mhurhangee/ep-ind-claims huggingface dataset:
One or more computing devices configured to read and write data onto memory, the one or more computing devices comprising: read-throttling input/output scheduler configured to take write requests for data captured from a network, to provide this data to a system that persists the captured data, and to take read requests from external user systems; the read-throttling input/output scheduler is further configured to determine a capture rate by maintaining two sliding windows over previous write requests, with the second window being longer then the first; the read-throttling input/output scheduler further configured such that: when write requests activity exceeds a threshold as determined over the first window, the read-throttling input/output scheduler ceases to service read requests; and when read and write requests activity drops below the threshold as computed over the second window, the read-throttling input/output scheduler resumes servicing read requests a storage medium onto which the read and write request are forwarded. read-throttling input/output scheduler configured to take write requests for data captured from a network, to provide this data to a system that persists the captured data, and to take read requests from external user systems; the read-throttling input/output scheduler is further configured to determine a capture rate by maintaining two sliding windows over previous write requests, with the second window being longer then the first; the read-throttling input/output scheduler further configured such that: when write requests activity exceeds a threshold as determined over the first window, the read-throttling input/output scheduler ceases to service read requests; and when read and write requests activity drops below the threshold as computed over the second window, the read-throttling input/output scheduler resumes servicing read requests the read-throttling input/output scheduler is further configured to determine a capture rate by maintaining two sliding windows over previous write requests, with the second window being longer then the first; the read-throttling input/output scheduler further configured such that: when write requests activity exceeds a threshold as determined over the first window, the read-throttling input/output scheduler ceases to service read requests; and when read and write requests activity drops below the threshold as computed over the second window, the read-throttling input/output when write requests activity exceeds a threshold as determined over the first window, the read-throttling input/output scheduler ceases to service read requests; and when read and write requests activity drops below the threshold as computed over the second window, the read-throttling input/output scheduler resumes servicing read requests a storage medium onto which the read and write request are forwarded.
A lozenge comprising a. micronized Benzocaine b. at least one dissolution enhancer wherein the dissolution enhancer is PEG and c. one or more excipients, wherein the micronized Benzocaine have a mass median particle size of 7 to 18 μm. a. micronized Benzocaine b. at least one dissolution enhancer wherein the dissolution enhancer is PEG and c. one or more excipients,
An aircraft comprising a winglet system and a wing, the winglet system comprising: an upper winglet and a lower winglet mounted to the wing; the lower winglet having a static position when the wing is subject to a ground static loading; and the lower winglet being configured such that upward deflection of the wing under an approximate 1-g flight loading causes the lower winglet to move from the static position to an in-flight position and resulting in a relative span increase of the wing, characterized in that the lower winglet is oriented at an anhedral angle of from 15 degrees to 30 degrees during upward deflection of the wing under the approximate 1-g flight loading; the upper winglet is oriented at a dihedral angle of at least 60 degrees during upward deflection of the wing under the approximate 1-g flight loading; and the lower winglet has a length extending from a lower winglet root to a lower winglet tip, of from 50 to 80 percent of a length of the upper winglet extending from an upper winglet root to an upper winglet tip. an upper winglet and a lower winglet mounted to the wing; the lower winglet having a static position when the wing is subject to a ground static loading; and the lower winglet being configured such that upward deflection of the wing under an approximate 1-g flight loading causes the lower winglet to move from the static position to an in-flight position and resulting in a relative span increase of the wing, characterized in that the lower winglet is oriented at an anhedral angle of from 15 degrees to 30 degrees during upward deflection of the wing under the approximate 1-g flight loading; the upper winglet is oriented at a dihedral angle of at least 60 degrees during upward deflection of the wing under the approximate 1-g flight loading; and the lower winglet has a length extending from a lower winglet root to a lower winglet tip, of from 50 to 80 percent of a length of the upper winglet extending from an upper winglet root to an upper winglet tip.
