mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a platform ; a fluid source associated with the platform and configured to dispense a fluid ; an arm associated with the platform and configured to extend from the platform ; an applicator associated with the arm and configured to receive the fluid dispensed by the fluid source in which the applicator is configured for use in applying the fluid onto a surface ; and an applicator movement system configured to move the applicator , wherein the applicator movement system comprises a first movement system configured to rotate the applicator about an applicator axis through the applicator independently of the arm , wherein the applicator movement system comprises a second movement system configured to rotate the arm about an axis through the arm , wherein rotation of the arm about the axis through the arm causes rotation of the applicator about the axis through the arm; wherein the applicator is a brush and the fluid is sealant ; and wherein the apparatus is an end effector configured for attachment to a robotic arm . a platform ; a fluid source associated with the platform and configured to dispense a fluid ; an arm associated with the platform and configured to extend from the platform ; an applicator associated with the arm and configured to receive the fluid dispensed by the fluid source in which the applicator is configured for use in applying the fluid onto a surface ; and an applicator movement system configured to move the applicator , wherein the applicator movement system comprises a first movement system configured to rotate the applicator about an applicator axis through the applicator independently of the arm , wherein the applicator movement system comprises a second movement system configured to rotate the arm about an axis through the arm , wherein rotation of the arm about the axis through the arm causes rotation of the applicator about the axis through the arm; wherein the applicator is a brush and the fluid is sealant ; and wherein the apparatus is an end effector configured for attachment to a robotic arm .
A method performed by a base station configured to communicate with a user equipment, UE , the method comprising; transmitting a Master Information Block, MIB, comprising a plurality of bits which are used to represent a value that maps to one of a plurality of Transport Block Sizes, TBSs, for System Information Block 1, SIB1, and to one of a plurality of numbers of repetitions of the SIB1; and transmitting, using a fixed number of resource blocks, the SIB1 based on the one of the plurality of TBSs and the one of the plurality of numbers of repetitions. transmitting a Master Information Block, MIB, comprising a plurality of bits which are used to represent a value that maps to one of a plurality of Transport Block Sizes, TBSs, for System Information Block 1, SIB1, and to one of a plurality of numbers of repetitions of the SIB1; and transmitting, using a fixed number of resource blocks, the SIB1 based on the one of the plurality of TBSs and the one of the plurality of numbers of repetitions.
A method for an audio/video (A/V) recording and communication doorbell system comprising an A/V recording and communication doorbell comprising a camera , a speaker , a microphone , a power manager , a battery , an AC/DC rectifier , and a DC/DC converter , the A/V recording and communication doorbell connected to an external AC power source through the AC/DC rectifier and the DC/DC converter , the method comprising: the power manager drawing power, up to a threshold power as measured at an output of the DC/DC converter , from the external AC power source ; determining that the power drawn from the external AC power source has reached the threshold power; and characterised by the power manager drawing supplemental power from the battery such that the power drawn from the external AC power source does not exceed the threshold power as measured at the output of the DC/DC converter . the power manager drawing power, up to a threshold power as measured at an output of the DC/DC converter , from the external AC power source ; determining that the power drawn from the external AC power source has reached the threshold power; and characterised by the power manager drawing supplemental power from the battery such that the power drawn from the external AC power source does not exceed the threshold power as measured at the output of the DC/DC converter .
A shear-assisted extrusion process for forming non-circular hollow-profile extrusions of a desired composition from feedstock material , the method comprising: simultaneously applying a rotational shearing force and an axial extrusion force to the same location on the feedstock material using a scroll of a portal bridge die having a scroll face with a plurality of grooves defined therein by pushing the scroll face into the feedstock material while the scroll is rotated relative to the feedstock material to plasticize the feedstock material against the scroll face , the grooves configured to direct plasticized feedstock material from a first location at the interface between the feedstock material and the scroll face through the die via multiple portals defined within the scroll face , each portal configured to direct plasticized material through the scroll face , to a second location on a die bearing surface where the plasticized feedstock material recombines at the die bearing surface to form the extrusions .
