mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a health of rotating blades of a rotor assembly, comprising: establishing sets of blade frequency values for each rotating blade at two or more different points in time, wherein the blade frequency values are determined by processing vibration data as a system of rotating blades to extract a frequency of each blade and applying a function in which the extracted frequency is an independent variable; comparing the sets of blade frequency values to determine a change in the blade frequency values for each rotating blade; and determining an indication of blade health from the change in the blade frequency values, wherein the system of rotating blades comprises an entire row of rotating blades, wherein said function comprises a blade frequency ratio, wherein said step of processing vibration data as a system of rotating blades uses a mistuning analysis technique which treats said entire row of rotating blades as a complex system of mistuned rotating blades, in contrast to considering each rotating blade of said entire row individually in turn. establishing sets of blade frequency values for each rotating blade at two or more different points in time, wherein the blade frequency values are determined by processing vibration data as a system of rotating blades to extract a frequency of each blade and applying a function in which the extracted frequency is an independent variable; comparing the sets of blade frequency values to determine a change in the blade frequency values for each rotating blade; and determining an indication of blade health from the change in the blade frequency values,
A method of reducing power consumption by a display device comprising a display logic for processing pixel data wherein the reduction of power consumption is in accordance with the entropy of an image, and a display panel comprising a plurality of pixels, the method comprising: receiving the pixel data corresponding to the plurality of pixels of an image frame; determining whether a number of consecutive pixels of the plurality of pixels within the image frame that correspond to identical data of the pixel data reaches a threshold number; and powering down the display logic when the number of consecutive pixels exceeds the threshold number. receiving the pixel data corresponding to the plurality of pixels of an image frame; determining whether a number of consecutive pixels of the plurality of pixels within the image frame that correspond to identical data of the pixel data reaches a threshold number; and powering down the display logic when the number of consecutive pixels exceeds the threshold number.
A measuring instrument comprising: a sensor to measure a property of the local environment, the property being selected from the field strength and/or one or more vector components of a local force field; a mechanism configured to cause the sensor to move along a predetermined path relative to a fixed reference frame of the instrument; and a signal processing system configured to receive a sensor signal generated by the sensor, perform a Fourier transform on the sensor signal to identify frequency components of the sensor signal, and compare the frequency components of the sensor signal with frequency components associated with the predetermined path to determine a measurement of the property of the local environment; wherein the mechanism comprises a first member, wherein the first member has a first axis and a second axis that is different from the first axis, wherein the mechanism is configured to cause the first member and the sensor to rotate about the first axis, and to cause the sensor to rotate about the second axis, wherein the sensor is spatially offset from the first axis, wherein rotation of the sensor and the first member about the first axis has a first angular velocity and rotation of the sensor about the second axis has a second angular velocity, and wherein rotation of the sensor and the first member about the first axis is coupled to rotation of the sensor about the second axis such that the first angular velocity is related to the second angular velocity by a predetermined ratio between the first and second angular velocities. a sensor to measure a property of the local environment, the property being selected from the field strength and/or one or more vector components of a local force field; a mechanism configured to cause the sensor to move along a predetermined path relative to a fixed reference frame of the instrument; and a signal processing system configured to receive a sensor signal generated by the sensor, perform a Fourier transform on the sensor signal to identify frequency components of the sensor signal, and compare the frequency components of the sensor signal with frequency components associated with the predetermined path to determine a measurement of the property of the local environment; wherein the mechanism comprises a first member, wherein the first member has a first axis and a second axis that is different from the first axis, wherein the mechanism is configured to cause the first member and the sensor to rotate about the first axis, and to cause the sensor to rotate about the second axis, wherein the sensor is spatially offset from the first axis, wherein rotation of the sensor and the first member about the first axis has a first angular velocity and rotation of the sensor about the second axis has a second angular velocity, and wherein rotation of the sensor and the first member about the first axis is coupled to rotation of the sensor about the second axis such that the first angular velocity is related to the second angular velocity by a predetermined ratio between the first and second angular velocities.
