mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining an ambient parameter set associated with a textual description, the ambient parameter set for controlling a lighting application device , the method comprising the steps of: searching a database by using the textual description, the database comprising a plurality of files wherein the files comprise content in the form of a picture, characterized in that each file comprises information related to the file content, for obtaining a subset of files whose information matches the textual description; analyzing the subset of files for obtaining the ambient parameter set related to the textual description, wherein the ambient parameter set comprise one or more ambient parameters selected from the group of a color value, an intensity value, a hue value and a saturation value; and wherein the analyzing comprises determining average parameter values for the one or more ambient parameters of the ambient parameter set across the subset of files, and controlling the lighting application device in accordance with the average parameter values of the obtained ambient parameter set. searching a database by using the textual description, the database comprising a plurality of files wherein the files comprise content in the form of a picture, characterized in that each file comprises information related to the file content, for obtaining a subset of files whose information matches the textual description; analyzing the subset of files for obtaining the ambient parameter set related to the textual description, wherein the ambient parameter set comprise one or more ambient parameters selected from the group of a color value, an intensity value, a hue value and a saturation value; and wherein the analyzing comprises determining average parameter values for the one or more ambient parameters of the ambient parameter set across the subset of files, and wherein the ambient parameter set comprise one or more ambient parameters selected from the group of a color value, an intensity value, a hue value and a saturation value; and wherein the analyzing comprises determining average parameter values for the one or more ambient parameters of the ambient parameter set across the subset of files, and controlling the lighting application device in accordance with the average parameter values of the obtained ambient parameter set.
A tire comprising a tire frame member that has bead portions in which bead cores are embedded in a resin material and side portions that comprise the resin material and are continuous with tire radial direction outer sides of the bead portions , wherein: assuming that T1 is a thickness of thick-walled portions of the tire frame member , which are adjacent to tire radial direction outer sides of the bead cores , and that T2 is a thickness of the side portions , T1 > T2, a thickness of the tire frame member decreases from T1 to T2 between the thick-walled portions and the side portions, a position at which the thickness of the tire frame member starts to decrease from T1 to T2 is on a tire radial direction outer side of tire radial direction outer ends of rim flanges of a rim when the bead portions are mounted thereon, the thickness of the tire frame member gradually decreases from T1 to T2, characterized in that an aspect ratio of the thick-walled portions in a tire width direction cross section is 1.3 to 2.0. assuming that T1 is a thickness of thick-walled portions of the tire frame member , which are adjacent to tire radial direction outer sides of the bead cores , and that T2 is a thickness of the side portions , T1 > T2, a thickness of the tire frame member decreases from T1 to T2 between the thick-walled portions and the side portions, a position at which the thickness of the tire frame member starts to decrease from T1 to T2 is on a tire radial direction outer side of tire radial direction outer ends of rim flanges of a rim when the bead portions are mounted thereon, the thickness of the tire frame member gradually decreases from T1 to T2, characterized in that an aspect ratio of the thick-walled portions in a tire width direction cross section is 1.3 to 2.0.
An inspection device for a cylindrical body , comprising: i) a transport device , ii) a rotation device , and iii) a measuring device ; wherein the transport device is configured to move a cylindrical body relative to the measuring device ; wherein the rotation device and the transport device are configured to rotate the cylindrical body while the cylindrical body is moving relative to the measuring device ; wherein the measuring device is configured to measure the cylindrical body while the cylindrical body is moving relative to the measuring device and while the cylindrical body is rotating; and wherein the transport device comprises a transport plane , wherein the rotation device comprises a rotation plane , wherein the transport device comprises a feed plane , wherein at least a part of the rotation plane is parallel to the transport plane and at least a part of the rotation plane is perpendicular to the feed plane , wherein the transport device is configured such that during rotation of the cylindrical body , the cylindrical body is not in contact with the transport plane of the transport device , wherein the feed plane is statically mounted on the transport plane , whereby the angle between the normal of the feed plane and the centerline of the measuring device is more than 45° to less than 135°, preferably 60° to 120°, more preferably 70 °to 110°, more preferably 80° to 100°, more preferably 85° to 95°, most preferably 90°. i) a transport device , ii) a rotation device , and iii) a measuring device ; wherein the transport device is configured to move a cylindrical body relative to the measuring device ; wherein the rotation device and the transport device are configured to rotate the cylindrical body while the cylindrical body is moving relative to the measuring device ; wherein the measuring device is configured to measure the cylindrical body while the cylindrical body is moving relative to the measuring device and while the cylindrical body is rotating; and wherein the transport device comprises a transport plane , wherein the rotation device comprises a rotation plane , wherein the transport device comprises a feed plane , wherein at least a part of the rotation plane is parallel to the transport plane and at least a part of the rotation plane is perpendicular to the feed plane , wherein the transport device is configured such that during rotation of the cylindrical body , the cylindrical body is not in contact with the transport plane of the transport device , wherein the feed plane is statically mounted on the transport plane , whereby the angle between the normal of the feed plane and the centerline of the measuring device is more than 45° to less than 135°, preferably 60° to 120°, more preferably 70 °to 110°, more preferably 80° to 100°, more preferably 85° to 95°, most preferably 90°.
