mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle air-conditioning system outlet unit comprising at least one duct surrounded by a wall , and an electrode connected to a voltage source, characterized in that the electrode comprises at least one angled portion protruding into the at least one duct for ionization of the air flowing through the at least one duct , wherein the at least one angled portion includes a tip freely terminating in the at least one duct and an end portion terminating with the tip , wherein the portion , protruding into the at least one duct , of the at least one angled portion , as seen in a side view and transversely to the flow direction (S), extends without corners up to the tip , wherein the end portion is integrally adjoined by a connecting portion which extends up to a mounting portion of the electrode and which together with the end portion produces an L-shape.
An information processing apparatus comprising: an input configured to input sample manufacture information of a composite material sample; characterized by a learning unit comprising a surrogate model and configured to predict a Talbot image in a prediction phase based on the sample manufacture information of the composite material sample,, the sample manufacturing information including at least one of a sample material and a molding condition, after having undergone learning in a learning phase by associating the sample manufacture information of samples, with Talbot images; and a calculator configured to calculate orientation information of the sample based on the predicted Talbot image, wherein orientation information is information that indicates an orientation of fiber of the composite material sample; wherein the learning unit is configured to in the learning phase: obtainesample manufacture information of a set of samples; obtain Talbot images obtained by imaging the samples with an X-ray Talbot imaging apparatus ; and learn by associating the sample manufacture information of the samples with the Talbot images such that the learning unit with the surrogate model can predict a Talbot image in the prediction phase based on the sample manufacture information of the sample. an input configured to input sample manufacture information of a composite material sample; characterized by a learning unit comprising a surrogate model and configured to predict a Talbot image in a prediction phase based on the sample manufacture information of the composite material sample,, the sample manufacturing information including at least one of a sample material and a molding condition, after having undergone learning in a learning phase by associating the sample manufacture information of samples, with Talbot images; and a calculator configured to calculate orientation information of the sample based on the predicted Talbot image, wherein orientation information is information that indicates an orientation of fiber of the composite material sample; wherein the learning unit is configured to in the learning phase: obtainesample manufacture information of a set of samples; obtain Talbot images obtained by imaging the samples with an X-ray Talbot imaging apparatus ; and learn by associating the sample manufacture information of the samples with the Talbot images such that the learning unit with the surrogate model can predict a Talbot image in the prediction phase based on the sample manufacture information of the sample. obtainesample manufacture information of a set of samples; obtain Talbot images obtained by imaging the samples with an X-ray Talbot imaging apparatus ; and learn by associating the sample manufacture information of the samples with the Talbot images such that the learning unit with the surrogate model can predict a Talbot image in the prediction phase based on the sample manufacture information of the sample.
A teaching system of a dual-arm robot , comprising: a dual-arm robot including a robot main body , two arms comprised of a plurality of links (15-18) coupled to each other with joint shafts (21-27), and two instructing parts provided to tip ends of the two arms , respectively, and configured to indicate coordinate points in space and to be grippable by a teacher; and a control device configured to acquire the coordinate points indicated by the teacher moving the two instructing parts directly and simultaneously with both hands as teaching points, and teach the dual-arm robot operation corresponding to the acquired teaching points, wherein each of the arms further includes a first link supported by the robot main body so as to be rotatable centering on a rotational axis of a first joint shaft that is used as a fulcrum; wherein the robot main body includes a support ; wherein the support has branched parts of which tip ends are spaced apart from each other and branched to the left and to the right; and wherein the first links including base ends of the two arms are supported by the branched parts of the support so as to be rotatable centering on rotational axes of the first joint shafts , such that a space is produced between the first joint shafts of the arms , such that there is nothing that interrupts the teacher's view. a dual-arm robot including a robot main body , two arms comprised of a plurality of links (15-18) coupled to each other with joint shafts (21-27), and two instructing parts provided to tip ends of the two arms , respectively, and configured to indicate coordinate points in space and to be grippable by a teacher; and a control device configured to acquire the coordinate points indicated by the teacher moving the two instructing parts directly and simultaneously with both hands as teaching points, and teach the dual-arm robot operation corresponding to the acquired teaching points, wherein each of the arms further includes a first link supported by the robot main body so as to be rotatable centering on a rotational axis of a first joint shaft that is used as a fulcrum; wherein the robot main body includes a support ; wherein the support has branched parts of which tip ends are spaced apart from each other and branched to the left and to the right; and wherein the first links including base ends of the two arms are supported by the branched parts of the support so as to be rotatable centering on rotational axes of the first joint shafts , such that a space is produced between the first joint shafts of the arms , such that there is nothing that interrupts the teacher's view.