A method of multi-pass inkjet printing comprising: (i) providing an inkjet ink comprising a radiation-curable monomer and a photoinitiator; (ii) jetting the ink via a printhead on to a substrate, wherein the ink is applied in multiple passes of the printhead with respect to the substrate, with each pass jetting a portion of ink in a layer on the substrate, with a first layer being jetted directly on to the substrate and subsequent layers being jetted onto the preceding layer, to build an image formed of the multiple layers; and characterized by (iii) exposing all of the layers of ink to actinic radiation to cure the ink, wherein the order of jetting the layers and curing is that pairs of layers are applied to the substrate without exposing the first layer of the pair to actinic radiation prior to the second layer of the pair of layers being applied, curing the pair of layers simultaneously by exposing the pair of layers to actinic radiation, and repeating until the image is formed. (i) providing an inkjet ink comprising a radiation-curable monomer and a photoinitiator; (ii) jetting the ink via a printhead on to a substrate, wherein the ink is applied in multiple passes of the printhead with respect to the substrate, with each pass jetting a portion of ink in a layer on the substrate, with a first layer being jetted directly on to the substrate and subsequent layers being jetted onto the preceding layer, to build an image formed of the multiple layers; and characterized by (iii) exposing all of the layers of ink to actinic radiation to cure the ink, wherein the order of jetting the layers and curing is that pairs of layers are applied to the substrate without exposing the first layer of the pair to actinic radiation prior to the second layer of the pair of layers being applied, curing the pair of layers simultaneously by exposing the pair of layers to actinic radiation, and repeating until the image is formed.
Premix burner with a swirl generator delimiting a conical swirl chamber and comprising at least two part-conical shells (2, 3) which are arranged offset to each other along the burner axis, mutually enclose respective air intake slots running along the burner axis and in combination have a conically flaring outer contour of the premix burner which has a maximum outer diameter (A max) which tapers axially into a region with a minimum outer diameter (A min), characterized in that at least one part-conical shell (2, 3), in the region between the maximum outer diameter and the minimum outer diameter, provides a receiving unit which deviates from the conically flaring outer contour of the premix burner and locally protrudes radially outward from the premix burner outer contour with a maximum radial extension (R max) which is less than the largest half outer diameter (A max) of the premix burner outer contour, and that at least one hollow channel is provided in the receiving unit with at least one channel opening facing away from the swirl chamber and a channel longitudinal extension which runs substantially parallel to the burner axis.
A structure including an elastomeric film layer and an adhesive in contact therewith, wherein the elastomeric film layer comprises: a SEEPS elastomeric block copolymer having a rubbery midblock of a hydrogenated copolymer of isoprene and butadiene; a thermoplastic polymer additive; a tackifier in an amount greater than 7 percent by weight of the elastomeric film layer; and a plasticizer; wherein the adhesive comprises either: from 10 to 45 percent by weight of a block copolymer; from 40 to 80 percent by weight of a tackifier; and up to 15 percent by weight of a plasticizer; or: at least one homogeneous polyolefin copolymer of ethylene with propylene or alphaolefins; up to 60 percent by weight of a tackifier; and up to 15 percent by weight of a plasticizer; and wherein the structure exhibits a Slow Peel Resistance no greater than 2.0 μm/s and the structure exhibits a Peel Force greater than 5.0 N/mm. a SEEPS elastomeric block copolymer having a rubbery midblock of a hydrogenated copolymer of isoprene and butadiene; a thermoplastic polymer additive; a tackifier in an amount greater than 7 percent by weight of the elastomeric film layer; and a plasticizer; from 10 to 45 percent by weight of a block copolymer; from 40 to 80 percent by weight of a tackifier; and up to 15 percent by weight of a plasticizer; at least one homogeneous polyolefin copolymer of ethylene with propylene or alphaolefins; up to 60 percent by weight of a tackifier; and up to 15 percent by weight of a plasticizer;
A method for the manufacture of a light-emitting device, comprising: providing a housing having at least one recess, said housing comprising a translucent inorganic material; arranging positioning and orientating means in each of said at least one recess; characterized in arranging a translucent inorganic contact layer material in each of said at least one recess, wherein said contact layer material is arranged in said recess at temperature above the softening temperature for said contact layer material; and then in each of said at least one recess, arranging a light-emitting diode on said contact layer material arranged in the respective recess, such that said light emitting diode is positioned and orientated by said orientating and positioning means, and said contact layer material and said housing receives at least part of light emitted by said light-emitting diode, wherein said light-emitting diode is arranged in the respective recess at a temperature between the glass temperature and the softening temperature of said contact layer material, wherein said temperature between the glass temperature and the softening temperature is in the range from 250°C to lower than 350°C. providing a housing having at least one recess, said housing comprising a translucent inorganic material; arranging positioning and orientating means in each of said at least one recess; characterized in arranging a translucent inorganic contact layer material in each of said at least one recess, wherein said contact layer material is arranged in said recess at temperature above the softening temperature for said contact layer material; and then in each of said at least one recess, arranging a light-emitting diode on said contact layer material arranged in the respective recess, such that said light emitting diode is positioned and orientated by said orientating and positioning means, and said contact layer material and said housing receives at least part of light emitted by said light-emitting diode, wherein said light-emitting diode is arranged in the respective recess at a temperature between the glass temperature and the softening temperature of said contact layer material, wherein said temperature between the glass temperature and the softening temperature is in the range from 250°C to lower than 350°C.
