mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device comprising: a communication unit configured to transmit and receive an image to and from a communication connection destination; and a control unit configured to control a display range and a position of the image, on a basis of a display size of a display device that displays the image, and distance information of a subject appearing in the image that is acquired from the image, characterized in that the control unit is further configured to control the display range and the position of the image, on a basis of installation position information of the display device that displays the image; wherein the installation position information includes height information of the display device from a ground, wherein the control unit is configured to calculate an actual height from the ground to a face based on the distance information of the subject, and to perform control so as to perform life-size display of the subject, with the position of the display device being a virtual standing position of the subject, by deciding the display range of the image in a manner that the displayed face of the subject is located at a same position as the actual height; and wherein in a case where the face is not within the decided display range, the control unit is configured to perform control so as to notify the communication connection destination that the face is outside the display range. a communication unit configured to transmit and receive an image to and from a communication connection destination; and a control unit configured to control a display range and a position of the image, on a basis of a display size of a display device that displays the image, and distance information of a subject appearing in the image that is acquired from the image, characterized in that the control unit is further configured to control the display range and the position of the image, on a basis of installation position information of the display device that displays the image; wherein the installation position information includes height information of the display device from a ground, wherein the control unit is configured to calculate an actual height from the ground to a face based on the distance information of the subject, and to perform control so as to perform life-size display of the subject, with the position of the display device being a virtual standing position of the subject, by deciding the display range of the image in a manner that the displayed face of the subject is located at a same position as the actual height; and wherein in a case where the face is not within the decided display range, the control unit is configured to perform control so as to notify the communication connection destination that the face is outside the display range.
An optical circuit switch collimator device , the device comprising: a fiber array comprising a plurality of optical fibers disposed in a hole array ; an optical lens array aligned and coupled to the fiber array ; a spacer disposed between the fiber array and the optical lens array and configured to provide substantially uniform spacing between lenses in the optical lens array and corresponding fibers in the fiber array ; a plurality of pads positioned along edges of a surface of the spacer facing the optical lens array and defining a first separation gap between the spacer and the optical lens array ; a first epoxy coupling the spacer to the optical lens array , wherein the first epoxy has a first refractive index value about halfway between a value of respective refractive indices of the spacer and a glass material of the lens array ; and a second epoxy coupling the spacer to the fiber array , wherein the second epoxy has a second refractive index value about halfway between a value of a refractive index of the spacer and a value of a refractive index of optical cores of the plurality of optical fibers of the fiber array . a fiber array comprising a plurality of optical fibers disposed in a hole array ; an optical lens array aligned and coupled to the fiber array ; a spacer disposed between the fiber array and the optical lens array and configured to provide substantially uniform spacing between lenses in the optical lens array and corresponding fibers in the fiber array ; a plurality of pads positioned along edges of a surface of the spacer facing the optical lens array and defining a first separation gap between the spacer and the optical lens array ; a first epoxy coupling the spacer to the optical lens array , wherein the first epoxy has a first refractive index value about halfway between a value of respective refractive indices of the spacer and a glass material of the lens array ; and a second epoxy coupling the spacer to the fiber array , wherein the second epoxy has a second refractive index value about halfway between a value of a refractive index of the spacer and a value of a refractive index of optical cores of the plurality of optical fibers of the fiber array .
A method for controlling a delay ( τ ) between a first light pulse, called pump pulse, and a second light pulse, called probe pulse, with the pump pulse, but not the probe pulse, having an intensity and/or a wavelength adapted to ionise a target (JG2), the pump pulse and the probe pulse being generated from a single light beam by means of an interferometer (IM), the method comprising the following steps: a) directing the pump pulse and the probe pulse onto the target, while providing at least partial temporal and spatial overlapping of these pulses; b) acquiring a photoelectron spectrum (SPE) derived from the target illuminated by the two pulses; c) estimating the delay from the shape of the acquired spectrum; with steps a), b) and c) being repeated for a succession of pump and probe pulses, thereby generating a temporal sequence of delay estimates; and d) actively stabilising the interferometer from said temporal sequence of delay estimates. a) directing the pump pulse and the probe pulse onto the target, while providing at least partial temporal and spatial overlapping of these pulses; b) acquiring a photoelectron spectrum (SPE) derived from the target illuminated by the two pulses; c) estimating the delay from the shape of the acquired spectrum; with steps a), b) and c) being repeated for a succession of pump and probe pulses, thereby generating a temporal sequence of delay estimates; and d) actively stabilising the interferometer from said temporal sequence of delay estimates.
