mhurhangee/ep-ind-claims huggingface dataset:
A flat-tipped end farrier shears comprising a first arm, a second arm and a connector pin, the first arm and the second arm being rotatably connected to each other through the connector pin, wherein the flat-tipped end farrier shears further comprises: the first arm having a first handle, a first shoulder, and a first jaw; the second arm having a second handle, a second shoulder, and a second jaw; the first handle and the first jaw being oppositely connected to each other through the first shoulder; the second handle and the second jaw being oppositely connected to each other through the second shoulder; the first shoulder and the second shoulder being rotatably mounted to each other through the connector pin; a first shear-cutting edge of the first jaw being positioned offset from a second shear-cutting edge of the second jaw characterized in that the flat-tipped end farrier shears further comprises: an upper prong-receiving indentation; the upper prong-receiving indentation being integrated into a free end of the first jaw; the second shear-cutting edge being positioned atop the upper prong-receiving indentation; a height of the first shear-cutting edge being larger than a height of the second shear-cutting edge; and the height of the second shear-cutting edge being equal to a depth of the upper prong-receiving indentation. the first arm having a first handle, a first shoulder, and a first jaw; the second arm having a second handle, a second shoulder, and a second jaw; the first handle and the first jaw being oppositely connected to each other through the first shoulder; the second handle and the second jaw being oppositely connected to each other through the second shoulder; the first shoulder and the second shoulder being rotatably mounted to each other through the connector pin; a first shear-cutting edge of the first jaw being positioned offset from a second shear-cutting edge of the second jaw characterized in that the flat-tipped end farrier shears further comprises: an upper prong-receiving indentation; the upper prong-receiving indentation being integrated into a free end of the first jaw; the second shear-cutting edge being positioned atop the upper prong-receiving indentation; a height of the first shear-cutting edge being larger than a height of the second shear-cutting edge; and the height of the second shear-cutting edge being equal to a depth of the upper prong-receiving indentation. an upper prong-receiving indentation; the upper prong-receiving indentation being integrated into a free end of the first jaw; the second shear-cutting edge being positioned atop the upper prong-receiving indentation; a height of the first shear-cutting edge being larger than a height of the second shear-cutting edge; and the height of the second shear-cutting edge being equal to a depth of the upper prong-receiving indentation.
A shelf-stable composition for use in dry mix applications comprising a water redispersible polymer powder composition containing B) a multi-stage acrylic copolymer RDP and A) from 0.1 to 7.5 wt.%, based on the total weight of A) and B), of a dry anionic associative thickener chosen from a hydrophobically modified alkali swellable acrylic emulsion copolymer (HASE), an alkali swellable acrylic emulsion copolymer, and mixtures thereof, the multi-stage acrylic copolymer RDP B) having a calcium methacrylate salt group containing alkali-soluble resin outer stage and one or more inner stage, the RDP further containing each of one or more nucleating agent having a boiling point of 150 °C to 500 °C and a water solubility of 3.5% or less, and one or more colloidal stabilizer, wherein when the multi-stage acrylic copolymer is dispersed in water the one or more inner stage comprises an acrylic (co)polymer having a glass transition temperature (Tg) of from -10 to 15°C calculated using the Fox equation, further wherein, the weight ratio of the alkali-soluble resin outer stage to the one or more inner stage(s) range from 1:19 to 2:3 and, still further wherein, the dry anionic associative thickener, the colloidal stabilizer, the nucleating agent and the multi-stage acrylic copolymer are contained in the same particle.
A stent comprising: at least two elongate wires (32, 48) interlooped to form a tubular stent having opposed first and second open ends (12, 14) with each open end having a circumference, wherein said at least two wires (32, 48) are formed into a repositioning and/or retrieval loop (28, 28') disposed at said first open end, wherein said repositioning and/or retrieval loop (28, 28') comprises a first section of a first wire of said at least two wires that at least partially circumscribes said circumference of said first end; and a second section of a second, different wire of said at least two wires, said second section having a circumferential portion that partially traverses said circumference of said first end; wherein the circumferential portion of said second section is juxtaposingly disposed to a portion of said first section. at least two elongate wires (32, 48) interlooped to form a tubular stent having opposed first and second open ends (12, 14) with each open end having a circumference, wherein said at least two wires (32, 48) are formed into a repositioning and/or retrieval loop (28, 28') disposed at said first open end, wherein said repositioning and/or retrieval loop (28, 28') comprises a first section of a first wire of said at least two wires that at least partially circumscribes said circumference of said first end; and a second section of a second, different wire of said at least two wires, said second section having a circumferential portion that partially traverses said circumference of said first end; wherein the circumferential portion of said second section is juxtaposingly disposed to a portion of said first section.