A semiconductor device (1, 3), comprising: an SiC wafer (10, 30) composed of silicon carbide; and an ohmic contact electrode (16, 39, 41, 42, 44) arranged in contact with said SiC wafer (10, 30) and containing titanium, aluminum, silicon, and carbon as well as a remaining inevitable impurity, said SiC wafer (10, 30) including an n-type region (14, 35, 37) having an n conductivity type, and a p-type region (18, 36, 43) having a p conductivity type, each of said n-type region (14, 35, 37) and said p-type region (18, 36, 43) being in contact with said ohmic contact electrode (16, 39, 41, 42, 44). said ohmic contact electrode (16, 39, 41, 42, 44) containing aluminum and titanium in a region including an interface with said SiC wafer (10, 30), a content of silicon in said ohmic contact electrode (16, 39, 41, 42, 44) monotonously increases from an opposite surface with respect to said SiC wafer (10, 30) toward a boundary with said SiC wafer (10, 30), characterized in that a content of aluminum in said ohmic contact electrode (16, 39, 41, 42, 44) monotonously decreases from an opposite surface with respect to said SiC wafer (10, 30) toward a boundary with said SiC wafer (10, 30), and the monotonous increase or decrease refers to said ohmic contact electrode not having a region where a content of an element is constant. an SiC wafer (10, 30) composed of silicon carbide; and an ohmic contact electrode (16, 39, 41, 42, 44) arranged in contact with said SiC wafer (10, 30) and containing titanium, aluminum, silicon, and carbon as well as a remaining inevitable impurity, said SiC wafer (10, 30) including an n-type region (14, 35, 37) having an n conductivity type, and a p-type region (18, 36, 43) having a p conductivity type, each of said n-type region (14, 35, 37) and said p-type region (18, 36, 43) being in contact with said ohmic contact electrode (16, 39, 41, 42, 44). said ohmic contact electrode (16, 39, 41, 42, 44) containing aluminum and titanium in a region including an interface with said SiC wafer (10, 30), a content of silicon in said ohmic contact electrode (16, 39, 41, 42, 44) monotonously increases from an opposite surface with respect to said SiC wafer (10, 30) toward a boundary with said SiC wafer (10, 30), characterized in that a content of aluminum in said ohmic contact electrode (16, 39, 41, 42, 44) monotonously decreases from an opposite surface with respect to said SiC wafer (10, 30) toward a boundary with said SiC wafer (10, 30), and the monotonous increase or decrease refers to said ohmic contact electrode not having a region where a content of an element is constant.
A reflector comprising a molded product obtained by molding a polyphenylene sulfide resin composition, and a metal layer formed thereon, the polyphenylene sulfide resin comprising: 1 to 30 parts by weight of a mica (b) having an aspect ratio of not less than 80, relative to 100 parts by weight of a polyphenylene sulfide resin (a), wherein the polyphenylene sulfide resin composition has a specific gravity of not greater than 1.50. 1 to 30 parts by weight of a mica (b) having an aspect ratio of not less than 80, relative to 100 parts by weight of a polyphenylene sulfide resin (a), wherein the polyphenylene sulfide resin composition has a specific gravity of not greater than 1.50.
A liquid container system for a spray gun comprising: a mounting ring, a liner, open at the top, for holding a liquid and having a lip around the periphery of its open top; a lid for closing the open top of the liner; and a filter to filter the liquid withdrawn from the container, and characterized by: i) the mounting ring including a ring recess, the ring recess being for supporting the lip of the liner; and ii) the lid for attaching to the mounting ring with a flange on the periphery of the lid forming a liquid-tight seal with the liner lip; wherein the liner includes an outwardly rounded bottom. a mounting ring, a liner, open at the top, for holding a liquid and having a lip around the periphery of its open top; a lid for closing the open top of the liner; and a filter to filter the liquid withdrawn from the container, and characterized by: i) the mounting ring including a ring recess, the ring recess being for supporting the lip of the liner; and ii) the lid for attaching to the mounting ring with a flange on the periphery of the lid forming a liquid-tight seal with the liner lip; i) the mounting ring including a ring recess, the ring recess being for supporting the lip of the liner; and ii) the lid for attaching to the mounting ring with a flange on the periphery of the lid forming a liquid-tight seal with the liner lip;
Apparatus for use as a hand-held image scanner, comprising: a housing (510A, 510B) defining a window; a light emitting component (524A, 524B) adapted and configured to emit light to illuminate the window; an image array; characterized in that that apparatus further comprises, a concave reflective segment coupled to the housing in a location such that the concave reflective segment redirects and focuses light passing through the window in an optical path to the image array. a housing (510A, 510B) defining a window; a light emitting component (524A, 524B) adapted and configured to emit light to illuminate the window; an image array; characterized in that that apparatus further comprises, a concave reflective segment coupled to the housing in a location such that the concave reflective segment redirects and focuses light passing through the window in an optical path to the image array.