Method for inspecting ply-by-ply machining of a part under repair made of a fibre-resin type multilayer composite material by ply-by-ply machining a stepped (Mi) or continuously sloped cut-out (E) in a stack of plies (Pi) with different successive orientations, in conjunction with imaging, characterized in that it includes the following steps: - capturing images (I A to I D ) with lighting of different orientation of a surface of the machined part to be inspected as a function of the orientations and the optical characteristics of the machined plies (Pi); - analysing by comparing the images (I A to I D ) pixel by pixel (P 0 ) in order to determine the orientation of each pixel (P 0 ) as corresponding to that of the image in which that pixel has a greater brightness; - if the pixel has similar brightness in all the images (I A to I D ) that pixel (Pr) is attributed to the resin; - constructing a map expressed in ply units of the surface to be inspected by applying the foregoing analysis to all the pixels; - estimating a level of machining quality from the map produced; and - archiving each map produced in this way as a machining result. - capturing images (I A to I D ) with lighting of different orientation of a surface of the machined part to be inspected as a function of the orientations and the optical characteristics of the machined plies (Pi); - analysing by comparing the images (I A to I D ) pixel by pixel (P 0 ) in order to determine the orientation of each pixel (P 0 ) as corresponding to that of the image in which that pixel has a greater brightness; - if the pixel has similar brightness in all the images (I A to I D ) that pixel (Pr) is attributed to the resin; - constructing a map expressed in ply units of the surface to be inspected by applying the foregoing analysis to all the pixels; - estimating a level of machining quality from the map produced; and - archiving each map produced in this way as a machining result.
A mobile station for communicating with a base station of a wireless communication system, comprising: means for generating a first Zadoff-Chu sequence to be allocated to a first block of a frame of a first cell and a second Zadoff-Chu sequence to be allocated to a second block of said frame of the first cell; and signal sending means for sending on the first cell a first signal generated based on said first Zadoff-Chu sequence in said frame and a second signal generated based on said second Zadoff-Chu sequence in said frame, wherein a first value of a parameter for the first Zadoff-Chu sequence is different from a second value of the parameter for the second Zadoff-Chu sequence, wherein the first and second values are based on a cell index of the first cell, the cell index being different from cell indices of other cells, and wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[-(j2πk/N) (n(n+1)/2+qn)], wherein n=0, 1, ..., N, and q is an arbitrary integer, N is a sequence length and k is the parameter. means for generating a first Zadoff-Chu sequence to be allocated to a first block of a frame of a first cell and a second Zadoff-Chu sequence to be allocated to a second block of said frame of the first cell; and signal sending means for sending on the first cell a first signal generated based on said first Zadoff-Chu sequence in said frame and a second signal generated based on said second Zadoff-Chu sequence in said frame, wherein a first value of a parameter for the first Zadoff-Chu sequence is different from a second value of the parameter for the second Zadoff-Chu sequence, wherein the first and second values are based on a cell index of the first cell, the cell index being different from cell indices of other cells, and wherein said Zadoff-Chu sequence is represented by a formula: C_k(n)=exp[-(j2πk/N) (n(n+1)/2+qn)], wherein n=0, 1, ..., N, and q is an arbitrary integer, N is a sequence length and k is the parameter.
Angle mirror (A) comprising a housing comprising a lower part and a mirror head in the housing , characterized in that an objective (B) is arranged outside the housing of the angle mirror (A), wherein the objective (B) is connected to the angle mirror (A) via an optical connection (C), and ports (D) are provided on the angle mirror (A) and the objective (B) to make the optical connection (C). an objective (B) is arranged outside the housing of the angle mirror (A), wherein the objective (B) is connected to the angle mirror (A) via an optical connection (C), and ports (D) are provided on the angle mirror (A) and the objective (B) to make the optical connection (C).
A hot-dip Al-Zn alloy coated steel sheet having a hot-dip coating layer, wherein the hot-dip coating layer consists of, by mass%, Al: 45 % to 70 %, at least one element selected from a group consisting of Sn: 0.01 % to 0.10 %, In: 0.01 % to 10 %, and Bi: 0.01 % to 2.0 %, optionally Si: 0.1 % to 10 %, and optionally at least one element selected from a group consisting of Mn, V, Cr, Mo, Ti, Ni, Co, Sb, Zr, and B in a total of 0.01 % to 10 %, the balance being Zn and incidental impurities.
A solid-state imaging device comprising: a photoelectric conversion section that performs photoelectric conversion; a trench that penetrates a semiconductor substrate in a depth direction and that is formed between the photoelectric conversion sections provided in adjacent pixels ; a PN junction region formed on a sidewall of the trench , the PN junction region including a P-type region and an N-type region , and a second P-type region formed on a light entrance surface side of the photoelectric conversion section , characterised in that the P-type region has a protruding region protruding to a lower side of the N-type region and further protruding to the inside of the second P-type region at the end of the second P-type region . a photoelectric conversion section that performs photoelectric conversion; a trench that penetrates a semiconductor substrate in a depth direction and that is formed between the photoelectric conversion sections provided in adjacent pixels ; a PN junction region formed on a sidewall of the trench , the PN junction region including a P-type region and an N-type region , and a second P-type region formed on a light entrance surface side of the photoelectric conversion section , characterised in that the P-type region has a protruding region protruding to a lower side of the N-type region and further protruding to the inside of the second P-type region at the end of the second P-type region .
