display. measuring, using a measurement circuit, an aging characteristic of at least some but not all pixels in at least a first region of the display using a down-sampling rate of K V × K H, such that the aging characteristic of at least every K V th pixel is measured along a column of the first region and the aging characteristic of at least every K H th pixel is measured along a row of the first region, to produce a set of initial pixel measurements, where K V and K H are positive integers that are identical or mutually distinct; interpolating the set of initial pixel measurements to produce an initial aging pattern for at least the first region; storing, in a memory device, the initial aging pattern; locating in the initial aging pattern using an edge detection algorithm an edge corresponding to a discontinuity in pixel intensity; measuring, using the measurement circuit, the aging characteristic of those of the pixels along the located edge in the initial aging pattern that were not measured in the initial set of pixel measurements to produce a set of edge measurements; applying a scattered data interpolation algorithm using the set of initial pixel measurements and the set of edge measurements to produce a refined aging pattern of at least the first region; and storing the refined aging pattern in the memory device said refine aging pattern corresponding to the pixel resolution of the AMOLED display.
A method in a user equipment for reporting auxiliary information, characterized in that, the method comprises: reporting, by the user equipment, auxiliary information to a source base station; determining, by the user equipment, whether the auxiliary information needs to be reported newly in a destination cell; and if it is determined that the auxiliary information needs to be reported newly in the destination cell, then reporting, by the user equipment, the auxiliary information to a destination base station after the user equipment is switched to the destination cell; wherein determining, by the user equipment, whether the auxiliary information needs to be reported newly in a destination cell comprises: the user equipment judges whether the difference between a point of time when a handover command is received, and a point of time when the auxiliary information is reported to the source base station is less than a preset value of time, and if so, then the user equipment determines that the auxiliary information needs to be reported newly in the destination cell; otherwise, the user equipment determines that the auxiliary information does not need to be reported newly in the destination cell. reporting, by the user equipment, auxiliary information to a source base station; determining, by the user equipment, whether the auxiliary information needs to be reported newly in a destination cell; and if it is determined that the auxiliary information needs to be reported newly in the destination cell, then reporting, by the user equipment, the auxiliary information to a destination base station after the user equipment is switched to the destination cell; wherein determining, by the user equipment, whether the auxiliary information needs to be reported newly in a destination cell comprises: the user equipment judges whether the difference between a point of time when a handover command is received, and a point of time when the auxiliary information is reported to the source base station is less than a preset value of time, and if so, then the user equipment determines that the auxiliary information needs to be reported newly in the destination cell; otherwise, the user equipment determines that the auxiliary information does not need to be reported newly in the destination cell. the user equipment judges whether the difference between a point of time when a handover command is received, and a point of time when the auxiliary information is reported to the source base station is less than a preset value of time, and if so, then the user equipment determines that the auxiliary information needs to be reported newly in the destination cell; otherwise, the user equipment determines that the auxiliary information does not need to be reported newly in the destination cell.
A method for recognizing speech of a user on a computing device, comprising: receiving depth information of a physical space from a depth camera; identifying contextual elements in the depth information; receiving audio information from one or more microphones; identifying a set of one or more possible spoken words from the audio information; determining a speech input for the computing device based upon comparing the set of one or more possible spoken words from the audio information and the contextual elements, wherein determining the speech input includes disambiguating, in the set of one or more possible spoken words, one or more of - a homonym and - a compound word for distinction from the individual words that make up the compound word; and taking an action on the computing device based upon the speech input determined. receiving depth information of a physical space from a depth camera; identifying contextual elements in the depth information; receiving audio information from one or more microphones; identifying a set of one or more possible spoken words from the audio information; determining a speech input for the computing device based upon comparing the set of one or more possible spoken words from the audio information and the contextual elements, wherein determining the speech input includes disambiguating, in the set of one or more possible spoken words, one or more of - a homonym and - a compound word for distinction from the individual words that make up the compound word; and - a homonym and - a compound word for distinction from the individual words that make up the compound word; and taking an action on the computing device based upon the speech input determined.