A method for producing epitaxial silicon carbide wafers which epitaxially grows silicon carbide by a thermal CVD process on a silicon carbide single crystal substrate in an epitaxial growth furnace, the method for producing epitaxial silicon carbide wafers comprising introducing into the epitaxial growth furnace a carrier gas comprised of hydrogen gas and a silicon-based material gas in an amount of 10 -4 vol% to 10 -2 vol% with respect to said carrier gas, etching the surface of the silicon carbide single crystal substrate to over 0.05 μm to 0.5 μm, then changing an epitaxial growth condition in said epitaxial growth furnace while feeding said carrier gas and said silicon-based material gas, and further supplying a carbon-based material gas while feeding said carrier gas and said silicon-based material gas after said epitaxial growth condition stabilizes to thereby start epitaxial growth of silicon carbide, wherein time "t" required for changing a condition from the etching treatment to the start of epitaxial growth and stabilization is 1 to 2 minutes when changing the flow rate of the carrier gas or the flow rate of the silicon-based material gases; wherein when changing the epitaxial growth temperature, the time "t" is 5 to 10 minutes; wherein when changing the epitaxial growth pressure, the time "t" is 3 to 5 minutes, wherein stabilization means converging to a predetermined target value of the flow rate, the growth temperature, or the growth pressure so that the fluctuation in 1 minute is within ±3% of the target value. etching the surface of the silicon carbide single crystal substrate to over 0.05 μm to 0.5 μm, then changing an epitaxial growth condition in said epitaxial growth furnace while feeding said carrier gas and said silicon-based material gas, and further supplying a carbon-based material gas while feeding said carrier gas and said silicon-based material gas after said epitaxial growth condition stabilizes to thereby start epitaxial growth of silicon carbide, wherein time "t" required for changing a condition from the etching treatment to the start of epitaxial growth and stabilization is 1 to 2 minutes when changing the flow rate of the carrier gas or the flow rate of the silicon-based material gases; wherein when changing the epitaxial growth temperature, the time "t" is 5 to 10 minutes; wherein when changing the epitaxial growth pressure, the time "t" is 3 to 5 minutes, wherein stabilization means converging to a predetermined target value of the flow rate, the growth temperature, or the growth pressure so that the fluctuation in 1 minute is within ±3% of the target value.
A rinse-off cleansing composition, comprising: a) from 35% to 85%, by weight of the composition, of surfactant, wherein the surfactant comprises a first surfactant and a cosurfactant; b) from 4% to 30%, by weight of the composition, of a perfume, wherein the weight percent of perfume is from 8% to 90%, by weight of the surfactant; c) from 6% to 20%, by weight of the composition, of a hydric solvent, wherein the weight percent of the hydric solvent is from 7% to 60%, by weight of the surfactant; wherein the hydric solvent comprises dipropylene glycol, diethylene glycol, dibutylene glycol, hexylene glycol, butylene glycol, pentanediol, heptanediol, propylene glycol, a polyethylene glycol having an average molecular weight below 500, or a combination thereof; and d) from 2% to 57%, by weight of the composition, of water; wherein the rinse-off cleansing composition is not a ringing gel; and wherein the composition is a microemulsion or contains a microemulsion phase. a) from 35% to 85%, by weight of the composition, of surfactant, wherein the surfactant comprises a first surfactant and a cosurfactant; b) from 4% to 30%, by weight of the composition, of a perfume, wherein the weight percent of perfume is from 8% to 90%, by weight of the surfactant; c) from 6% to 20%, by weight of the composition, of a hydric solvent, wherein the weight percent of the hydric solvent is from 7% to 60%, by weight of the surfactant; wherein the hydric solvent comprises dipropylene glycol, diethylene glycol, dibutylene glycol, hexylene glycol, butylene glycol, pentanediol, heptanediol, propylene glycol, a polyethylene glycol having an average molecular weight below 500, or a combination thereof; and d) from 2% to 57%, by weight of the composition, of water;
A compression molded foam cushioning element that is a midsole or midsole component for an article of footwear comprising: an elastomeric material having a closed cell foam structure comprising a plurality of cells having an anisotropic cell shape; wherein the foam cushioning element comprises a first axis (z), a second axis (y) and a third axis (x); wherein the first axis (z) is perpendicular to the second axis (y) and the third axis (x); wherein the second axis (y) and the third axis (x) are each perpendicular to each other; wherein the second axis (y) and the third axis (x) define a plane (x-y) parallel to a major surface of the foam article; wherein the plurality of cells are aligned in an orientation along the second axis (y) within a range of a solid angle of plus or minus 20 degrees; and wherein a physical property determined along the first axis (z) is different from the physical property determined along the second axis (y), the third axis (x), or both the second (y) and third axis (x). an elastomeric material having a closed cell foam structure comprising a plurality of cells having an anisotropic cell shape; wherein the foam cushioning element comprises a first axis (z), a second axis (y) and a third axis (x); wherein the first axis (z) is perpendicular to the second axis (y) and the third axis (x); wherein the second axis (y) and the third axis (x) are each perpendicular to each other; wherein the second axis (y) and the third axis (x) define a plane (x-y) parallel to a major surface of the foam article; wherein the plurality of cells are aligned in an orientation along the second axis (y) within a range of a solid angle of plus or minus 20 degrees; and wherein a physical property determined along the first axis (z) is different from the physical property determined along the second axis (y), the third axis (x), or both the second (y) and third axis (x).
