mhurhangee/ep-ind-claims huggingface dataset:
A method for geo-location determination of entry by a mobile device to a predetermined geo-fenced region defined in at least two dimensions, the mobile device having a geo-location determination mechanism, the method comprising: identifying a first geo-location in at least two dimensions of the mobile device at a first time, the first geo-location determined using the geo-location determination mechanism and the first geo-location having a first related error of determination for each of the at least two dimensions of the first geo-location, wherein the first geo-location and the first related error are expressed in a predetermined measure; identifying a second geo-location in at least two dimensions of the mobile device at a second time, the second geo-location determined using the geo-location determination mechanism and the second geo-location having a second related error of determination for each of the at least two dimensions of the second geo-location, wherein the second geo-location and the second related error are expressed in the predetermined measure; determining a potential travel path travelled by the mobile device in at least two dimensions between the first geo-location and the second geo-location using the first related error and the second related error; determining whether the potential travel path intersects with the predetermined geo-fenced region; and determining, in response to the potential travel path intersecting the predetermined geo-fenced region by an amount that satisfies an intersection requirement, that the mobile device entered the predetermined geo-fenced region when traveling between the first geo-location and the second geo-location. identifying a first geo-location in at least two dimensions of the mobile device at a first time, the first geo-location determined using the geo-location determination mechanism and the first geo-location having a first related error of determination for each of the at least two dimensions of the first geo-location, wherein the first geo-location and the first related error are expressed in a predetermined measure; identifying a second geo-location in at least two dimensions of the mobile device at a second time, the second geo-location determined using the geo-location determination mechanism and the second geo-location having a second related error of determination for each of the at least two dimensions of the second geo-location, wherein the second geo-location and the second related error are expressed in the predetermined measure; determining a potential travel path travelled by the mobile device in at least two dimensions between the first geo-location and the second geo-location using the first related error and the second related error; determining whether the potential travel path intersects with the predetermined geo-fenced region; and determining, in response to the potential travel path intersecting the predetermined geo-fenced region by an amount that satisfies an intersection requirement, that the mobile device entered the predetermined geo-fenced region when traveling between the first geo-location and the second geo-location.
A turbine rotor blade, comprising: an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges (128, 130), the outer walls (124, 126) defining a radially extending chamber for receiving a coolant flow; a platform extending laterally outward relative to the airfoil body and terminating at at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of the coolant flow; at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform; and an impingement cooling structure in the radially extending chamber, wherein the source of the coolant to the cooling circuit provides the coolant after passing through the impingement cooling structure. an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges (128, 130), the outer walls (124, 126) defining a radially extending chamber for receiving a coolant flow; a platform extending laterally outward relative to the airfoil body and terminating at at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of the coolant flow; at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform; and an impingement cooling structure in the radially extending chamber, wherein the source of the coolant to the cooling circuit provides the coolant after passing through the impingement cooling structure.
A tensioning device configured for tensioning a radome fabric (7, 8), comprising a substantially circular, upper tensioning profile (3, 5) and a substantially circular, lower tensioning profile (4, 6), which is disposed in parallel with and axially displaced relative to the upper tensioning profile (3, 5), between which tensioning profiles the radome fabric (7, 8) is connectable and tensionable in a longitudinal direction between the upper tensioning profile (3, 5) and the lower tensioning profile (4, 6) in order to form a radome, wherein at least one of the tensioning profiles (3, 4, 5, 6) comprises a fabric contact portion, which exhibits a convex contact surface extending in said longitudinal direction for interacting with an edge portion of the radome fabric (7, 8).
A pest control composition containing a combination of an ester compound represented by the formula: and one or more cyclic compound(s) selected from the group consisting of γ-butyrolactone, N-methyl-2-pyrrolidone, N-ethyl-2-pyrrolidone, N-octyl-2-pyrrolidone, 1,3-dimethyl-2-imidazolidinone, propylene carbonate and sulfolane, and wherein the weight ratio of the ester compound to the cyclic compound(s) is within the range of from 1: 1 to 1: 100.