A pre-alloyed water atomized steel powder comprising iron-based alloy containing Mo, wherein the powder contains Mo: 0.4 mass% to 1.8 mass%, Ni: 0.1 mass% or less, Cr: 0.1 mass% or less, Si: 0.1 mass% or less, Mn: 0.5 mass% or less, Cu: 0.5 mass% or less, C: 0.02 mass% or less, O: 0.3 mass% or less, N: 0.004 mass% or less, S: 0.03 mass% or less, and P: 0.1 mass% or less, and a balance consisting of Fe and inevitable impurities, the powder has a weight-based median size D50 of 40 μm or more, and among particles contained in the pre-alloyed iron powder, those particles having an equivalent circular diameter of 50 μm to 200 μm have a number average of solidity of 0.70 to 0.86, the solidity being defined as particle cross-sectional area/envelope-inside area, wherein D50 is measured by sieving, wherein the number average of solidity is obtained by measuring particle cross-sectional area and envelope-inside area for at least 10,000 particles having an equivalent circular diameter of 50 μm to 200 μm through image interpretation of the projected image of each of the particles using Malvern Morphologi G3, obtaining the solidity by calculating cross-sectional area/envelope-inside area for each of the particles, and calculating the number average thereof. Mo: 0.4 mass% to 1.8 mass%, Ni: 0.1 mass% or less, Cr: 0.1 mass% or less, Si: 0.1 mass% or less, Mn: 0.5 mass% or less, Cu: 0.5 mass% or less, C: 0.02 mass% or less, O: 0.3 mass% or less, N: 0.004 mass% or less, S: 0.03 mass% or less, and P: 0.1 mass% or less, and a balance consisting of Fe and inevitable impurities, the powder has a weight-based median size D50 of 40 μm or more, and among particles contained in the pre-alloyed iron powder, those particles having an equivalent circular diameter of 50 μm to 200 μm have a number average of solidity of 0.70 to 0.86, the solidity being defined as particle cross-sectional area/envelope-inside area, wherein D50 is measured by sieving, wherein the number average of solidity is obtained by measuring particle cross-sectional area and envelope-inside area for at least 10,000 particles having an equivalent circular diameter of 50 μm to 200 μm through image interpretation of the projected image of each of the particles using Malvern Morphologi G3, obtaining the solidity by calculating cross-sectional area/envelope-inside area for each of the particles, and calculating the number average thereof.
An intraluminal ultrasound device, comprising: a flexible elongate member configured to be positioned within a body lumen of a patient, the flexible elongate member including a distal portion and a longitudinal axis (LA); and a transducer array disposed at the distal portion of the flexible elongate member and circumferentially positioned around the longitudinal axis (LA) of the flexible elongate member, wherein the transducer array comprises a plurality of micromachined ultrasound transducers (MUTs) , wherein the transducer array is configured to obtain ultrasound imaging data of the body lumen in response to a first electrical signal, wherein the transducer array is configured to apply an ultrasound therapy within the body lumen in response to a second electrical signal; and characterized in that the plurality of MUTs comprises: a) a first plurality of piezoelectric micromachined ultrasound transducers (PMUTs) and a second plurality of PMUTs, wherein each of the first plurality of PMUTs includes a transducer membrane of a first thickness, and wherein each of the second plurality of PMUTs includes a transducer membrane of a second thickness different from the first thickness; or b) a first plurality of capacitive micromachined ultrasound transducers (CMUTs) and a second plurality of CMUTs, wherein each of the first plurality of CMUTs is configured to operate under a first bias voltage, and wherein each of the second plurality of CMUTs is configured to operate under a second bias voltage different from the first bias voltage. a flexible elongate member configured to be positioned within a body lumen of a patient, the flexible elongate member including a distal portion and a longitudinal axis (LA); and a transducer array disposed at the distal portion of the flexible elongate member and circumferentially positioned around the longitudinal axis (LA) of the flexible elongate member, wherein the transducer array comprises a plurality of micromachined ultrasound transducers (MUTs) , wherein the transducer array is configured to obtain ultrasound imaging data of the body lumen in response to a first electrical signal, wherein the transducer array is configured to apply an ultrasound therapy within the body lumen in response to a second electrical signal; and characterized in that the plurality of MUTs comprises: a) a first plurality of piezoelectric micromachined ultrasound transducers (PMUTs) and a second plurality of PMUTs, a) a first plurality of piezoelectric micromachined ultrasound transducers (PMUTs) and a second plurality of PMUTs, wherein each of the first plurality of PMUTs includes a transducer membrane of a first thickness, and wherein each of the second plurality of PMUTs includes a transducer membrane of a second thickness different from the first thickness; or b) a first plurality of capacitive micromachined ultrasound transducers (CMUTs) and a second plurality of CMUTs, wherein each of the first plurality of CMUTs is configured to operate under a first bias voltage, and wherein each of the second plurality of CMUTs is configured to operate under a second bias voltage different from the first bias voltage.