A method of operation of a node in a cellular communications network , comprising: determining whether a wireless device is to operate in a long range extension mode or a normal mode; and applying different values for at least one parameter selected from a group consisting of: one or more radio link monitoring parameters, one or more radio link failure detection parameters, one or more radio link failure recovery parameters, and one or more connection establishment failure detection parameters depending on whether the wireless device is to operate in the long range extension mode or the normal mode. determining whether a wireless device is to operate in a long range extension mode or a normal mode; and applying different values for at least one parameter selected from a group consisting of: one or more radio link monitoring parameters, one or more radio link failure detection parameters, one or more radio link failure recovery parameters, and one or more connection establishment failure detection parameters depending on whether the wireless device is to operate in the long range extension mode or the normal mode.
Sensor for a sensor device having a first and a second sensor, in which the sensor is the second sensor ; wherein the second sensor is arranged to receive the sensor parameterisation of the first sensor with which the first sensor is configured and to adopt this sensor parameterisation to replace the first sensor ; and wherein the second sensor is further arranged to provide the first sensor with the energy required to transmit the sensor parameterisation via the communication link via the communication link . the second sensor is arranged to receive the sensor parameterisation of the first sensor with which the first sensor is configured and to adopt this sensor parameterisation to replace the first sensor ; and wherein the second sensor is further arranged to provide the first sensor with the energy required to transmit the sensor parameterisation via the communication link via the communication link .
A wheel end assembly for a vehicle , comprising: - a central wheel support member such as a spindle or a steering knuckle, - an outboard wheel end bearing arranged concentrically around the central wheel support member, the outboard wheel end bearing comprising roller elements accommodated between an inner race-forming part and an outer race-forming part surrounding the inner race-forming part, wherein the inner race-forming part is configured to be supported by the central wheel support member, wherein the central wheel support member comprises a first rotational lock portion , wherein the inner race-forming part comprises a second rotational lock portion configured to engage with the first rotational lock portion to prevent the inner race-forming part from rotating relative to the central wheel support member, characterized in that the wheel end assembly comprises a wheel end hub configured to surround and to be supported by the outer race-forming part . - a central wheel support member such as a spindle or a steering knuckle, - an outboard wheel end bearing arranged concentrically around the central wheel support member, the outboard wheel end bearing comprising roller elements accommodated between an inner race-forming part and an outer race-forming part surrounding the inner race-forming part, wherein the inner race-forming part is configured to be supported by the central wheel support member, wherein the central wheel support member comprises a first rotational lock portion , wherein the inner race-forming part comprises a second rotational lock portion configured to engage with the first rotational lock portion to prevent the inner race-forming part from rotating relative to the central wheel support member, characterized in that the wheel end assembly comprises a wheel end hub configured to surround and to be supported by the outer race-forming part .
