mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly comprising an abnormality determination apparatus comprising an abnormality determination unit configured to compare first obstacle information related to an obstacle detected by a first sensor with second obstacle information related to the obstacle detected by a second sensor existing in a location different from a location of the first sensor, the abnormality determination unit configured to determine whether or not the first sensor or the second sensor is abnormal based on a result of the comparison, wherein the assembly comprising the first and second sensor, wherein the first sensor is an infrastructure sensor adapted to be installed in a predetermined place to detect the obstacle, the second sensor is an onboard sensor adapted to be mounted on a vehicle, the onboard sensor being adapted to be mounted on each of a plurality of the vehicles, and the abnormality determination unit compares the first obstacle information by the infrastructure sensor with pieces of the second obstacle information by the respective onboard sensors mounted on at least two or more infrastructure cooperative vehicles selected from among a plurality of the vehicles, characterized in that the abnormality determination unit determines that, if pieces of the second obstacle information by the respective onboard sensors mounted on the plurality of infrastructure cooperative vehicles do not match each other, the onboard sensor that outputs the second obstacle information different from the first obstacle information is abnormal; and determines that, if pieces of the second obstacle information by the respective onboard sensors match each other and if the first obstacle information does not match the second obstacle information, the infrastructure sensor is abnormal. the first sensor is an infrastructure sensor adapted to be installed in a predetermined place to detect the obstacle, the second sensor is an onboard sensor adapted to be mounted on a vehicle, the onboard sensor being adapted to be mounted on each of a plurality of the vehicles, and the abnormality determination unit compares the first obstacle information by the infrastructure sensor with pieces of the second obstacle information by the respective onboard sensors mounted on at least two or more infrastructure cooperative vehicles selected from among a plurality of the vehicles, characterized in that the abnormality determination unit determines that, if pieces of the second obstacle information by the respective onboard sensors mounted on the plurality of infrastructure cooperative vehicles do not match each other, the onboard sensor that outputs the second obstacle information different from the first obstacle information is abnormal; and determines that, if pieces of the second obstacle information by the respective onboard sensors match each other and if the first obstacle information does not match the second obstacle information, the infrastructure sensor is abnormal.
A spinneret having a first surface and a second surface parallel to the first surface , wherein the spinneret comprises multiple spinning holes, each spinning hole comprising an entrance opening , a conically shaped channel and a cylindrically shaped capillary , wherein the exit side of all the capillaries are located in the plane of the second surface of the spinneret , wherein the spinneret comprises at least a first group of spinning holes with capillaries and a second group of spinning holes with capillaries , wherein the capillaries of the second group of spinning holes have a lower L/D ratio than the capillaries of the first group of spinning holes, wherein the diameter of the capillaries of the second group of spinning holes is equal to the diameter of the capillaries first group of spinning holes and, if applied, equal to the diameter of the capillaries of further group(s) of spinning holes, and wherein the diameter of all capillaries is 100 μm or less.
An artificial nail tip and curing composition set for a fingernail , comprising: at least one artificial nail tip, the artificial nail tip having an underside surface which can be filed into a plurality of indented grooves ; an adhesive composition consisting of: (a) 75.0-80.0% by weight of polyurethane acrylate oligomers ; (b) 10.0-15.0% by weight of 2-hydroxyethyl methacrylate ; (c) 1.0-5.0% by weight of 1-hydroxycyclohexyl phenyl ketone ; (d) 1.0-5.0% by weight of phenylbis(2,4,6-trimethylbenzoyl)phosphine oxide ; and wherein the adhesive composition is applied to the plurality of indented grooves on the underside of an artificial nail tip and to a surface of a fingernail ; wherein curing and hardening the adhesive composition with UV light or LED light for about 2 minutes forms a bonding layer between the indented grooves on the underside of the artificial nail tip and the surface of the fingernail ; and wherein the bonding layer affixes the artificial nail tip to the surface of the fingernail for at least two weeks. at least one artificial nail tip, the artificial nail tip having an underside surface which can be filed into a plurality of indented grooves ; an adhesive composition consisting of: (a) 75.0-80.0% by weight of polyurethane acrylate oligomers ; (b) 10.0-15.0% by weight of 2-hydroxyethyl methacrylate ; (c) 1.0-5.0% by weight of 1-hydroxycyclohexyl phenyl ketone ; (d) 1.0-5.0% by weight of phenylbis(2,4,6-trimethylbenzoyl)phosphine oxide ; and (a) 75.0-80.0% by weight of polyurethane acrylate oligomers ; (b) 10.0-15.0% by weight of 2-hydroxyethyl methacrylate ; (c) 1.0-5.0% by weight of 1-hydroxycyclohexyl phenyl ketone ; (d) 1.0-5.0% by weight of phenylbis(2,4,6-trimethylbenzoyl)phosphine oxide ; and wherein the adhesive composition is applied to the plurality of indented grooves on the underside of an artificial nail tip and to a surface of a fingernail ; wherein curing and hardening the adhesive composition with UV light or LED light for about 2 minutes forms a bonding layer between the indented grooves on the underside of the artificial nail tip and the surface of the fingernail ; and wherein the bonding layer affixes the artificial nail tip to the surface of the fingernail for at least two weeks.