An imaging scanner-scale comprising: a weigh platter having a top surface that defines a horizontal plane, wherein the weigh platter is configured to be positioned such that the top surface is level with a counter at a point-of-sale; a scale positioned below the weigh platter to support the weigh platter and weigh an item placed on the weigh platter; a side imager positioned at a first side of the weigh platter and having a field of view directed across the weigh platter toward a second side of the weigh platter, wherein a portion of the FOV at least partially defines a scan volume, and wherein the side imager is positioned adjacent to the plane of the weigh platter and configured to capture an image of at least a first side of an item within the FOV when the item is passed through the scan volume; and an optical component affixed above the weigh platter and positioned at the first side of the weigh platter, adjacent to and above the plane of the weigh platter, wherein the optical component is constructed and arranged to direct the FOV of the side imager across the weigh platter, and wherein the FOV from the optical component to the scan volume is above the plane of the weigh platter. a weigh platter having a top surface that defines a horizontal plane, wherein the weigh platter is configured to be positioned such that the top surface is level with a counter at a point-of-sale; a scale positioned below the weigh platter to support the weigh platter and weigh an item placed on the weigh platter; a side imager positioned at a first side of the weigh platter and having a field of view directed across the weigh platter toward a second side of the weigh platter, wherein a portion of the FOV at least partially defines a scan volume, and wherein the side imager is positioned adjacent to the plane of the weigh platter and configured to capture an image of at least a first side of an item within the FOV when the item is passed through the scan volume; and an optical component affixed above the weigh platter and positioned at the first side of the weigh platter, adjacent to and above the plane of the weigh platter, wherein the optical component is constructed and arranged to direct the FOV of the side imager across the weigh platter, and wherein the FOV from the optical component to the scan volume is above the plane of the weigh platter.
A phosphor represented by general formula Me a Re b Si c Al d N e O f, wherein Me contains Sr as an essential element and may contain one or more elements selected from Na, Li, Mg, Ca, Ba, Sc, Y, and La; and Re contains Eu as an essential element and may contain one or more elements selected from Mn, Ce, Tb, Yb, and Sm, and wherein a, b, c, d, e, and f representing composition ratio satisfy the following formulae: a = 1 − x, b = x, c = 2 + 2 p × 1 − y, d = 2 + 2 p × y, e = 1 + 4 p × 1 − z, and f = 1 + 4 p × z, parameters p, x, y, and z fall within the following range: p = 1.625, 0.01 < x < 0.25, 0.200 < y < 0.250, and 0.070 < z < 0.110.
A valve for a fluid, comprising a valve body and a valve seat; comprising a fluid chamber for receiving the fluid; and comprising a holding element, wherein the valve seat encloses a fluid passage for passage of the fluid out of the fluid chamber, wherein the valve body and the holding element are in operative connection with the fluid received in the fluid chamber, wherein the holding element exerts a holding force on the valve body, the holding force acting on the valve seat in the closing direction, wherein an effective surface facing the fluid chamber is associated with the valve body, wherein in the event that the fluid received in the fluid chamber acts on the effective surface of the valve body with a force or a pressure above a limit value predefined for the valve body, the valve body moves away from the valve seat, wherein an effective surface facing the fluid chamber is associated with the holding element, characterized in that in the event that the fluid received in the fluid chamber acts on the effective surface of the holding element with a force or a pressure above a limit value predefined for the holding element, the holding force acting on the valve body decreases, and wherein the valve body and/or the holding element is/are configured and/or arranged such that the fluid received in the fluid chamber acts on the holding element more strongly than on the valve body. comprising a valve body and a valve seat; comprising a fluid chamber for receiving the fluid; and comprising a holding element, wherein the valve seat encloses a fluid passage for passage of the fluid out of the fluid chamber, wherein the valve body and the holding element are in operative connection with the fluid received in the fluid chamber, wherein the holding element exerts a holding force on the valve body, the holding force acting on the valve seat in the closing direction, wherein an effective surface facing the fluid chamber is associated with the valve body, wherein in the event that the fluid received in the fluid chamber acts on the effective surface of the valve body with a force or a pressure above a limit value predefined for the valve body, the valve body moves away from the valve seat, wherein an effective surface facing the fluid chamber is associated with the holding element, characterized in that in the event that the fluid received in the fluid chamber acts on the effective surface of the holding element with a force or a pressure above a limit value predefined for the holding element, the holding force acting on the valve body decreases, and wherein the valve body and/or the holding element is/are configured and/or arranged such that the fluid received in the fluid chamber acts on the holding element more strongly than on the valve body.