An image processing apparatus comprising: an acquisition unit , adapted to acquire a first radiographic image (50 CC , 52 CC ) which has been captured in a first state related to a first compression of a breast, and a second radiographic image (50 MLO , 52 MLO ) which has been captured in a second state related to a second compression of the same breast, the second state related to the second compression being different from the first state related to the first compression; and a derivation unit adapted to derive a percentage of mammary glands of a breast image in the first radiographic image, characterized in that in a case in which the breast image of the fist radiographic image does not include a fat tissue pixel, the percentage of mammary glands in the first radiographic image is derived on the basis of an amount of incident radiation derived from a value of a fat tissue pixel in the second radiographic image, with the fat tissue pixel of the second radiographic image being obtained by a portion of the breast which is estimated to be composed of only fat tissues. an acquisition unit , adapted to acquire a first radiographic image (50 CC , 52 CC ) which has been captured in a first state related to a first compression of a breast, and a second radiographic image (50 MLO , 52 MLO ) which has been captured in a second state related to a second compression of the same breast, the second state related to the second compression being different from the first state related to the first compression; and a derivation unit adapted to derive a percentage of mammary glands of a breast image in the first radiographic image, characterized in that in a case in which the breast image of the fist radiographic image does not include a fat tissue pixel, the percentage of mammary glands in the first radiographic image is derived on the basis of an amount of incident radiation derived from a value of a fat tissue pixel in the second radiographic image, with the fat tissue pixel of the second radiographic image being obtained by a portion of the breast which is estimated to be composed of only fat tissues.
Electromechanical brake device for a motor vehicle, comprising an adjusting device and a brake part which is connected thereto, can be adjusted along an axis (A) by the adjusting device and can be brought into braking engagement with a counter-brake part , wherein the actuating device has a first actuating drive and a second actuating drive serially coupled thereto, wherein the first actuating drive has a rotatably drivable first drive wheel , from which a first output element and a first drive element , which is axially adjustable relative thereto, can be driven in rotation relative to one another, and the second actuator has a second drive wheel which can be driven in rotation and is coaxial with the first drive wheel and from which a threaded spindle can be driven in rotation, which spindle has a spindle thread which engages in an internal thread of the first actuator , characterised in in that the threaded spindle and the second drive wheel have corresponding, interlocking positive-locking elements which are designed to generate a positive lock which is effective in the circumferential direction with respect to rotation about the axis (A), and which can be displaced axially relative to one another. wherein the actuating device has a first actuating drive and a second actuating drive serially coupled thereto, wherein the first actuating drive has a rotatably drivable first drive wheel , from which a first output element and a first drive element , which is axially adjustable relative thereto, can be driven in rotation relative to one another, and the second actuator has a second drive wheel which can be driven in rotation and is coaxial with the first drive wheel and from which a threaded spindle can be driven in rotation, which spindle has a spindle thread which engages in an internal thread of the first actuator , characterised in in that the threaded spindle and the second drive wheel have corresponding, interlocking positive-locking elements which are designed to generate a positive lock which is effective in the circumferential direction with respect to rotation about the axis (A), and which can be displaced axially relative to one another.
A method of determining amplitude of reed vibration for an air jet loom , wherein the air jet loom determines the amplitude of the reed vibration that is vibration of a reed of the air jet loom based on detected signals (V1, V2, V3, V4) detected by a sensor for determining the amplitude of the reed vibration, wherein the sensor for determining the amplitude of the reed vibration is a reflection optical sensor and wherein the amplitude of the reed vibration is determined based on amplitude of a signal waveform (S1, S2) contained in a detected signal (V2) detected during a period when no weft yarn (Y) is present in a weft passage among the detected signals (V1, V2, V3, V4) detected by the sensor for determining the amplitude of the reed vibration, characterized in that the amplitude of the reed vibration is determined within a weaving width in a direction of weft insertion by disposing the sensor for determining the amplitude of the reed vibration within the weaving width such that the sensor is insertable into a shed between warp yarns (T) and retractable from the shed between the warp yarns (T).
A radiographic imaging apparatus in which a radiation source , a plurality of gratings and a radiation detector are provided side by side in a radiation irradiation axis direction, the radiographic imaging apparatus comprising: a generator that generates a reconstructed image on a basis of a Moire fringe image obtained by performing imaging by irradiating a subject disposed at a position overlapping the radiation irradiation axis direction with radiation by the radiation source ; an acquirer that acquires relative position information that is relative positions in two or more dimensions of the subject with respect to the gratings ; and a controller that associates the reconstructed image with the relative position information. a generator that generates a reconstructed image on a basis of a Moire fringe image obtained by performing imaging by irradiating a subject disposed at a position overlapping the radiation irradiation axis direction with radiation by the radiation source ; an acquirer that acquires relative position information that is relative positions in two or more dimensions of the subject with respect to the gratings ; and a controller that associates the reconstructed image with the relative position information.