A method of navigating an image series, the image series containing a first number of substantially aligned planar images, the method comprising: (a) grouping the images of the image series into a number of subseries (506, 604, 704), the number of subseries being less than the first number of images; (b) generating a representative image series by generating an image from each subseries (508, 608); (c) displaying the representative image series (510, 610); (d) determining whether an image from the representative image series has been selected (512, 612); (e) if an image from the representative image series has been selected, then displaying the subseries associated with the selected image (514, 616); and (f) determining whether to end the display of the subseries (516, 618); and if it has been determined to end the display of the subseries then performing (c) wherein said representative image series are obtained by generating an image from each subseries by one of: i) selecting an image from each subseries; ii) merging the consecutive images of the subseries into a single image; iii) selecting a number of images from the subseries, and merging the selected images into a single image; iv) selecting a portion of each image from the subseries, and merging the selected portions of images into a single image; and, v) selecting a number of images from the subseries; selecting a portion of each selected image; and, merging the selected portions of the selected images into a single image. (a) grouping the images of the image series into a number of subseries (506, 604, 704), the number of subseries being less than the first number of images; (b) generating a representative image series by generating an image from each subseries (508, 608); (c) displaying the representative image series (510, 610); (d) determining whether an image from the representative image series has been selected (512, 612); (e) if an image from the representative image series has been selected, then displaying the subseries associated with the selected image (514, 616); and (f) determining whether to end the display of the subseries (516, 618); and if it has been determined to end the display of the subseries then performing (c) wherein i) selecting an image from each subseries; ii) merging the consecutive images of the subseries into a single image; iii) selecting a number of images from the subseries, and merging the selected images into a single image; iv) selecting a portion of each image from the subseries, and merging the selected portions of images into a single image; and, v) selecting a number of images from the subseries; selecting a portion of each selected image; and, merging the selected portions of the selected images into a single image.
A fitting or lock having a housing which has a nut for a latch pin of a latch engaging into the nut, wherein the nut is held in a rotatable manner and is pre-tensioned by a holding-up spring to hold up the latch, wherein the holding-up spring is stayed on a projection, fixed in relation to the housing, and is preferably formed as an annular spring which encloses the nut and between the end sections (4, 5) of which, bent outwards substantially radially, a projection of the nut engages, characterised in that the fitting or the lock comprises a holding plate which can be inserted into a guide arranged in the housing, wherein the holding plate is provided with a recess which is open at the edge and is used to receive one end section of the holding-up spring, and wherein provided between the end section engaging into this recess and the fixed projection there is a clearance and the second end section rests against the fixed projection and stays the projection of the nut, and wherein the clearance mentioned is taken up by the holding plate.
A power storage system, comprising: a power storage unit including a storage battery, a charging section configured to charge the storage battery, and a detection section; and an abnormality detection unit characterized in that: the detection section being configured to detect at least one status of the storage battery and the charging section by means of various sensors (1,2,3); and the abnormality detection unit including an input section configured to acquire transmission information from the power storage unit via a transmission path, the transmission information including a plurality of detected status values, and an abnormality detection section configured to detect abnormality of the power storage unit by a multivariate analysis performed on the plurality of acquired status values. a power storage unit including a storage battery, a charging section configured to charge the storage battery, and a detection section; and a charging section configured to charge the storage battery, and a detection section; and an abnormality detection unit characterized in that: the detection section being configured to detect at least one status of the storage battery and the charging section by means of various sensors (1,2,3); and the abnormality detection unit including an input section configured to acquire transmission information from the power storage unit via a transmission path, the transmission information including a plurality of detected status values, and an abnormality detection section configured to detect abnormality of the power storage unit by a multivariate analysis performed on the plurality of acquired status values. the detection section being configured to detect at least one status of the storage battery and the charging section by means of various sensors (1,2,3); and the abnormality detection unit including an input section configured to acquire transmission information from the power storage unit via a transmission path, the transmission information including a plurality of detected status values, and an abnormality detection section configured to detect abnormality of the power storage unit by a multivariate analysis performed on the plurality of acquired status values. an input section configured to acquire transmission information from the power storage unit via a transmission path, the transmission information including a plurality of detected status values, and an abnormality detection section configured to detect abnormality of the power storage unit by a multivariate analysis performed on the plurality of acquired status values.