A herbicide granule composition comprising: a) from 5 grams active ingredient per kilogram (gai/kg) to 50 gai/kg, with respect to the composition, of an aryloxyphenoxypropionic acid herbicide; b) from 20 g/kg to 200 g/kg, with respect to the composition, of a non-petroleum derived built-in adjuvant which is at least one of soybean oil, rape seed oil, olive oil, castor oil, sunflower seed oil, coconut oil, corn oil, cotton seed oil, linseed oil, palm oil, peanut oil, safflower oil, sesame oil, and tung oil, and C 1-10 esters thereof; c) from 700 g/kg to 950 g/kg, with respect to the composition, a water soluble solid carrier; and d) from 1 g/kg to 50 g/kg, with respect to the composition, a surfactant; wherein the weight ratio of the herbicide to the non-petroleum derived built-in adjuvant is from 1:3 to 1:40. a) from 5 grams active ingredient per kilogram (gai/kg) to 50 gai/kg, with respect to the composition, of an aryloxyphenoxypropionic acid herbicide; b) from 20 g/kg to 200 g/kg, with respect to the composition, of a non-petroleum derived built-in adjuvant which is at least one of soybean oil, rape seed oil, olive oil, castor oil, sunflower seed oil, coconut oil, corn oil, cotton seed oil, linseed oil, palm oil, peanut oil, safflower oil, sesame oil, and tung oil, and C 1-10 esters thereof; c) from 700 g/kg to 950 g/kg, with respect to the composition, a water soluble solid carrier; and d) from 1 g/kg to 50 g/kg, with respect to the composition, a surfactant;
A method of controlling sample size in an assay device comprising: providing a liquid sample addition zone; providing a reagent zone downstream and in fluid communication with the sample addition zone containing a reagent material; providing a detection zone in fluid communication with the reagent zone; providing a wicking zone in fluid communication with the detection zone having a capacity to receive liquid sample flowing from the detection zone, wherein the sample addition zone, the reagent zone, the detection zone and the wicking zone define a fluid flow path; further providing a reagent addition zone along and in fluid communication with the fluid flow path downstream of the sample addition zone and upstream of the detection zone; adding sample to the sample addition zone, wherein the sample moves through the fluid flow path; and adding a reagent to the reagent addition zone, wherein the reagent interrupts flow of the sample through the fluid flow path thereby controlling sample size within the fluid flow path. providing a liquid sample addition zone; providing a reagent zone downstream and in fluid communication with the sample addition zone containing a reagent material; providing a detection zone in fluid communication with the reagent zone; providing a wicking zone in fluid communication with the detection zone having a capacity to receive liquid sample flowing from the detection zone, wherein the sample addition zone, the reagent zone, the detection zone and the wicking zone define a fluid flow path; further providing a reagent addition zone along and in fluid communication with the fluid flow path downstream of the sample addition zone and upstream of the detection zone; adding sample to the sample addition zone, wherein the sample moves through the fluid flow path; and adding a reagent to the reagent addition zone, wherein the reagent interrupts flow of the sample through the fluid flow path thereby controlling sample size within the fluid flow path.
A rotor of a rotating electric machine, comprising a rotor body in which recesses are provided in such a way as to define the poles of the rotor, each pole having a radial axis of the pole, the recesses having an elongated shape and each comprising two short sides, the recesses being disposed in one or a plurality of rows per pole, the recesses in one row being disposed in the shape of a U, the U possibly having a shape that is flared towards the air gap, one row comprising at least three recesses disposed consecutively, the short sides thereof defining, between two consecutive recesses on a given row, a material bridge, said material bridge generally extending along a longitudinal axis of the bridge which is oriented and which came closer to the radial axis of the corresponding pole of the rotor, when one is moving away from the rotational axis, characterized by the fact that the short sides of a recess are rectilinear, the longitudinal axes of two material bridges on two different rows of a given pole being parallel to each other, and being offset by a distance (d) in the range between 0 (excluded value) and 10 mm.
Electrical equipment comprising a cover, a circuit board, and a heatsink arranged to dissipate heat produced by the circuit board outwards from the electrical equipment, the heatsink comprising at least one free fin and two fastener fins, the free fin(s) being positioned between the fastener fins, the cover being generally cylindrical in shape, having an opening that extends over the entire length of the cover, the opening being defined between two lateral ends of the cover, the cover comprising two longitudinal splines that extend from an inside surface of the cover and each of which runs along an edge of a respective one of the lateral ends, the cover being arranged in such a manner that, when the electrical equipment is assembled, the cover surrounds the electrical equipment and the two lateral ends of the cover are snap-fastened to the two fastener fins, the longitudinal splines being resiliently engaged with the fastener fins, the free fin(s) extend(s) outwards from the electrical equipment without being covered by the cover.