Bearing ring for an anti-friction bearing, the bearing ring defining a main axis (A), the bearing ring being configured as a cavity which runs around the main axis (A), a wall of the hollow ring being of single-piece and/or seamless configuration in an axial section along the main axis (A), the bearing ring being configured for rolling bodies to roll on, the wall having a raceway section for the rolling bodies to roll on, a bearing bottom section for supporting the bearing ring , two side supporting wall sections and two connecting sections for connecting the two side supporting wall sections to the raceway section , characterized in that the cavity has two cavity sections , the wall enclosing the two cavity sections , and in that the raceway section lies on the bearing bottom section , the bearing bottom section supporting the raceway section .
A detergent composition in the form of an effervescent tablet comprising: a) an alkylsulfate-type anionic surfactant having a linear or branched C 8 - 18 alkyl chain in the form of sodium, potassium, ammonium, monoethanolammonium, diethanolammonium or triethanolammonium salt, b) an effervescent system formed by a water-soluble organic acid and an inorganic salt selected from the group formed by an alkaline carbonate, an alkaline bicarbonate, and mixtures thereof, c) a disintegrating agent comprising a combination of starch and sodium carboxymethyl cellulose, and d) urea. a) an alkylsulfate-type anionic surfactant having a linear or branched C 8 - 18 alkyl chain in the form of sodium, potassium, ammonium, monoethanolammonium, diethanolammonium or triethanolammonium salt, b) an effervescent system formed by a water-soluble organic acid and an inorganic salt selected from the group formed by an alkaline carbonate, an alkaline bicarbonate, and mixtures thereof, c) a disintegrating agent comprising a combination of starch and sodium carboxymethyl cellulose, and d) urea.
A semiconductor structure comprising a substrate , a die and a first adhesive layer , wherein a surface of the substrate is provided with an insulation layer ; the die is arranged on a surface of the insulation layer via the first adhesive layer ; characterised in that the insulation layer is provided with at least one hole slot , the hole slot being defined as a recess, trench or void in the insulation layer, with a geometry corresponding to an edge of the first adhesive layer; a position of the at least one hole slot corresponds to at least a part of an edge of the first adhesive layer ; a second adhesive layer is arranged in the at least one hole slot ; at least a part of a surface of the second adhesive layer is connected with the first adhesive layer ; and an elasticity modulus of the second adhesive layer is smaller than an elasticity modulus of the first adhesive layer . characterised in that the insulation layer is provided with at least one hole slot , the hole slot being defined as a recess, trench or void in the insulation layer, with a geometry corresponding to an edge of the first adhesive layer; a position of the at least one hole slot corresponds to at least a part of an edge of the first adhesive layer ; a second adhesive layer is arranged in the at least one hole slot ; at least a part of a surface of the second adhesive layer is connected with the first adhesive layer ; and an elasticity modulus of the second adhesive layer is smaller than an elasticity modulus of the first adhesive layer .
An injection catheter system comprising: (a) an actuator; (b) an outer needle comprising a sharp tip and a tubular body defining a lumen, the outer needle extending distally from the actuator; and (c) an inner needle at least partially disposed within the lumen and extending distally from the actuator, the inner needle having a distal tip configured such that at least a portion of the distal tip has a surface contour with an interstitial cavity adapted to receive a therapeutic gel ; wherein the system is configured such that (a) in a first position, the distal tip is fully disposed within the lumen to temporarily retain the therapeutic gel in the interstitial cavity and (b) in a second position, the outer needle is retracted proximally, exposing the interstitial cavity to deliver the therapeutic gel to a target area in a body; wherein the actuator is adapted to proximally or distally translate the outer needle such that translation of the outer needle is independent of translation of the inner needle ; and wherein the inner needle comprises a tubular body defining an inner lumen, the inner lumen adapted to receive a guide wire . (a) an actuator; (b) an outer needle comprising a sharp tip and a tubular body defining a lumen, the outer needle extending distally from the actuator; and (c) an inner needle at least partially disposed within the lumen and extending distally from the actuator, the inner needle having a distal tip configured such that at least a portion of the distal tip has a surface contour with an interstitial cavity adapted to receive a therapeutic gel ; wherein the system is configured such that (a) in a first position, the distal tip is fully disposed within the lumen to temporarily retain the therapeutic gel in the interstitial cavity and (b) in a second position, the outer needle is retracted proximally, exposing the interstitial cavity to deliver the therapeutic gel to a target area in a body; wherein the actuator is adapted to proximally or distally translate the outer needle such that translation of the outer needle is independent of translation of the inner needle ; and wherein the inner needle comprises a tubular body defining an inner lumen, the inner lumen adapted to receive a guide wire . wherein the system is configured such that (a) in a first position, the distal tip is fully disposed within the lumen to temporarily retain the therapeutic gel in the interstitial cavity and (b) in a second position, the outer needle is retracted proximally, exposing the interstitial cavity to deliver the therapeutic gel to a target area in a body; wherein the actuator is adapted to proximally or distally translate the outer needle such that translation of the outer needle is independent of translation of the inner needle ; and wherein the inner needle comprises a tubular body defining an inner lumen, the inner lumen adapted to receive a guide wire .