Motor vehicle lighting device comprising a light guide surrounded by an interface and having an elongate shape, and a light source which feeds light into the light guide , the light guide being designed to forward the fed-in light in its interior by total internal reflections occurring at its interface, a central light propagation direction (L) that follows the elongate shape being formed, and the interface having a convex light exit surface region and a rear-side region which has deflection elements which are arranged in the manner of a prismatic rib, comprise reflection surfaces and, on account of their shape and arrangement, are designed to deflect light from the light source that is incident thereon at such a steep angle relative to the light exit surface region that said light exits the light guide at said region, the light exit surface region forming, with its convex shape, a surface of a converging lens, characterized in that the rear-side region of the light guide is narrower than the light exit surface region in a cross section transverse to the central light propagation direction (L), in that the rear-side region has longitudinal grooves that are aligned along the central light propagation direction (L) in the reflection surfaces , and in that the focal length of the converging lens is matched to the distance of the prismatic rib from the light exit surface region and a first width of the deflection elements of the prismatic rib such that, for an observer, the first width of the deflection elements of the prismatic rib is optically enlarged to a second width of the light exit surface region , the first width and the second width each being oriented in a direction which is transverse to the central light propagation direction (L) and to a direction which points from the rear-side region toward the light exit surface region .
A method for producing an extrusion blow molded bottle or for improving the impact resistance of an extrusion blow molded bottle, the method comprising: extrusion blow molding an ultra-high IV polyethylene terephthalate resin having an IV of at least 0.9 dL/g, to obtain a extrusion blow molded bottle comprising an outlet at a first end, a base portion at a second end, a body portion located between the outlet and the base, and a chime connecting the body portion and the base, wherein IV is measured at 0.50% concentration of the resin in a 60/40 wt. %/wt. % phenol/1,1,2,2-tetrachloroethane solution by means of a glass capillary viscometer, wherein conditions for measuring IV are described in ASTM D 4603-03, wherein the extrusion blow molding is carried out in a mold with a texturized base surface such that a base surface of the extrusion blow molded bottle is textured, wherein the base portion includes embossing characters and symbols, characterized in that the texture of the mold is produced by sandblasting with angular grains having a grit size in the range from 16 to 220, and only the base of the mold, including the chime, is sandblasted. extrusion blow molding an ultra-high IV polyethylene terephthalate resin having an IV of at least 0.9 dL/g, to obtain a extrusion blow molded bottle comprising an outlet at a first end, a base portion at a second end, a body portion located between the outlet and the base, and a chime connecting the body portion and the base, wherein IV is measured at 0.50% concentration of the resin in a 60/40 wt. %/wt. % phenol/1,1,2,2-tetrachloroethane solution by means of a glass capillary viscometer, wherein conditions for measuring IV are described in ASTM D 4603-03, wherein the extrusion blow molding is carried out in a mold with a texturized base surface such that a base surface of the extrusion blow molded bottle is textured, wherein the base portion includes embossing characters and symbols, characterized in that the texture of the mold is produced by sandblasting with angular grains having a grit size in the range from 16 to 220, and only the base of the mold, including the chime, is sandblasted.