A depth detection apparatus, comprising: an emitting assembly for emitting a speckle light signal to a detection object, wherein the emitting assembly is configured to cause the speckle light signal to generate positive distortion; an imaging lens for imaging, to a photoelectric sensor, a depth light signal returned after the speckle light signal strikes the detection object, wherein the imaging lens is configured to cause the imaging of the depth light signal to generate negative distortion; and the photoelectric sensor for converting the depth light signal into an electrical signal, characterized in that a difference between an absolute value of a distortion amount of the negative distortion and an absolute value of a distortion amount of the positive distortion does not exceed 0.05, and the negative distortion and the positive distortion each are distortion having a distortion amount whose absolute value is greater than or equal to 0.03; wherein the distortion amount is calculated by the formula: Dis = H real − H ideal H ideal ∗ 100 % wherein Dis denotes a distortion amount, Hreal denotes a real image height, Hideal denotes an ideal image height; wherein a distortion curve of the negative distortion satisfies a formula: y = A 1 ∗ x + A 2 ∗ x 2 + A 3 ∗ x 3 + A 4 ∗ x 4 + A 5 ∗ x 5 wherein y denotes a distortion amount, x denotes a normalized value of a field of view angle, and A1 to A5 are parameter coefficients, wherein 0.123 ≤ A1 ≤ 0.147, - 0.702 ≤ A2 ≤ - 0.686, 1.708 ≤ A3 ≤ 1.718, - 1.967 ≤ A4 ≤ - 1.961, and 0.679 ≤ A5 ≤ 0.683, 0 ≤ x ≤ 1. an emitting assembly for emitting a speckle light signal to a detection object, wherein the emitting assembly is configured to cause the speckle light signal to generate positive distortion; an imaging lens for imaging, to a photoelectric sensor, a depth light signal returned after the speckle light signal strikes the detection object, wherein the imaging lens is configured to cause the imaging of the depth light signal to generate negative distortion; and the photoelectric sensor for converting the depth light signal into an electrical signal, characterized in that a difference between an absolute value of a distortion amount of the negative distortion and an absolute value of a distortion amount of the positive distortion does not exceed 0.05, and the negative distortion and the positive distortion each are distortion having a distortion amount whose absolute value is greater than or equal to 0.03; wherein the distortion amount is calculated by the formula: Dis = H real − H ideal H ideal ∗ 100 % wherein Dis denotes a distortion amount, Hreal denotes a real image height, Hideal denotes an ideal image height; wherein a distortion curve of the negative distortion satisfies a formula: y = A 1 ∗ x + A 2 ∗ x 2 + A 3 ∗ x 3 + A 4 ∗ x 4 + A 5 ∗ x 5 wherein y denotes a distortion amount, x denotes a normalized value of a field of view angle, and A1 to A5 are parameter coefficients, wherein 0.123 ≤ A1 ≤ 0.147, - 0.702 ≤ A2 ≤ - 0.686, 1.708 ≤ A3 ≤ 1.718, - 1.967 ≤ A4 ≤ - 1.961, and 0.679 ≤ A5 ≤ 0.683, 0 ≤ x ≤ 1.
Composite material comprising a first cover sheet, a second cover sheet, and a core layer arranged between the first cover sheet and the second cover sheet, said core layer comprising: a first adhesive layer in contact with the first cover sheet, a second adhesive layer in contact with the second cover sheet, and a flocking material in the form of individual fibres which extend from the first adhesive layer to the second adhesive layer, characterized in that the first cover sheet has a larger extension than the core layer and comprises at least a first edge region which is free from the core layer, wherein the first edge region extends from an outer edge of the first cover sheet to the core layer, wherein the extension of the first edge region is at least 20 mm beyond an outer edge of the core layer, and wherein the second cover sheet extends no more than 5 mm beyond the outer edge of the core layer. a first cover sheet, a second cover sheet, and a core layer arranged between the first cover sheet and the second cover sheet, said core layer comprising: a first adhesive layer in contact with the first cover sheet, a second adhesive layer in contact with the second cover sheet, and a flocking material in the form of individual fibres which extend from the first adhesive layer to the second adhesive layer, characterized in that the first cover sheet has a larger extension than the core layer and comprises at least a first edge region which is free from the core layer, wherein the first edge region extends from an outer edge of the first cover sheet to the core layer, wherein the extension of the first edge region is at least 20 mm beyond an outer edge of the core layer, and wherein the second cover sheet extends no more than 5 mm beyond the outer edge of the core layer. a first adhesive layer in contact with the first cover sheet, a second adhesive layer in contact with the second cover sheet, and a flocking material in the form of individual fibres which extend from the first adhesive layer to the second adhesive layer, characterized in that the first cover sheet has a larger extension than the core layer and comprises at least a first edge region which is free from the core layer, wherein the first edge region extends from an outer edge of the first cover sheet to the core layer, wherein the extension of the first edge region is at least 20 mm beyond an outer edge of the core layer, and wherein the second cover sheet extends no more than 5 mm beyond the outer edge of the core layer.
An enhanced stent apparatus comprising: a support element, wherein the support element having metal struts that is constructed to be positioned in a body lumen, characterized in that the stent apparatus further comprises: a knitted porous structure located over an exterior surface of said support element, wherein the knitted porous structure is comprised of a single fiber having a diameter of at least 40 nanometers to under 30 microns in diameter, extends over a length of the support element, and has apertures sized from 20 microns to less than 200 microns in diameter wherein the porous structure has a coverage area of less than 30%. a support element, wherein the support element having metal struts that is constructed to be positioned in a body lumen, characterized in that the stent apparatus further comprises: a knitted porous structure located over an exterior surface of said support element, wherein the knitted porous structure is comprised of a single fiber having a diameter of at least 40 nanometers to under 30 microns in diameter, extends over a length of the support element, and has apertures sized from 20 microns to less than 200 microns in diameter wherein the porous structure has a coverage area of less than 30%.