A device, in particular a machine, for manufacturing Wiegand wire from a wire , in particular from a pulse wire, wherein the device has a first chuck , a second chuck and a third chuck , wherein the wire is guided through each of the three chucks , in particular so that the wire is releasably connectable in a rotationally-fixed manner to the three chucks, in particular releasably connectable in a rotationally-fixed and force-locked manner to the three chucks, wherein the chucks are spaced apart from one another in the wire direction, wherein the second chuck is arranged between the first and the third chuck in the wire direction, wherein the second chuck is rotatably mounted, so that a first wire region can be acted upon by torsion and a second wire region can be acted upon by the opposite torsion, wherein the first wire region is arranged between the first chuck and the second chuck , wherein the second wire region is arranged between the third chuck and the second chuck , wherein the spacing in the wire direction between the first and the second chuck is controllable or regulatable by means of a first linear actuator, wherein the spacing in the wire direction between the second and the third chuck is controllable or regulatable by means of a second linear actuator.
A camera module, comprising: a front body ; a lens disposed on the front body ; a rear body coupled to the front body ; a substrate disposed at an inner space between the front body and the rear body ; and an image sensor disposed on the substrate , wherein the front body comprises a first surface facing the rear body , and a first protrusion and a second protrusion protruded from the first surface and spaced apart from each other, the first protrusion is disposed at an inner side of the second protrusion to allow being nearer to an optical axis than the second protrusion , the first protrusion is coupled with the substrate and the second protrusion is coupled with the rear body , and the front body further comprises a plurality of ribs connecting the first protrusion and the second protrusion between the first protrusion and the second protrusion and mutually spaced apart from the other wherein a distance between a distal end of the first protrusion and the first surface is longer than a distance between a distal end of the second protrusion and the first surface, wherein each rib of said plurality of ribs is extended from the first surface of the front body , wherein each rib of said plurality of ribs comprises a slant surface so slanted as to allow a distance at the first protrusion between a distal end of the rib and the first surface to be formed to be longer than a distance at the second protrusion between a distal end of the rib and the first surface. a front body ; a lens disposed on the front body ; a rear body coupled to the front body ; a substrate disposed at an inner space between the front body and the rear body ; and an image sensor disposed on the substrate , wherein the front body comprises a first surface facing the rear body , and a first protrusion and a second protrusion protruded from the first surface and spaced apart from each other, the first protrusion is disposed at an inner side of the second protrusion to allow being nearer to an optical axis than the second protrusion , the first protrusion is coupled with the substrate and the second protrusion is coupled with the rear body , and the front body further comprises a plurality of ribs connecting the first protrusion and the second protrusion between the first protrusion and the second protrusion and mutually spaced apart from the other wherein a distance between a distal end of the first protrusion and the first surface is longer than a distance between a distal end of the second protrusion and the first surface, wherein each rib of said plurality of ribs is extended from the first surface of the front body , wherein each rib of said plurality of ribs comprises a slant surface so slanted as to allow a distance at the first protrusion between a distal end of the rib and the first surface to be formed to be longer than a distance at the second protrusion between a distal end of the rib and the first surface.