Foldable log-periodic antenna comprising: - a feed line, - a plurality of transmitting means for transmitting and/or receiving electromagnetic signals, - two supporting elements (2a, 2b) for holding the transmitting means - one or more means for producing a tensile stress on the transmitting means, with the transmitting means being connected to the feed line, and with the supporting elements (2a, 2b) being connected to the feed line via an articulated joint apparatus, such that the antenna can be moved from a transport position to an operating position and vice versa, characterized in that the transmitting means are fixed in each case via connecting points between the supporting elements (2a, 2b) or in each case between the feed line and one of the supporting elements (2a, 2b) and in that the supporting elements (2a, 2b) are in the form of flexible wires and in that the one or more means for producing a tensile stress on the transmitting means are in the form of a flexible tube, and can have an internal pressure applied to them and are connected to the supporting elements (2a, 2b) for holding the transmitting means. - a feed line, - a plurality of transmitting means for transmitting and/or receiving electromagnetic signals, - two supporting elements (2a, 2b) for holding the transmitting means - one or more means for producing a tensile stress on the transmitting means,
A temperature-measuring scan head comprising an enclosure, the enclosure includes two supplementary lamps, an image sensor and a temperature sensor at its end face, wherein the image sensor and the temperature sensor are arranged in order between the two supplementary lamps, wherein terminals of both image sensor and temperature sensor are electrically connected to a central processing unit via wires, wherein the two supplementary lamps, the image sensor and the temperature sensor are electrically provided with a control switch, and wherein the two supplementary lamps, the image sensor and the temperature sensor are all controlled by the control switch on which there are three groups of buttons that control the working status of the two supplementary lamps, the image sensor and the temperature sensor, respectively.
A humidification device for use in CPAP, wherein the device comprises: a wick,a wick chamber supporting the wick; a gas inlet to the wick chamber; and a diffusion system for directing or controlling gas flow through the device, characterised in that the diffusion system comprises a diffuser (140, 140a, 140c) located at or in the gas inlet, to diffuse gas flowing from the gas inlet and into the wick chamber substantially evenly through or over the wick, and wherein the wick chamber comprises a foraminous structure for supporting the wick within the wick chamber and diffusing gas flow through or over the wick.
An array substrate comprising a transparent substrate and a polarizer which is attached on the transparent substrate and comprises a first protective layer in contact with the transparent substrate, wherein the first protective layer and the transparent substrate satisfy the following relational expression: 0 ≤ C ≤ 1.0 × 10 − 13 Pa − 1 in which C is a comprehensive photoelastic coefficient, and is defined by the following equation: C ≡ C 100 ρ 100 d 100 ρ 100 d 100 + ρ 200 d 200 + C 200 ρ 200 d 200 ρ 100 d 100 + ρ 200 d 200 in which C 100 is the photoelastic coefficient of the transparent substrate; ρ 100 is the density of the transparent substrate; d 100 is the thickness of the transparent substrate; C 200 is the photoelastic coefficient of the first protective layer; ρ 200 is the density of the first protective layer; and d 200 is the thickness of the first protective layer. in which C 100 is the photoelastic coefficient of the transparent substrate; ρ 100 is the density of the transparent substrate; d 100 is the thickness of the transparent substrate; C 200 is the photoelastic coefficient of the first protective layer; ρ 200 is the density of the first protective layer; and d 200 is the thickness of the first protective layer.
Agriculture system for growing and harvesting crop comprising an at least partly conditioned environment, a cultivation base for receiving a culture substrate with a root system of the crop therein, an artificial light source which is able and adapted to expose leaves of the crop to actinic artificial light, and root temperature control means in said environment which are able and adapted to control a root temperature of the root system, characterized ir that said environment is a daylight-free environment, in that said environment comprises leaf heating means which comprise at least one infrared radiator that irradiates the leaf with infrared radiation and which control a leaf temperature of the leaf system of the crop that differs from an ambient temperature, and in that the light spectrum, the leaf temperature and the root temperature are controlled individually of each other but in mutual relation, depending on the crop.