An offset printing ink composition comprising a liquid carrier, an inorganic particulate additive and a flocculant, wherein the flocculant is present in the ink composition in an amount ranging from about 0.05 % to about 1.0 % by weight of the inorganic particulate additive.
A vehicle comprising: an internal cabin; and a sanitizing system comprising: a plurality of ultraviolet, UV, lamps mounted at various locations within the internal cabin of the vehicle, wherein the UV lamps are configured to receive electrical power from a power source onboard the vehicle and to emit UV light into the internal cabin on a continuous basis during a trip of the vehicle, wherein the UV lamps are positioned such that the emitted UV light disinfects air within the internal cabin; and a control unit including one or more processors, the control unit being operatively connected to the UV lamps; wherein the control unit is configured to operate one or more of the UV lamps at a first power level responsive to the control unit determining that passengers are boarding or deboarding the internal cabin. an internal cabin; and a sanitizing system comprising: a plurality of ultraviolet, UV, lamps mounted at various locations within the internal cabin of the vehicle, wherein the UV lamps are configured to receive electrical power from a power source onboard the vehicle and to emit UV light into the internal cabin on a continuous basis during a trip of the vehicle, wherein the UV lamps are positioned such that the emitted UV light disinfects air within the internal cabin; and a control unit including one or more processors, the control unit being operatively connected to the UV lamps; wherein the control unit is configured to operate one or more of the UV lamps at a first power level responsive to the control unit determining that passengers are boarding or deboarding the internal cabin. a plurality of ultraviolet, UV, lamps mounted at various locations within the internal cabin of the vehicle, wherein the UV lamps are configured to receive electrical power from a power source onboard the vehicle and to emit UV light into the internal cabin on a continuous basis during a trip of the vehicle, wherein the UV lamps are positioned such that the emitted UV light disinfects air within the internal cabin; and a control unit including one or more processors, the control unit being operatively connected to the UV lamps; wherein the control unit is configured to operate one or more of the UV lamps at a first power level responsive to the control unit determining that passengers are boarding or deboarding the internal cabin.
An interlayer film for laminated glass, comprising an infrared ray reflection layer for reflecting infrared rays, a first resin layer containing a thermoplastic resin and a second resin layer containing a thermoplastic resin, the first resin layer being arranged on a first surface side of the infrared ray reflection layer, the second resin layer being arranged on a second surface side opposite to the first surface of the infrared ray reflection layer, wherein the second resin layer contains both of tin-doped indium oxide particles and tungsten oxide particles, the content of the tungsten particles in 100% by weight of the second resin layer is 0.04% by weight or less, and the total content of the tin-doped indium oxide particles and the tungsten oxide particles in 100% by weight of the second resin layer is 0.01% by weight or more and 6% by weight or less.