Nutritional formulation for ruminants, characterized by comprising an extruded mixture of the following constituents: - at least one source of fiber based on sugar cane haystack, corn haystack, grass haystack (hay), sugar cane bagasse and sunflower bran, under the ratio between 5% and 60% by weight; - source of nitrogen based on urea for cattle-raising, under the ratio between 0.01 % and 8% by weight; - at least one source of protein based on soy bran, cotton bran, sugar cane yeast, soy meal and sunflower bran, under the ratio between 1% and 42% by weight; - at least one source of energy: corn, sorghum, soy molasses, sugar cane molasses, corn germen, corn oil, soybean oil and protected palm fat, under the ratio between 3% and 70% by weight; - at least one source of minerals: dicalcium phosphate, calcium carbonate, calcium sulfate, potassium chloride, ammonium chloride, filtered sulfur, zinc oxide, organic chromium, organic zinc, copper sulfate, magnesium oxide, sodium chloride, manganese monoxide, cobalt sulfate, calcium iodate, organic selenium, sodium bicarbonate and sodium selenite, under the ratio between 0.2% and 20% by weight; and - at least one additive: sodium monensin, virginiamycin, lysine and tannin from chestnut and/or ash tree, under the ratio between 0.01% and 0.2% by weight. - at least one source of fiber based on sugar cane haystack, corn haystack, grass haystack (hay), sugar cane bagasse and sunflower bran, under the ratio between 5% and 60% by weight; - source of nitrogen based on urea for cattle-raising, under the ratio between 0.01 % and 8% by weight; - at least one source of protein based on soy bran, cotton bran, sugar cane yeast, soy meal and sunflower bran, under the ratio between 1% and 42% by weight; - at least one source of energy: corn, sorghum, soy molasses, sugar cane molasses, corn germen, corn oil, soybean oil and protected palm fat, under the ratio between 3% and 70% by weight; - at least one source of minerals: dicalcium phosphate, calcium carbonate, calcium sulfate, potassium chloride, ammonium chloride, filtered sulfur, zinc oxide, organic chromium, organic zinc, copper sulfate, magnesium oxide, sodium chloride, manganese monoxide, cobalt sulfate, calcium iodate, organic selenium, sodium bicarbonate and sodium selenite, under the ratio between 0.2% and 20% by weight; and - at least one additive: sodium monensin, virginiamycin, lysine and tannin from chestnut and/or ash tree, under the ratio between 0.01% and 0.2% by weight.
A compound of Formula (I) or a salt thereof: Wherein R 1 is H, (C 1 -C 3 )alkyl or CF 3 ; R 2 is H, (C 1 -C 3 )alkyl or CF 3 ; A is CH 2 COOH, XCH 2 COOCH 2 CH 3 , XCH 2 COOH, XCH 2 CH 2 NH 2 , where X is nitrogen or oxygen atom; Ar is an aromatic fragment selected from the group consisting of where R 3 is H, -CH 3 , -CH 2 CH 3 or CH 3 CO-, R 4 is H or -CH 3 , R 5 is H or -CH 3 , and R 6 is H or -CH 3 . R 1 is H, (C 1 -C 3 )alkyl or CF 3 ; R 2 is H, (C 1 -C 3 )alkyl or CF 3 ; A is CH 2 COOH, XCH 2 COOCH 2 CH 3 , XCH 2 COOH, XCH 2 CH 2 NH 2 , where X is nitrogen or oxygen atom; Ar is an aromatic fragment selected from the group consisting of where R 3 is H, -CH 3 , -CH 2 CH 3 or CH 3 CO-, R 4 is H or -CH 3 , R 5 is H or -CH 3 , and R 6 is H or -CH 3 .
Shield contact element comprising spring elements which are axially spaced apart from one another and are arranged on a hollow-cylindrical main body , wherein firstly contact is made with a shielding of a cable and secondly contact is made with an electrical device by means of the spring elements, wherein the spring elements are designed as external spring elements , which are arranged at one end of the hollow-cylindrical main body , for making contact with the electrical device and as internal spring elements , which are arranged at the other end of the hollow-cylindrical main body , for making contact with the shielding of the cable, and wherein the hollow-cylindrical main body , over the circumference of one of its ends, has a plurality of recesses into which the external spring elements are inserted and secured, characterized in that the external spring elements and/or the internal spring elements are designed as ring elements, wherein the ring element has at least one ring from which the individual spring elements project.
A method, comprising: receiving (1102; 1402), at a road side unit, RSU, (820; 1120; 1204; 1306), a session establishment request from a vehicle (810; 1008; 1110; 1206) in the vicinity of the RSU; establishing a data offload session in an automotive ubiquitous witness use case between the vehicle and the RSU based on the session establishment request; receiving data from the vehicle during the data offload session, the data comprising sensor data for one or more sensors integrated with or affixed to the vehicle; storing the data in a memory coupled to the RSU; generating storage record information for the stored data, the storage record information comprising identifying information identifying the RSU and information about the physical location of the RSU; and transmitting (1107; 1410) the storage record information from the RSU to the vehicle. receiving (1102; 1402), at a road side unit, RSU, (820; 1120; 1204; 1306), a session establishment request from a vehicle (810; 1008; 1110; 1206) in the vicinity of the RSU; establishing a data offload session in an automotive ubiquitous witness use case between the vehicle and the RSU based on the session establishment request; receiving data from the vehicle during the data offload session, the data comprising sensor data for one or more sensors integrated with or affixed to the vehicle; storing the data in a memory coupled to the RSU; generating storage record information for the stored data, the storage record information comprising identifying information identifying the RSU and information about the physical location of the RSU; and transmitting (1107; 1410) the storage record information from the RSU to the vehicle.