A method for a. predicting the probability of having or developing a non-fusion, particularly before undergoing a spinal fusion surgery or after a spinal fusion surgery, or b. monitoring the course of treatment of a non-fusion in a patient, particularly after spinal fusion surgery, wherein said method comprises determining the frequency of a subpopulation of CD8+ T cells selected from CD8+CD57+, CD8+CD28- and CD8+CD57+CD28- in a sample obtained from a patient, wherein an elevated probability for having or developing non-fusion after spinal fusion surgery is assigned to the patient if the sample exhibits: i. an at least two-fold higher frequency of said subpopulation of CD8+ T cells when compared to a standard value determined for a large population with normal fusion after spinal fusion surgery, and/or ii. a fraction of CD8+CD57+CD28- cells of at least 22.7 % when compared to the total sum of all CD8+ cells in said sample, and/or iii. a summed fraction of CD8+CD57+ cells and CD8+CD28- cells of at least 85.6 % when compared to the total sum of all CD8+ cells in said sample, and/or iv. a fraction of CD8+CD57+ cells in said sample of at least 24.4% when compared to the total sum of all CD8+ cells in said sample, and/or v. a fraction of CD8+CD28- cells of at least 28.0% when compared to the total sum of all CD8+ cells in said sample. a. predicting the probability of having or developing a non-fusion, particularly before undergoing a spinal fusion surgery or after a spinal fusion surgery, or b. monitoring the course of treatment of a non-fusion in a patient, particularly after spinal fusion surgery, i. an at least two-fold higher frequency of said subpopulation of CD8+ T cells when compared to a standard value determined for a large population with normal fusion after spinal fusion surgery, and/or ii. a fraction of CD8+CD57+CD28- cells of at least 22.7 % when compared to the total sum of all CD8+ cells in said sample, and/or iii. a summed fraction of CD8+CD57+ cells and CD8+CD28- cells of at least 85.6 % when compared to the total sum of all CD8+ cells in said sample, and/or iv. a fraction of CD8+CD57+ cells in said sample of at least 24.4% when compared to the total sum of all CD8+ cells in said sample, and/or v. a fraction of CD8+CD28- cells of at least 28.0% when compared to the total sum of all CD8+ cells in said sample.
A current sensor comprising: a magnetic core with a gap in part of a circumference and formed in an annular shape; and a magneto-electric conversion element arranged in the gap, the magneto-electric conversion element detecting magnetic fluxes changing with a measurement target current passing through a hollow part of the magnetic core; wherein the magnetic core is formed by laminating a plurality of materials in a direction except a circumferential direction, and characterised in that it is formed so that magnetic flux densities of two points in a sensing part existence area defined in advance as an area where a sensing part of the magneto-electric conversion element can exist approximate to each other, the two points being away from each other with a distance in a laminating direction being a length of the sensing part in the laminating direction. a magnetic core with a gap in part of a circumference and formed in an annular shape; and a magneto-electric conversion element arranged in the gap, the magneto-electric conversion element detecting magnetic fluxes changing with a measurement target current passing through a hollow part of the magnetic core; wherein the magnetic core is formed by laminating a plurality of materials in a direction except a circumferential direction, and characterised in that it is formed so that magnetic flux densities of two points in a sensing part existence area defined in advance as an area where a sensing part of the magneto-electric conversion element can exist approximate to each other, the two points being away from each other with a distance in a laminating direction being a length of the sensing part in the laminating direction.
A method for storing configuration data, comprising: determining a number of remote storage units connected to a communication network and at least one surveillance camera; characterized in comprising the following steps: comparing the number of remote storage units to a threshold number of remote storage units; and storing configuration data related to a network video recorder in at least one of the remote storage units based on a result of a comparison of the number of remote storage units to the threshold number of remote storage units. comparing the number of remote storage units to a threshold number of remote storage units; and storing configuration data related to a network video recorder in at least one of the remote storage units based on a result of a comparison of the number of remote storage units to the threshold number of remote storage units.
Method for regenerating a filter element, which has been contaminated with solids, of an exhaust-gas system, wherein the exhaust-gas system has a main exhaust-gas path with a particle filter and has an EGR path which branches off from the main exhaust-gas path downstream of the particle filter, wherein the filter element is arranged in the EGR path and a spacing between a downstream end of a filter structure of the particle filter and the filter element amounts to at most 300 mm, and the method comprises the following step: - throughflow of the filter element with an exhaust-gas stream, which is recirculated through the EGR path, during a regeneration of the particle filter, wherein the regeneration of the filter element is effected by heating of the recirculated exhaust-gas stream that is caused as a result of the regeneration of the particle filter. - throughflow of the filter element with an exhaust-gas stream, which is recirculated through the EGR path, during a regeneration of the particle filter, wherein the regeneration of the filter element is effected by heating of the recirculated exhaust-gas stream that is caused as a result of the regeneration of the particle filter.