Non-transitory storage media including computer program instructions which, when executed by a processor, cause the processor to carry out a method for on-line determining an indicator indicative of stress using individual heart beat ECG features of data acquired from an individual subject, comprising: obtaining a data sample of each heart beat individually from the acquired data; calculating a set of fiducial heart beat features from each said data sample of an individual heart beat; classifying each data sample as indicative of stressed or not-stressed, using a pretrained classifier which was previously trained using the same fiducial heart beat features from previously acquired reference data samples each from individual heart beats of said individual subject; and determining the indicator of stress as detected when at least one data sample of an individual heart beat is classified as indicative of stressed, wherein the fiducial heart beat features comprise RT, ST, QR, STc, RR, QRS, QTc, STinterval and QTinterval, and wherein the pretrained classifier is a Linear Support Vector Machine (SVM), a Kernel Support Vector Machine (K-SVM), a K-Nearest Neighbor (K-NN), or a Random Forest classifier. obtaining a data sample of each heart beat individually from the acquired data; calculating a set of fiducial heart beat features from each said data sample of an individual heart beat; classifying each data sample as indicative of stressed or not-stressed, using a pretrained classifier which was previously trained using the same fiducial heart beat features from previously acquired reference data samples each from individual heart beats of said individual subject; and determining the indicator of stress as detected when at least one data sample of an individual heart beat is classified as indicative of stressed, wherein the fiducial heart beat features comprise RT, ST, QR, STc, RR, QRS, QTc, STinterval and QTinterval, and wherein the pretrained classifier is a Linear Support Vector Machine (SVM), a Kernel Support Vector Machine (K-SVM), a K-Nearest Neighbor (K-NN), or a Random Forest classifier.
No-rinse veterinary composition comprising an active ingredient obtained from Ophiopogon japonicus , panthenol, and saccharide isomerate.
A thermoplastic resin composition comprising: 1 to 20 wt% of a first graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit, and a vinyl cyan-based monomer unit; 20 to 45 wt% of a second graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit, and a vinyl cyan-based monomer unit; and 40 to 70 wt% of a first styrene-based copolymer being a copolymer of a monomer mixture including a C 1 to C 3 alkyl-substituted styrene-based monomer, a vinyl cyan-based monomer, and a C 1 to C 3 alkyl (meth)acrylate-based monomer, wherein the first graft copolymer has a core having an average particle diameter of 350 to 600 nm measured by a dynamic light scattering method, wherein the second graft copolymer has a core having an average particle diameter of 30 to 200 nm measured by a dynamic light scattering method. 1 to 20 wt% of a first graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit, and a vinyl cyan-based monomer unit; 20 to 45 wt% of a second graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit, and a vinyl cyan-based monomer unit; and 40 to 70 wt% of a first styrene-based copolymer being a copolymer of a monomer mixture including a C 1 to C 3 alkyl-substituted styrene-based monomer, a vinyl cyan-based monomer, and a C 1 to C 3 alkyl (meth)acrylate-based monomer, wherein the first graft copolymer has a core having an average particle diameter of 350 to 600 nm measured by a dynamic light scattering method, wherein the second graft copolymer has a core having an average particle diameter of 30 to 200 nm measured by a dynamic light scattering method.
Boundary layer sensor for determining a thickness of a boundary layer on a surface of a body around which there is a flow, said sensor having at least a first device for determining a temperature , at least a second device for determining a temperature and at least a third device for determining a temperature , each being designed to be arranged at a predefinable distance (X1, X2, X3) from the surface of the body around which there is a flow during the operation of the boundary layer sensor , the predefinable distance X2 of the second device for determining the temperature being selected in such a way that this distance is between the first distance X1 and the third distance X3 of the first and third device for determining the temperature, the boundary layer sensor further comprising an evaluation device which is designed to determine the boundary layer thickness and/or the convective heat transfer coefficient from the three temperatures or the temperature differences, characterized in that at least the second and the third device for determining a temperature are applied to a printed circuit board , which is applied to a measuring element . at least a first device for determining a temperature , at least a second device for determining a temperature and at least a third device for determining a temperature , each being designed to be arranged at a predefinable distance (X1, X2, X3) from the surface of the body around which there is a flow during the operation of the boundary layer sensor , the predefinable distance X2 of the second device for determining the temperature being selected in such a way that this distance is between the first distance X1 and the third distance X3 of the first and third device for determining the temperature, the boundary layer sensor further comprising an evaluation device which is designed to determine the boundary layer thickness and/or the convective heat transfer coefficient from the three temperatures or the temperature differences, characterized in that at least the second and the third device for determining a temperature are applied to a printed circuit board , which is applied to a measuring element .