A therapeutic source material suitable for treating localized carcinoma cells in a body of a human or an animal, said therapeutic source material being non-toxic and insoluble in water and further being substantially nonradioactive when not exposed to a neutron source, but becomes a source of highly ionizing but weakly penetrating radiation when exposed to a neutron field at or above a given activity by irradiating the therapeutic source with a neutron field at or above the given activity for a prescribed period of time, wherein: said therapeutic source material is intended to be surgically implanted into the body of a human or an animal and irradiated from outside the body of the human or animal to generate the highly ionizing but weakly penetrating radiation; the therapeutic source material comprises B 4 C or P-31, wherein the B 4 C is enriched in B-10 content; characterized in that the therapeutic source material comprises a radiation shield material formed at a side thereof that shields at least some of the highly ionizing radiation, but is substantially transparent to neutrons; and the therapeutic source material is in the shape of one or more very thin disks or plates in the order of a micron's thickness. said therapeutic source material is intended to be surgically implanted into the body of a human or an animal and irradiated from outside the body of the human or animal to generate the highly ionizing but weakly penetrating radiation; the therapeutic source material comprises B 4 C or P-31, wherein the B 4 C is enriched in B-10 content; characterized in that the therapeutic source material comprises a radiation shield material formed at a side thereof that shields at least some of the highly ionizing radiation, but is substantially transparent to neutrons; and the therapeutic source material is in the shape of one or more very thin disks or plates in the order of a micron's thickness.
A method performed by a base station (1501, 1502, 1503) in a wireless communication system, the method comprising: identifying whether to use non-orthogonal frequency-division multiplexing, NOFDM, in a downlink data transmission; and in case that the NOFDM is used in the downlink data transmission, transmitting, to a user equipment, UE, (1401, 1402, 1403) downlink control information, DCI, a reference signal, and downlink data, wherein the DCI and the reference signal are transmitted based on an orthogonal frequency-division multiplexing, OFDM, wherein, in case that first data of the downlink data is frequency division multiplexed with at least one of the DCI or the reference signal, the first data is transmitted based on the OFDM, and wherein, in case that second data of the downlink data is time division multiplexed with the DCI and the reference signal, the second data is transmitted based on the NOFDM. identifying whether to use non-orthogonal frequency-division multiplexing, NOFDM, in a downlink data transmission; and in case that the NOFDM is used in the downlink data transmission, transmitting, to a user equipment, UE, (1401, 1402, 1403) downlink control information, DCI, a reference signal, and downlink data, wherein the DCI and the reference signal are transmitted based on an orthogonal frequency-division multiplexing, OFDM, wherein, in case that first data of the downlink data is frequency division multiplexed with at least one of the DCI or the reference signal, the first data is transmitted based on the OFDM, and wherein, in case that second data of the downlink data is time division multiplexed with the DCI and the reference signal, the second data is transmitted based on the NOFDM.
A photoelectric sensor comprising: a light projecting unit for generating detection light; a light receiving unit for receiving the returned detection light reflected by an outside object; a lens for outputting the detection light generated from the light projecting unit to the outside and to which the returned detection light from the outside can be entered; an optical-path separation portion which is provided on an optical path between the lens and the light projecting unit and between the lens and the light receiving unit, and separates the optical path of the detection light which proceeds toward the lens from the light projecting unit, from the optical path of the returned detection light which proceeds toward the light receiving unit from the lens; and a light shielding member (31, 81, 82, 83, 91) for partially intercepting the returned detection light or the detection light; characterized in that the light shielding member (31, 81, 82, 83, 91) is provided in such a way as to overlap the optical axis of returned detection light at a position on the optical path between the lens and the optical-path separation portion, the light shielding member (31, 81, 82, 83, 91) is provided in such a way as to be spaced apart from the optical-path separation portion and has a reflection surface for reflecting the detection light proceeding toward the lens from the optical-path separation portion, and the reflection surface extends in an oblique direction with respect to the optical axis of the detection light proceeding toward the lens from the optical-path separation portion. a light projecting unit for generating detection light; a light receiving unit for receiving the returned detection light reflected by an outside object; a lens for outputting the detection light generated from the light projecting unit to the outside and to which the returned detection light from the outside can be entered; an optical-path separation portion which is provided on an optical path between the lens and the light projecting unit and between the lens and the light receiving unit, and separates the optical path of the detection light which proceeds toward the lens from the light projecting unit, from the optical path of the returned detection light which proceeds toward the light receiving unit from the lens; and a light shielding member (31, 81, 82, 83, 91) for partially intercepting the returned detection light or the detection light; characterized in that the light shielding member (31, 81, 82, 83, 91) is provided in such a way as to overlap the optical axis of returned detection light at a position on the optical path between the lens and the optical-path separation portion, the light shielding member (31, 81, 82, 83, 91) is provided in such a way as to be spaced apart from the optical-path separation portion and has a reflection surface for reflecting the detection light proceeding toward the lens from the optical-path separation portion, and the reflection surface extends in an oblique direction with respect to the optical axis of the detection light proceeding toward the lens from the optical-path separation portion.