An oral care composition comprising: a) a bioactive glass; b) a water slightly soluble and/or soluble calcium source; c) a phosphate source; and d) a physiologically acceptable carrier; wherein the bioactive glass and the water slightly soluble and/or soluble calcium source are present in a weight ratio (a:b) from 1:3 to 20:1; and wherein the calcium source is calcium chloride, calcium nitrate, calcium gluconate, calcium glycerophosphate or mixtures thereof. a) a bioactive glass; b) a water slightly soluble and/or soluble calcium source; c) a phosphate source; and d) a physiologically acceptable carrier; wherein the bioactive glass and the water slightly soluble and/or soluble calcium source are present in a weight ratio (a:b) from 1:3 to 20:1; and wherein the calcium source is calcium chloride, calcium nitrate, calcium gluconate, calcium glycerophosphate or mixtures thereof.
A method for manufacturing water-absorbing resin, comprising: a modifying step that is a step of heating a mixture of a hydrophilic crosslinked polymer containing a carboxyl group and an aqueous solution containing a surface crosslinking agent containing two or more functional groups which react with the carboxyl group, so as to crosslink a surface of the hydrophilic crosslinked polymer; and a cooling step of cooling down the hydrophilic crosslinked polymer thus surface crosslinked, the modifying step and/or the cooling step being carried out by using stirring means including a rotation axis having a plurality of stirring boards having scraping blades, where a direction parallel to a longitudinal direction of the rotation axis is a y direction, a direction that is perpendicular to the y direction and is parallel to a circumferential direction of the rotation axis is an x direction, and a direction perpendicular to the x direction and the y direction is a z direction, a ratio of a maximum thickness of the stirring board to a minimum thickness of the stirring board being 5 or less in a cross section taken along a y-z plane of the stirring means, each of the scraping blades projecting from a plurality of the stirring boards, and the adjacent scraping blades among the scraping blades being provided alternately while sandwiching the rotation axis or being provided in parallel with each other, in the cross section taken along the y-z plane of the stirring means. a modifying step that is a step of heating a mixture of a hydrophilic crosslinked polymer containing a carboxyl group and an aqueous solution containing a surface crosslinking agent containing two or more functional groups which react with the carboxyl group, so as to crosslink a surface of the hydrophilic crosslinked polymer; and a cooling step of cooling down the hydrophilic crosslinked polymer thus surface crosslinked, the modifying step and/or the cooling step being carried out by using stirring means including a rotation axis having a plurality of stirring boards having scraping blades, where a direction parallel to a longitudinal direction of the rotation axis is a y direction, a direction that is perpendicular to the y direction and is parallel to a circumferential direction of the rotation axis is an x direction, and a direction perpendicular to the x direction and the y direction is a z direction, a ratio of a maximum thickness of the stirring board to a minimum thickness of the stirring board being 5 or less in a cross section taken along a y-z plane of the stirring means, each of the scraping blades projecting from a plurality of the stirring boards, and the adjacent scraping blades among the scraping blades being provided alternately while sandwiching the rotation axis or being provided in parallel with each other, in the cross section taken along the y-z plane of the stirring means.
A computer implemented method to detect a computer system in execution operating in a manner that is not compliant with a definition of a set of compliant operations , the method comprising: receiving a first set of records for the computer system, each record detailing an occurrence in the computer system during a first predetermined time period; generating a sparse distributed representation of the first set of records to form a training set for a hierarchical temporal memory, HTM, ; training the HTM based on the training set in order that the trained HTM provides a model of the operation of the computer system during the predetermined time period; selecting at least a subset of compliant operations in the set of compliant operations; invoking each operation of the selected subset of compliant operations in the computer system over a second predetermined time period to generate a second set of records of occurrences in the computer system; generating a sparse distributed representation of the second set of records to form an input set for the trained HTM; executing the trained HTM based on the input set to determine a degree of recognition of the records of the input set; and responsive to a determination that a degree of recognition of one or more records of the input set is below a threshold degree, identifying the operation of the computer system as non-compliant. receiving a first set of records for the computer system, each record detailing an occurrence in the computer system during a first predetermined time period; generating a sparse distributed representation of the first set of records to form a training set for a hierarchical temporal memory, HTM, ; training the HTM based on the training set in order that the trained HTM provides a model of the operation of the computer system during the predetermined time period; selecting at least a subset of compliant operations in the set of compliant operations; invoking each operation of the selected subset of compliant operations in the computer system over a second predetermined time period to generate a second set of records of occurrences in the computer system; generating a sparse distributed representation of the second set of records to form an input set for the trained HTM; executing the trained HTM based on the input set to determine a degree of recognition of the records of the input set; and responsive to a determination that a degree of recognition of one or more records of the input set is below a threshold degree, identifying the operation of the computer system as non-compliant.