mhurhangee/ep-ind-claims huggingface dataset:
An illumination apparatus, comprising: a first illumination source, having a pulsed illumination output structure; and a capture sensor, having an image capture structure synchronized with and responsive to a first illumination source output signal generated by the pulsed illumination output signal structure; the capture sensor configured to process a set of images captured by the capture sensor; and the capture sensor comprising an analyzer configured to detect an image of the set of images as one that corresponds to a reflection of the first illumination source output signal by using a pulse detection algorithm to determine whether the capture sensor has captured a signal corresponding to the detected image of the set of images having a power that exceeds a predetermined threshold power level based on pulse width, pulse rate and duty cycle of the first illumination source output signal. a first illumination source, having a pulsed illumination output structure; and a capture sensor, having an image capture structure synchronized with and responsive to a first illumination source output signal generated by the pulsed illumination output signal structure; the capture sensor configured to process a set of images captured by the capture sensor; and the capture sensor comprising an analyzer configured to detect an image of the set of images as one that corresponds to a reflection of the first illumination source output signal by using a pulse detection algorithm to determine whether the capture sensor has captured a signal corresponding to the detected image of the set of images having a power that exceeds a predetermined threshold power level based on pulse width, pulse rate and duty cycle of the first illumination source output signal.
An ophthalmic composition comprising: a) n-methylbenzoquinoline methyl sulphate (MBQM) or its salts; b) polyvinyl alcohol; c) sodium hyaluronate; and d) glycerin; for the protection of the ocular tissues from the damaging effects of ultraviolet radiations. a) n-methylbenzoquinoline methyl sulphate (MBQM) or its salts; b) polyvinyl alcohol; c) sodium hyaluronate; and d) glycerin;
A combustor wall structure for a gas turbine engine, the wall structure comprising radially inner and outer walls (21, 22), wherein the inner wall includes at least one wall element (50, 60) having an outer and an inner wall, the inner wall having an inner, in use, hot surface, and an outer, in use, cooler surface; a plurality of pedestals being provided on the outer surface and extending between the outer surface and the outer wall to facilitate heat transfer to a coolant flow, the pedestals (40, 66) are arranged in a first heat removal density pattern (52, 70, 72, 64, 68) comprising rows of pedestals arranged in a staggered array; characterised in the pedestals (40, 66) furthermore being arranged in a second higher heat removal density pattern (54, 61, 65) for increased cooling; the denser pattern adjacent a hotter region of the wall element than the less dense pattern thereby reducing the thermal gradient throughout the wall element (50, 60), and wherein there are at least two regions of pedestals which comprises rows of pedestals in a staggered array, wherein adjacent rows are offset by different amounts.
A user equipment operable to communicate channel state information in a wireless network, the UE comprising: transceiver circuitry arranged to receive, at the UE, from an Enhanced node B (eNB), a plurality of orthogonal frequency division multiple access (OFDMA) signals; processing circuitry arranged to derive one or more principal eigen beams from the received OFDMA signals, the principal eigen beams having a rank greater than or equal to one, the processing circuitry arranged to derive quantized eigen beams from the principal eigen beams; the UE characterized by the processing circuitry further arranged to select, in response to the quantized eigen beams, a subset of available antenna ports on the eNB for receiving from the eNB and transmitting to the eNB; and the transceiver circuitry arranged to communicate to the eNB, via a Channel State Information Reference Signal (CSI-RS), a bit pattern of the quantized eigen beams and at least one of a wideband channel quality indicator or a subband CQI conditioned on the quantized eigen beams. transceiver circuitry arranged to receive, at the UE, from an Enhanced node B (eNB), a plurality of orthogonal frequency division multiple access (OFDMA) signals; processing circuitry arranged to derive one or more principal eigen beams from the received OFDMA signals, the principal eigen beams having a rank greater than or equal to one, the processing circuitry arranged to derive quantized eigen beams from the principal eigen beams; the UE characterized by the processing circuitry further arranged to select, in response to the quantized eigen beams, a subset of available antenna ports on the eNB for receiving from the eNB and transmitting to the eNB; and the transceiver circuitry arranged to communicate to the eNB, via a Channel State Information Reference Signal (CSI-RS), a bit pattern of the quantized eigen beams and at least one of a wideband channel quality indicator or a subband CQI conditioned on the quantized eigen beams.