A processor comprising: a first shader engine configured to process pixel shaders for a predetermined first subset of pixels to be displayed on a display device, wherein the first shader engine comprises a first plurality of SIMD units; a second shader engine (21 OB) configured to process pixel shaders for a predetermined second subset of pixels to be displayed on the display device, wherein the second shader engine comprises a second plurality of SIMD units; a level-one, L1, data cache coupled to and positioned between the first and second shader engines; and an input logic configured, for pixel shaders, to perform preprocessing operations that include partitioning the pixels to be displayed on the display device into the first subset and the second subset and scheduling the pixel shaders to an available shader engine using a vertex analyzer and allocating the pixel shaders to a shader engine using an input control block, wherein the input logic includes the vertex analyzer and the input control block, and the input control block configured to allocate general compute shaders and non-pixel graphics shaders to an available one of the first shader engine and the second shader engine, a shader engine being available based on input and output data being available, wherein the first and second shader engines are each further configured to process the general-compute shaders and the non-pixel graphics shaders, wherein the shader engines are unified with respect to non-pixel shaders and not unified with respect to pixel shaders and the shader engines are configured to process pixel shaders, non-pixle shaders, or both. a first shader engine configured to process pixel shaders for a predetermined first subset of pixels to be displayed on a display device, wherein the first shader engine comprises a first plurality of SIMD units; a second shader engine (21 OB) configured to process pixel shaders for a predetermined second subset of pixels to be displayed on the display device, wherein the second shader engine comprises a second plurality of SIMD units; a level-one, L1, data cache coupled to and positioned between the first and second shader engines; and an input logic configured, for pixel shaders, to perform preprocessing operations that include partitioning the pixels to be displayed on the display device into the first subset and the second subset and scheduling the pixel shaders to an available shader engine using a vertex analyzer and allocating the pixel shaders to a shader engine using an input control block, wherein the input logic includes the vertex analyzer and the input control block, and
An end shield for an electric machine, comprising: a bearing mounting, in which a magnetic bearing that is equipped for the rotatable mounting of a rotor of the electric machine can be mounted; and a radially outer circumferential contour, on which a number of at least three support elements (60, 70) is provided, which in each case radially project to the outside by a certain projection dimension with respect to the circumferential contour so that they define a discontinuous outer circumferential contour of the end shield; wherein the respective projection dimensions of the support elements (60, 70) are dimensioned so that the end shield can be fitted in subject to achieving a coincidence of a centre of the magnetic bearing with a geometrical longitudinal axis of the electric machine and/or a magnetic longitudinal axis of the electric machine, characterized in that the support elements (60, 70) are arranged in two groups of support elements distributed about the circumferential contour, wherein the support elements of a first group of these two groups are in engagement with the inner circumference of the stator housing in order to fit in the end shield with respect to the stator housing, and wherein the support elements of a second group of these two groups are in engagement with the inner circumference of a connecting housing in order to fit in the connection housing independently of the end shield with respect to the stator housing. a bearing mounting, in which a magnetic bearing that is equipped for the rotatable mounting of a rotor of the electric machine can be mounted; and a radially outer circumferential contour, on which a number of at least three support elements (60, 70) is provided, which in each case radially project to the outside by a certain projection dimension with respect to the circumferential contour so that they define a discontinuous outer circumferential contour of the end shield; wherein the respective projection dimensions of the support elements (60, 70) are dimensioned so that the end shield can be fitted in subject to achieving a coincidence of a centre of the magnetic bearing with a geometrical longitudinal axis of the electric machine and/or a magnetic longitudinal axis of the electric machine, characterized in that the support elements (60, 70) are arranged in two groups of support elements distributed about the circumferential contour, wherein the support elements of a first group of these two groups are in engagement with the inner circumference of the stator housing in order to fit in the end shield with respect to the stator housing, and wherein the support elements of a second group of these two groups are in engagement with the inner circumference of a connecting housing in order to fit in the connection housing independently of the end shield with respect to the stator housing.
A peptide comprising the amino acid sequence of SEQ ID NO: 1 wherein the peptide has no more than 20 amino acid residues, or wherein optionally the peptide consists of SEQ ID NO: 1.
An agricultural machine comprising an internal combustion engine, a particulate filter arranged in an exhaust line of the internal combustion engine and a control unit adapted in a regeneration phase to control a heat source in such a way that a temperature required for regeneration of the particulate filter is reached therein and to terminate an on-going regeneration operation if at least one operating parameter of the machine that influences regeneration, deviates from a target value, characterised in that the machine includes a control device adapted to predict a period of time in which it is probably possible to hold the operating parameter at its target value and to start a regeneration operation with the beginning of that period of time, wherein the control device is coupled to a route planner in order to predict the period of time on the basis of information received by the route planner about work planned with the machine.
A liquid medicament administration device (101, 201, 301, 401) comprising a body (102, 202, 302, 403) configured to contain and support a medicament container; wherein the body comprises an aperture (103, 203, 303, 404); wherein the aperture comprises a viewing window (207, 410) that is coincident with the medicament container when the medicament container is present; and wherein the medicament container is configured such that the interior of the medicament container is visible via the viewing window when the medicament container is present in the device; characterised in that the device is configured such that the viewing window is size-adjustable in relation to the initial quantity of medicament in the medicament container. wherein the body comprises an aperture (103, 203, 303, 404); wherein the aperture comprises a viewing window (207, 410) that is coincident with the medicament container when the medicament container is present; and wherein the medicament container is configured such that the interior of the medicament container is visible via the viewing window when the medicament container is present in the device; characterised in that the device is configured such that the viewing window is size-adjustable in relation to the initial quantity of medicament in the medicament container.