A method for controlling a raw material feeder in a fuel cell system, the fuel cell system comprising: a fuel cell stack adapted to generate electricity using fuel gas and oxidant gas; a reformer adapted to produce the fuel gas by reforming a raw material; the raw material feeder adapted to supply the raw material to the reformer; and a combustor adapted to combust anode off-gas discharged from an anode of the fuel cell stack; and a controller adapted to control the raw material feeder; characterized in that a period of a load-following operation, in which power output of the fuel cell stack shifts from a lower level to a higher level, is divided into n sub-periods s1, s2,..., and sn, where n is a natural number of 2 or more; increase amounts in a flow rate of the raw material during the n sub-periods are defined as f1, f2,..., and fn; n ratios determined from length of a sub-period sx selected from the n sub-periods and increase amounts fx in the flow rate of the raw material during the selected sub-period sx are defined as rx, rx=fx/length of sx, where x is a natural number and 1≤x≤n; and when two ratios are selected from the n ratios with the ratio on a lower output side as a first ratio and the ratio on a higher output side as a second ratio, the raw material feeder is controlled to make the second ratio smaller than the first ratio. a fuel cell stack adapted to generate electricity using fuel gas and oxidant gas; a reformer adapted to produce the fuel gas by reforming a raw material; the raw material feeder adapted to supply the raw material to the reformer; and a combustor adapted to combust anode off-gas discharged from an anode of the fuel cell stack; and a controller adapted to control the raw material feeder; characterized in that a period of a load-following operation, in which power output of the fuel cell stack shifts from a lower level to a higher level, is divided into n sub-periods s1, s2,..., and sn, where n is a natural number of 2 or more; increase amounts in a flow rate of the raw material during the n sub-periods are defined as f1, f2,..., and fn; n ratios determined from length of a sub-period sx selected from the n sub-periods and increase amounts fx in the flow rate of the raw material during the selected sub-period sx are defined as rx, rx=fx/length of sx, where x is a natural number and 1≤x≤n; and when two ratios are selected from the n ratios with the ratio on a lower output side as a first ratio and the ratio on a higher output side as a second ratio, the raw material feeder is controlled to make the second ratio smaller than the first ratio.
Peptide for use in closing a wound, wherein the peptide comprises: a. at least one amino acid sequence of at least 6 amino acids adjacently present in Histatin 2 and/or b. at least one amino acid sequence having substitution, deletion and/or insertion of at most 1 amino acid in said amino acid of at least 6 amino acids adjacently present in Histatin 2. a. at least one amino acid sequence of at least 6 amino acids adjacently present in Histatin 2 and/or b. at least one amino acid sequence having substitution, deletion and/or insertion of at most 1 amino acid in said amino acid of at least 6 amino acids adjacently present in Histatin 2.
A pharmaceutical composition for use in the treatment of glaucoma, optic neuritis, or lattice dystrophy in a subject comprising a therapeutically effective amount of a monoclonal antibody or a functional fragment thereof, wherein said antibody or functional fragment thereof binds to β-amyloid protein and comprises: a light chain complementarity determining region 1 comprising the amino acid sequence of SEQ ID NO: 21, a light chain CDR2 comprising the amino acid sequence of SEQ ID NO: 22, a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 23, a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 24, a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 25, and a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO: 26.
A waterproof connector (10, 10A) comprising: at least one contact made of a conductive material; a shell made of metal interior of which the contact is disposed and having an insertion port into which a counterpart connector can be inserted on one side; and a housing (32, 33) made of an insulation resin material formed so as to cover the outside of the shell and to fix the contact and the shell as an integral structure; wherein the shell projects from the housing at the side of the insertion port towards the counterpart connector and is exposed to form an outer circumferential exposure portion, the outer circumference exposure portion of the shell is disposed with a waterproof portion (49, 49A), characterized in that the waterproof portion (49, 49A) is integrally formed from an elastic material by insert molding into an annular shape, so that an end of the waterproof portion (49, 49A) is aligned with an end of the insertion port, and so that the waterproof portion (49, 49A) only surrounds the outer circumferential exposure portion of the shell. at least one contact made of a conductive material; a shell made of metal interior of which the contact is disposed and having an insertion port into which a counterpart connector can be inserted on one side; and a housing (32, 33) made of an insulation resin material formed so as to cover the outside of the shell and to fix the contact and the shell as an integral structure; wherein the shell projects from the housing at the side of the insertion port towards the counterpart connector and is exposed to form an outer circumferential exposure portion, the outer circumference exposure portion of the shell is disposed with a waterproof portion (49, 49A),