A test method for determining the sulfate concentration in a liquid sample with formation of a precipitate of barium sulfate using a mixture of reagents as a solid or liquid formulation, wherein said mixture of reagents includes: I) at least one water-soluble barium salt; II) at least one Ba 2+ -complexing chelating agent; III) at least one cationic and/or non-ionic surfactant; and the test method includes the following steps: a) providing a test reagent vessel comprising i. said liquid formulation as a test solution; or ii. a ready-to-use test solution obtained by dissolving said solid formulation; b) adding said liquid sample containing sulfate ions; c) mixing the sample with the test solution; and d) measuring the sample for turbidity on a nephelometer, turbidimeter or photometer for the quantitative determination of the sulfate concentration. I) at least one water-soluble barium salt; II) at least one Ba 2+ -complexing chelating agent; III) at least one cationic and/or non-ionic surfactant; and the test method includes the following steps: a) providing a test reagent vessel comprising i. said liquid formulation as a test solution; or ii. a ready-to-use test solution obtained by dissolving said solid formulation; b) adding said liquid sample containing sulfate ions; c) mixing the sample with the test solution; and d) measuring the sample for turbidity on a nephelometer, turbidimeter or photometer for the quantitative determination of the sulfate concentration. a) providing a test reagent vessel comprising i. said liquid formulation as a test solution; or ii. a ready-to-use test solution obtained by dissolving said solid formulation; i. said liquid formulation as a test solution; or ii. a ready-to-use test solution obtained by dissolving said solid formulation; b) adding said liquid sample containing sulfate ions; c) mixing the sample with the test solution; and d) measuring the sample for turbidity on a nephelometer, turbidimeter or photometer for the quantitative determination of the sulfate concentration.
A method for computing a depth map having a higher resolution than a resolution of each sensor of a sensor set, the method comprising; vibrating a projector; projecting, while the projector is vibrating, a pattern of light comprising a plurality of dots into a scene, the pattern of light moving based on the vibrating; capturing a plurality of images at different times via the sensor set while the projector is vibrating, the sensor set comprising at least two synchronized sensors, wherein a frequency of the vibrating is relative to a frame rate of capturing the plurality of images; processing at least some of the images to obtain computed depth data; and outputting a depth map comprising the depth data. vibrating a projector; projecting, while the projector is vibrating, a pattern of light comprising a plurality of dots into a scene, the pattern of light moving based on the vibrating; capturing a plurality of images at different times via the sensor set while the projector is vibrating, the sensor set comprising at least two synchronized sensors, wherein a frequency of the vibrating is relative to a frame rate of capturing the plurality of images; processing at least some of the images to obtain computed depth data; and outputting a depth map comprising the depth data.
An ester-based composition which is a plasticizer, the composition comprising compounds of the following Formula 1, Formula 2 and Formula 3: in the above Formulae 1 to 3, R1 is C3-C5 non-branch type alkyl, and R2 is C6-C12 branch-type alkyl.
A container with a lid, wherein the lid is joined with the container by means of two hinge assemblies in such a way that the lid can be opened and closed around a pivoting axis (a) relative to the container, wherein each hinge assembly encompasses: - a hinge eye arranged on the lid, wherein the hinge eye exhibits a sectionally shell-shaped jacket section having molded to it a web extending in the direction of the swiveling axis (a), - a slit introduced into the upper edge region of the container and designed to accommodate the sectionally shell-shaped jacket section, wherein the slit extends in the direction of the swiveling axis (a), wherein the extension (b) of the sectionally shell-shaped jacket section measured in the direction of the swiveling axis (a) including the molded-on web is greater than the extension (c) of the slit measured in the direction of the swiveling axis (a), and the web only extends over a circumferential area of the sectionally shell-shaped jacket section, characterized in that the jacket section exhibits a section situated in the end region of the jacket section facing away from the web, wherein the web and section extend over the same circumferential area of the sectionally shell-shaped jacket section. - a hinge eye arranged on the lid, wherein the hinge eye exhibits a sectionally shell-shaped jacket section having molded to it a web extending in the direction of the swiveling axis (a), - a slit introduced into the upper edge region of the container and designed to accommodate the sectionally shell-shaped jacket section, wherein the slit extends in the direction of the swiveling axis (a),