An autonomous cleaner comprising: a main body; a motor selectively providing a driving force to move the main body; a camera (601, 602, 603) configured to capture a plurality of images of a space around the main body; and a controller configured to select one of a plurality of traveling modes, and to manage the motor and the camera (601, 602, 603) based on the selected the traveling mode, characterized in that, the controller is configured to change a setting of the camera (601, 602, 603) related to illumination in the images based on the selected traveling mode while the camera (601, 602, 603) is capturing the images. a main body; a motor selectively providing a driving force to move the main body; a camera (601, 602, 603) configured to capture a plurality of images of a space around the main body; and a controller configured to select one of a plurality of traveling modes, and to manage the motor and the camera (601, 602, 603) based on the selected the traveling mode, characterized in that, the controller is configured to change a setting of the camera (601, 602, 603) related to illumination in the images based on the selected traveling mode while the camera (601, 602, 603) is capturing the images.
An absorbent article, comprising: an absorber disposed between a permeable upper-side sheet and an impermeable back-side sheet; a surface embossment that is provided at least on each side of an area corresponding to a body fluid discharge part, extends in a longitudinal direction of the absorbent article, and is formed by indenting the permeable upper-side sheet and the absorber together; and an absorber embossment that is disposed away from the surface embossment and closer to a center in a width direction than the surface embossment, extends along the surface embossment, and is formed by indenting the absorber such that a space is formed between the permeable upper-side sheet and the absorber, wherein the surface embossment includes a front-end surface embossment, a front surface embossment, a rear surface embossment, and a rear-end surface embossment that are arranged apart from each other in the longitudinal direction of the absorbent article; the absorber embossment includes a front absorber embossment, a rear absorber embossment, and a rear-end absorber embossment that are arranged apart from each other in the longitudinal direction of the absorbent article; one or both front ends and rear ends of the front surface embossment and the front absorber embossment are located in substantially the same positions in the longitudinal direction of the absorbent article; and one or both of front ends and rear ends of the rear surface embossment and the rear absorber embossment are located in substantially the same positions in the longitudinal direction of the absorbent article. an absorber disposed between a permeable upper-side sheet and an impermeable back-side sheet; a surface embossment that is provided at least on each side of an area corresponding to a body fluid discharge part, extends in a longitudinal direction of the absorbent article, and is formed by indenting the permeable upper-side sheet and the absorber together; and an absorber embossment that is disposed away from the surface embossment and closer to a center in a width direction than the surface embossment, extends along the surface embossment, and is formed by indenting the absorber such that a space is formed between the permeable upper-side sheet and the absorber, wherein the surface embossment includes a front-end surface embossment, a front surface embossment, a rear surface embossment, and a rear-end surface embossment that are arranged apart from each other in the longitudinal direction of the absorbent article; the absorber embossment includes a front absorber embossment, a rear absorber embossment, and a rear-end absorber embossment that are arranged apart from each other in the longitudinal direction of the absorbent article; one or both front ends and rear ends of the front surface embossment and the front absorber embossment are located in substantially the same positions in the longitudinal direction of the absorbent article; and one or both of front ends and rear ends of the rear surface embossment and the rear absorber embossment are located in substantially the same positions in the longitudinal direction of the absorbent article.
A method of determining a location of an object of interest (205, 305), the method comprising: identifying, from a database of images, a set of plural images that relate to a geographical region of interest, each of the plural images having associated therewith image capture information including at least an image capture location and an image capture orientation; applying an image recognition tool to each image in the set of plural images; determining (1120, 1130), based on the applying of the image recognition tool, which of the images include the object of interest and which of the images do not include the object of interest; for each of multiple candidate locations in the geographical region of interest, each candidate location corresponding to a sub-division of the geographical region of interest and having a prior likelihood that the object of interest is located at the candidate location, calculating a likelihood value representing a posterior probability of the object of interest existing at the candidate location using the image capture information for images in the set of plural images determined to include the object of interest and using the image capture information for images in the set of plural images determined not to include the object of interest; and determining the location of the object using the likelihood values for the multiple candidate locations. identifying, from a database of images, a set of plural images that relate to a geographical region of interest, each of the plural images having associated therewith image capture information including at least an image capture location and an image capture orientation; applying an image recognition tool to each image in the set of plural images; determining (1120, 1130), based on the applying of the image recognition tool, which of the images include the object of interest and which of the images do not include the object of interest; for each of multiple candidate locations in the geographical region of interest, each candidate location corresponding to a sub-division of the geographical region of interest and having a prior likelihood that the object of interest is located at the candidate location, calculating a likelihood value representing a posterior probability of the object of interest existing at the candidate location using the image capture information for images in the set of plural images determined to include the object of interest and using the image capture information for images in the set of plural images determined not to include the object of interest; and determining the location of the object using the likelihood values for the multiple candidate locations.