A power control device for controlling electric power of a vehicle which includes hot-wire heaters provided respectively in a plurality of areas which are obtained by dividing a front window, characterized by the power control device being configured to: switch between alternating control and entire surface control based on an external air temperature of the vehicle and a speed of the vehicle, the alternating control being for sequentially energizing each hot-wire heater provided in each of the plurality of areas, and the entire surface control being for simultaneously energizing all the hot-wire heaters provided in the plurality of areas.
Method for determining a safe speed (v*) at a future waypoint (s*) of a vehicle moving along a route, comprising the following steps: - providing at least one item of route information characterizing the route course of the route (in particular curve curvature κ); - providing a first probability distribution (P ges ) of a maximum coefficient of friction (μ) at the current waypoint (s) and/or at the future waypoint (s*) of the vehicle; - ascertaining a second probability distribution (P v ) of a vehicle speed (v) at the future waypoint (s*) from the at least one item of route information (κ) and the first probability distribution (P ges ); - determining the safe speed (v*) from the second probability distribution (P v ), e.g. by statistical analysis. - providing at least one item of route information characterizing the route course of the route (in particular curve curvature κ); - providing a first probability distribution (P ges ) of a maximum coefficient of friction (μ) at the current waypoint (s) and/or at the future waypoint (s*) of the vehicle; - ascertaining a second probability distribution (P v ) of a vehicle speed (v) at the future waypoint (s*) from the at least one item of route information (κ) and the first probability distribution (P ges ); - determining the safe speed (v*) from the second probability distribution (P v ), e.g. by statistical analysis.
A wind turbine blade comprising a load carrying structure made of a fibre-reinforced polymer material, wherein the load carrying structure comprises a plurality of stacked fibre mats in a thickness of the load carrying structure, wherein a plurality of said stacked fibre mats are made of hybrid material comprising both carbon fibres and glass fibres and having a carbon fibre ratio, which is defined as a volume of the carbon fibres divided by a total volume of the glass fibres and carbon fibres, characterised in that - at least a number of said stacked fibre mats have different carbon fibre ratios such that the carbon fibre ratio of fibre material varies through the thickness of the load carrying structure, wherein at least a number of the stacked fibre mats comprises glass fibre rovings arranged on a carbon fibre substrate, and wherein at least a number of said stack fibre mats having different carbon fibre ratios is obtained by said fibre mats having different thicknesses of carbon fibre substrate. - at least a number of said stacked fibre mats have different carbon fibre ratios such that the carbon fibre ratio of fibre material varies through the thickness of the load carrying structure,
A method of installing a liner assembly for pipeline (P) repair or reinforcement, the method comprising: pulling a prepared liner assembly into position in the pipeline (P), the liner assembly including an outer tubular liner , an inner malleable inflatable bladder fabricated of a resilient material and positioned longitudinally within the tubular liner , and installation gear comprising a pull block sealingly secured to an installation end of the inflatable bladder and an inflation block sealingly secured to an inflation end of the inflatable bladder , the inflatable bladder having a textured outer surface configured to bond to the tubular liner and an inner surface configured to provide a resilient surface on the pipeline (P) interior, the textured outer surface being a roughened surface, the textured outer surface being formed by one or more of mechanical abrasion and chemical abrasion after securing the installation gear to the ends of the inflatable bladder , the tubular liner and the textured outer surface being wetted with a curable compound; introducing fluid into the inflatable bladder so that the inflatable bladder expands to bring the tubular liner into firm contact with an interior surface of the pipeline (P); maintaining the liner assembly in an inflated condition for a time period sufficient for the tubular liner and the outer surface of the inflatable bladder to cure; and deflating the inflatable bladder and retrieving at least a portion of the liner assembly from the pipeline (P). pulling a prepared liner assembly into position in the pipeline (P), the liner assembly including an outer tubular liner , an inner malleable inflatable bladder fabricated of a resilient material and positioned longitudinally within the tubular liner , and installation gear comprising a pull block sealingly secured to an installation end of the inflatable bladder and an inflation block sealingly secured to an inflation end of the inflatable bladder , the inflatable bladder having a textured outer surface configured to bond to the tubular liner and an inner surface configured to provide a resilient surface on the pipeline (P) interior, the textured outer surface being a roughened surface, the textured outer surface being formed by one or more of mechanical abrasion and chemical abrasion after securing the installation gear to the ends of the inflatable bladder , the tubular liner and the textured outer surface being wetted with a curable compound; introducing fluid into the inflatable bladder so that the inflatable bladder expands to bring the tubular liner into firm contact with an interior surface of the pipeline (P); maintaining the liner assembly in an inflated condition for a time period sufficient for the tubular liner and the outer surface of the inflatable bladder to cure; and deflating the inflatable bladder and retrieving at least a portion of the liner assembly from the pipeline (P).