A method for the production of a metal-ceramic substrate comprising: - providing a ceramic element and a metal layer, - providing a gas-tight container enclosing the ceramic element, wherein the container is preferably formed from the metal layer or comprises the metal layer, - forming the metal-ceramic substrate by bonding the metal layer to the ceramic element by means of hot isostatic pressing, wherein, for forming the metal-ceramic substrate, an active metal layer or a contact layer comprising an active metal is arranged at least in sections between the metal layer and the ceramic element to support the bonding of the metal layer to the ceramic element, wherein the active metal is titanium, zirconium, hafnium, chromium, niobium, cerium, tantalum, magnesium, lanthanum, vanadium, molybdenum or tungsten, wherein a proportion of active metal in the contact layer is greater than 15 wt. % and wherein the metal layer is structured to form a metal-ceramic substrate suitable as a printed circuit board. - providing a ceramic element and a metal layer, - providing a gas-tight container enclosing the ceramic element, wherein the container is preferably formed from the metal layer or comprises the metal layer, - forming the metal-ceramic substrate by bonding the metal layer to the ceramic element by means of hot isostatic pressing,
A compound of Formula III: wherein: R 1 is C(R 2)(R 3)(R 4); R 2 is hydrogen, -OH or halogen; R 3 is hydrogen, -OH, halogen or-CH 3; R 4 is halogen, -CH 3, phenyl, fluorophenyl, methylphenyl, cyclohexylmethyl, wherein when R 4 is a halogen, both R 2 and R 3 cannot be hydrogen; R 3 and R 4 may join with the carbon to which they are attached to form a cycloalkyl ring, which may be optionally substituted with one or more halogen atoms; R 7 is -OH or halogen; and R 8 is hydrogen, halogen or -CH 3,; or a pharmaceutically acceptable salt thereof; provided that the compound is not: R 1 is C(R 2)(R 3)(R 4); R 2 is hydrogen, -OH or halogen; R 3 is hydrogen, -OH, halogen or-CH 3; R 4 is halogen, -CH 3, phenyl, fluorophenyl, methylphenyl, cyclohexylmethyl, wherein when R 4 is a halogen, both R 2 and R 3 cannot be hydrogen; R 3 and R 4 may join with the carbon to which they are attached to form a cycloalkyl ring, which may be optionally substituted with one or more halogen atoms; R 7 is -OH or halogen; and R 8 is hydrogen, halogen or -CH 3,; or a pharmaceutically acceptable salt thereof; provided that the compound is not:
A filter for the removal of water from oil, the filter comprising a distillation element having an inlet pipe that in one end is to be fluidly connectable to a reservoir of oil to be filtered, and in the other end being fluidly connected to a distillation head,, the filter further comprising a tubular core with a plurality of apertures and a hollow interior, said core having an open end for fluid communication with the hollow interior, a length of yarn wound around an outer surface of the core, said distillation head is comprising a plurality of compressing tubes for injecting said oil into an evaporation chamber, whereby eventual water within the oil evaporates from said oil, and characterized in that the filter further comprises means for blowing air or an inert gas into the evaporation chamber for removal of the water vapor during use of the filter.
A method for dynamically distributing resources to a plurality of cell regions in a cellular communications network, said method characterized in that it comprises the steps of: directing, by a first network node, a second network node associated with a first cell region, or a wireless terminal in communication through said first cell region, to measure and report radio resource-related data, wherein said radio resource-related data consists of resource activity per channel, wherein the resource activity per channel is defined as the ratio of the time during which a channel is scheduled to the measurement period; receiving, at said first network node, at least one measurement report of said radio resource-related data; and, dynamically re-allocating, by said first network node, the distribution of resources between said first cell region and at least a second cell region as a function of said radio resource-related data in said first cell region. directing, by a first network node, a second network node associated with a first cell region, or a wireless terminal in communication through said first cell region, to measure and report radio resource-related data, wherein said radio resource-related data consists of resource activity per channel, wherein the resource activity per channel is defined as the ratio of the time during which a channel is scheduled to the measurement period; receiving, at said first network node, at least one measurement report of said radio resource-related data; and, dynamically re-allocating, by said first network node, the distribution of resources between said first cell region and at least a second cell region as a function of said radio resource-related data in said first cell region.