Winding device for a roller blind arrangement, in particular for a vehicle, having - a winding element having a longitudinal axis, which is constructed to be rotatably supported about the longitudinal axis on a vehicle and to wind and unwind a roller blind web; - a helical spring having an axially extending hollow space, wherein the winding element is connected to the vehicle by means of the helical spring and the helical spring enables a rotational movement of the winding element relative to the vehicle; and - a rod element which is arranged in the hollow space of the helical spring for guiding the helical spring, wherein the rod element is constructed in such a manner that the rod element radially tensions the helical spring, characterized in that the rod element has in a state distributed over a longitudinal rod axis a plurality of contact locations with the helical spring, and in that the rod element is constructed in a helical and/or spiral manner in respect of the longitudinal rod axis or wherein the rod element is constructed in an undulating manner in respect of the longitudinal rod axis. - a winding element having a longitudinal axis, which is constructed to be rotatably supported about the longitudinal axis on a vehicle and to wind and unwind a roller blind web; - a helical spring having an axially extending hollow space, wherein the winding element is connected to the vehicle by means of the helical spring and the helical spring enables a rotational movement of the winding element relative to the vehicle; and - a rod element which is arranged in the hollow space of the helical spring for guiding the helical spring, wherein the rod element is constructed in such a manner that the rod element radially tensions the helical spring,
A vehicle lighting device comprising: a mounting portion that has a recessed portion; a plurality of bayonets that are provided on an outside surface of the mounting portion; a substrate that is provided on a bottom surface (11a1) of the recessed portion; and a light emitting element that is provided on a side of the substrate opposite to a bottom surface (11a1) side of the recessed portion, characterised in that in a case where the vehicle lighting device is viewed from a light emitting side, at least one corner portion of the substrate overlaps with any one of the plurality of bayonets. a mounting portion that has a recessed portion; a plurality of bayonets that are provided on an outside surface of the mounting portion; a substrate that is provided on a bottom surface (11a1) of the recessed portion; and a light emitting element that is provided on a side of the substrate opposite to a bottom surface (11a1) side of the recessed portion, characterised in that in a case where the vehicle lighting device is viewed from a light emitting side, at least one corner portion of the substrate overlaps with any one of the plurality of bayonets.
A computer implemented data processing method for a database management system, wherein the method comprises: - storing data in an intermediate data format comprising capturing data in datasets including data index and data record fields, dividing and storing the datasets in individual flat files known as databanks, - converting the intermediate data format into a production data format of at least two data volumes including a data index volume and a data record volume, wherein the data banks are sorted for eliminating duplicated records and then converted into an index file and data record file, wherein the data index is converted from intermediate format to production format and is stored in binary form with fixed length pointers to the data records in the data record file, - merging the at least two data volumes into one data volume, and - retrieving a data record from the one data volume by performing a search on the data index file, obtaining a data record location from a given pointer, and obtaining a data record length by subtracting the value of the given pointer from the value of the pointer for a next sequential data record, or if the given pointer is the last pointer, subtracting the value of the given pointer from the data volume length. - storing data in an intermediate data format comprising capturing data in datasets including data index and data record fields, dividing and storing the datasets in individual flat files known as databanks, - converting the intermediate data format into a production data format of at least two data volumes including a data index volume and a data record volume, wherein the data banks are sorted for eliminating duplicated records and then converted into an index file and data record file, wherein the data index is converted from intermediate format to production format and is stored in binary form with fixed length pointers to the data records in the data record file, - merging the at least two data volumes into one data volume, and - retrieving a data record from the one data volume by performing a search on the data index file, obtaining a data record location from a given pointer, and obtaining a data record length by subtracting the value of the given pointer from the value of the pointer for a next sequential data record, or if the given pointer is the last pointer, subtracting the value of the given pointer from the data volume length.