A communication apparatus, comprising: an acquisition unit configured to acquire registrar information comprising authentication information and identification information of a provision apparatus, which provides communication parameters, included in a signal from the provision apparatus; a determination unit configured to determine whether or not to make a response to a search signal if receiving the search signal; and a transmission unit (215, 204, 205) configured to transmit a response signal to the search signal from another communication apparatus, to said other communication apparatus, and wherein the transmission unit is configured to transmit the response signal to which the identification information of the provision apparatus acquired by the acquisition unit is added while the provision apparatus is running a communication parameter provision service, the transmission unit is configured to transmit the response signal without adding the identification information while the provision apparatus is not running the communication parameter provision service, and the transmission unit is configured to transmit the response signal if the determination unit determines to make a response to the search signal. an acquisition unit configured to acquire registrar information comprising authentication information and identification information of a provision apparatus, which provides communication parameters, included in a signal from the provision apparatus; a determination unit configured to determine whether or not to make a response to a search signal if receiving the search signal; and a transmission unit (215, 204, 205) configured to transmit a response signal to the search signal from another communication apparatus, to said other communication apparatus, and wherein the transmission unit is configured to transmit the response signal to which the identification information of the provision apparatus acquired by the acquisition unit is added while the provision apparatus is running a communication parameter provision service, the transmission unit is configured to transmit the response signal without adding the identification information while the provision apparatus is not running the communication parameter provision service, and the transmission unit is configured to transmit the response signal if the determination unit determines to make a response to the search signal.
A cache service module, determining a presence of a media file in a cache, the media file being a copy of a remote media file stored at a remote media source, the cache service module comprising: a file analysis module, comprising a computer readable storage medium (110, MEM) having computer readable instructions stored thereon for execution by a processor (110, CPU) for: obtaining, from the remote media source, a file size of the remote media file, and M ranges of bytes, M >= 2 (606, 610), at respective offsets relative to the beginning of the remote media file (502, 606, 608, 610), each range of bytes being shorter than the file size of the remote media file; concatenating bytes in the M ranges into a string of bytes (504, 612); generating a signature for the media file using the string of bytes (222, 506, 618); and determining the presence of the media file in the cache, including interrogating the cache with the signature (506, 508) for the media file. obtaining, from the remote media source, a file size of the remote media file, and M ranges of bytes, M >= 2 (606, 610), at respective offsets relative to the beginning of the remote media file (502, 606, 608, 610), each range of bytes being shorter than the file size of the remote media file; concatenating bytes in the M ranges into a string of bytes (504, 612); generating a signature for the media file using the string of bytes (222, 506, 618); and determining the presence of the media file in the cache, including interrogating the cache with the signature (506, 508) for the media file.
Pipe catcher for a hot-forming machine, comprising a base for securing the pipe catcher in the hot-forming machine, an upper contact face for catching a glass pipe when it falls into the hot-forming machine, and a damping element which is arranged below the contact face in such a manner that it enables a resilient retraction of the contact face in the direction of the falling direction of the glass pipe, wherein the damping element comprises a compressible chamber which can be filled with a gas.
A mobile partitioning wall with several wall elements, which are displaceably suspended at running rails, with mounting elements, which are disposed horizontally at the edge sides of the wall elements, wherein the wall elements include respectively at least one sealing strip at their upper and/or lower sides, which is retractable and deployable by means of a manual or motor-driven drive unit, wherein the wall elements are constructed in layers in a sandwich technique without any carrying frame and consist of a core and of at least single layered exterior shells (3, 4), which are disposed on both sides of the core, characterized in that the core and the layers of the exterior shells (3, 4) are fully bonded, and in that the wall elements include mounting elements, which are disposed vertically at the edge sides, wherein the mounting elements (9, 9'), which are disposed horizontally and vertically at the edge sides, are formed in the shape of H- or U-shaped profiles, whereby a uniform surrounding mounting area is created such that modular structural units may be disposed at arbitrary locations, wherein the at least one sealing strip, as a modular structural unit, is incorporated into the mounting element, which is disposed at the top side and/or lower side.
A composition consisting essentially of: (i) from about 2 to about 50% by weight 1,1-difluoroethene (vinylidene fluoride, R-1132a); (ii) from about 2 to about 95% by weight difluoromethane (R-32); and (iii) 2,3,3,3-tetrafluoropropene (R-1234yf). (i) from about 2 to about 50% by weight 1,1-difluoroethene (vinylidene fluoride, R-1132a); (ii) from about 2 to about 95% by weight difluoromethane (R-32); and (iii) 2,3,3,3-tetrafluoropropene (R-1234yf).