Hot-fillable plastic container comprising a base and a body extending upward from the base, wherein the body comprises a deformable cylindrical sidewall portion defining a central vertical axis, wherein said deformable cylindrical sidewall portion comprises at least two vertical pillars arranged along the body circumference, wherein each vertical pillar has a concave arc-shaped transverse cross section of curvature radius (r) or has a central portion extended laterally at both extremities by a concave portion (111 ") having a concave arc-shaped transverse cross section of curvature radius (r), wherein each vertical pillar is joined to the next vertical pillar by a generally concave deformable sidewall panel having a concave arc-shaped transverse cross section of curvature radius, wherein the curvature radii (r) of the vertical pillars are smaller than the curvature radii of the generally concave deformable panels, and each transition between a vertical pillar and a generally concave deformable panel is smooth without any convex portion, characterized in that the curvature radius (r) of at least one vertical pillar, and preferably of each vertical pillar, is continuously increasing from the junction with the base towards an intermediary point, preferably located at mid-height of the vertical pillars, and is then continuously decreasing from this intermediary point towards the junction with a shoulder portion.
A fluid valve comprising a magnetic drive unit for a valve closing body, wherein the drive unit includes a core, a coil which partially surrounds the core, and an armature which can be moved by the energization of the coil and the resulting magnetic force, wherein a bearing portion (5. 2) is provided on the armature, which has a bearing area (5.3) by which the armature is pivotably mounted on a main body of the drive unit, wherein the armature has, on the side opposite to the bearing portion (5.2), a linking portion (5.4) for the valve closing body, characterized in that the linking portion (5.4) is formed on a projection of the armature, which is provided on a rear side of the armature, the rear side being opposite to a front side of the armature, which front side faces the pole faces (3.1, 3.1') of the core, and in that the linking portion (5.4) forms a support for a free end of the valve closing body, the free end of the valve closing body being held pivotably in the linking portion (5.4).
A method of providing compensation for kinematic accelerations influencing sensor measurements from sensors (252, 272, 292) of working equipment, comprising the step of identifying a plurality of members of the working equipment that are movable relative to each other, the method characterised by; defining a co-ordinate frame for each movable member, comprising the step of defining a co-ordinate frame for one or more sensors (252, 272, 292) associated with the movable members, in particular a Cartesian co-ordinate frame having three orthogonal axes; determining kinematic relationships for each co-ordinate frame, by determining a kinematic chain, comprising the step of successively determining kinematic relationships from a first movable member to a final movable member, such that the kinematic relationship for subsequent moveable members is dependent upon the kinematic relationship of a previous movable member; determining the relative position, in particular the angle, of each identified movable member; modifying the sensors or sensor measurements according to the kinematic relationships and relative position of each identified movable member, and modifying the sensors and sensor measurements according to the one or more sensors associated with the movable member, such that the accelerations induced by the movable members are compensated for. defining a co-ordinate frame for each movable member, comprising the step of defining a co-ordinate frame for one or more sensors (252, 272, 292) associated with the movable members, in particular a Cartesian co-ordinate frame having three orthogonal axes; determining kinematic relationships for each co-ordinate frame, by determining a kinematic chain, comprising the step of successively determining kinematic relationships from a first movable member to a final movable member, such that the kinematic relationship for subsequent moveable members is dependent upon the kinematic relationship of a previous movable member; determining the relative position, in particular the angle, of each identified movable member; modifying the sensors or sensor measurements according to the kinematic relationships and relative position of each identified movable member, and modifying the sensors and sensor measurements according to the one or more sensors associated with the movable member, such that the accelerations induced by the movable members are compensated for.
A method of manufacturing specimens of water insoluble materials for MALDI mass spectrometry, comprising the steps of: mixing a water insoluble material and a matrix, and then adding a volatile solvent to disperse the water insoluble material and the matrix until the volatile solvent is evaporated, thereby obtaining a sample of water insoluble material; and filling a groove of a pellet cup made of a water soluble material with the sample, turning the pellet cup filled with the sample upside down and pressing it, and then dissolving the pellet cup with water to obtain a specimen of water insoluble material. mixing a water insoluble material and a matrix, and then adding a volatile solvent to disperse the water insoluble material and the matrix until the volatile solvent is evaporated, thereby obtaining a sample of water insoluble material; and filling a groove of a pellet cup made of a water soluble material with the sample, turning the pellet cup filled with the sample upside down and pressing it, and then dissolving the pellet cup with water to obtain a specimen of water insoluble material.