A row unit for a seeding machine, the row unit comprising: a frame ; a gauge wheel arm pivotally coupled to the frame ; a gauge wheel coupled to the gauge wheel arm ; and a position sensor assembly configured to detect a gap corresponding to a rotational position of the gauge wheel arm , characterised in that said position sensor assembly including a sensing target surface of the gauge wheel arm 'wherein the sensing target surface is at least one of an eccentric surface or a cam surface. a frame ; a gauge wheel arm pivotally coupled to the frame ; a gauge wheel coupled to the gauge wheel arm ; and a position sensor assembly configured to detect a gap corresponding to a rotational position of the gauge wheel arm , characterised in that said position sensor assembly including a sensing target surface of the gauge wheel arm 'wherein the sensing target surface is at least one of an eccentric surface or a cam surface.
An assembly comprising a detection device and a capacitive touch sensor , the capacitive touch sensor comprising a support layer and a plurality of sensing elongated elements coupled to said support layer , wherein said sensing elongated elements have one of their three dimensions which is at least ten times greater than the other two dimensions, said plurality of sensing elongated elements comprising a plurality of electrically resistive elongated elements having an electrical resistance per unit of length comprised between 10 kΩ/m and 10 MΩ/m, said plurality of electrically resistive elongated elements comprising a first set of electrically resistive elongated elements electrically connected to a first common node (Nx) configured to be electrically connected to a first input (INx) of the detection device , said detection device being configured to provide an output signal (S_OUT) comprising a first output value (OUTx) that is a function of the capacitance value (CRx) of said first set of electrically resistive elongated elements that is indicative of a touch event occurred on one or more electrically resistive elongated elements , said plurality of electrically resistive elongated elements defining a sensing area , said plurality of sensing elongated elements comprises at least one electrically conductive elongated element having an electrical resistance per unit of length that is less than 200 Ω/m, the electrically conductive elongated element being arranged within said sensing area and electrically insulated from said electrically resistive elongated elements , said at least one electrically conductive elongated element being electrically connected to a reference common node (Ne) configured to be electrically connected to a reference input (INc) of said detection device for evaluating the capacitance (Cc) of said at least one electrically conductive elongated element that is indicative of a touch event occurred on one or more electrically conductive elongated elements .
An automatic traveling method comprising: Causing (S12, S22) a work vehicle to automatically travel along a target route (R) set within a field (F); Detecting (S13, S23) an obstacle (A1) located on an outer periphery of the field (F), while the work vehicle is traveling along the target route (R) in an outer peripheral area (Fb) of the field (F); and in a case where the obstacle (A1) is an object to be avoided, causing (S15, S25) the work vehicle to travel along an avoidance route (r1) that is located more inside the field (F) than the target route (R), characterized in the method further comprising: in a case where an operator boards the work vehicle , determining that the obstacle (A1) is the object to be avoided in a case where a distance between the work vehicle and the obstacle (A1) becomes equal to or less than a first set distance, and in a case where an operator does not board the work vehicle , determining that the obstacle (A1) is the object to be avoided in a case where the distance between the work vehicle and the obstacle (A1) becomes equal to or less than a second set distance being greater than the first set distance. Causing (S12, S22) a work vehicle to automatically travel along a target route (R) set within a field (F); Detecting (S13, S23) an obstacle (A1) located on an outer periphery of the field (F), while the work vehicle is traveling along the target route (R) in an outer peripheral area (Fb) of the field (F); and in a case where the obstacle (A1) is an object to be avoided, causing (S15, S25) the work vehicle to travel along an avoidance route (r1) that is located more inside the field (F) than the target route (R), characterized in the method further comprising: in a case where an operator boards the work vehicle , determining that the obstacle (A1) is the object to be avoided in a case where a distance between the work vehicle and the obstacle (A1) becomes equal to or less than a first set distance, and in a case where an operator does not board the work vehicle , determining that the obstacle (A1) is the object to be avoided in a case where the distance between the work vehicle and the obstacle (A1) becomes equal to or less than a second set distance being greater than the first set distance. in a case where an operator boards the work vehicle , determining that the obstacle (A1) is the object to be avoided in a case where a distance between the work vehicle and the obstacle (A1) becomes equal to or less than a first set distance, and in a case where an operator does not board the work vehicle , determining that the obstacle (A1) is the object to be avoided in a case where the distance between the work vehicle and the obstacle (A1) becomes equal to or less than a second set distance being greater than the first set distance.
A position tracker driven display system for display of an interventional device including an integration of at least one position tracker and at least one interventional tool, the position tracker driven display system comprising: a monitor ; and a display controller for controlling a real-time display on the monitor of a tracking image illustrative of a navigation of a tracking node of the interventional device within an anatomical region, wherein the display controller is configured to autonomously select the tracking image among a plurality of registered spatial images illustrative of the anatomical region within an image space based on position tracking data informative of a location and an orientation of the at least one position tracker within the anatomical region in the image space, wherein the display controller derives an autonomous selection of the tracking image from a location and an orientation of the tracking node of the interventional device relative to the image space as indicated by the position tracking data, and characterised in that the display controller is configured to display the autonomously selected tracking image with a directional view selected based on the orientation of the tracking node of the interventional device . a monitor ; and a display controller for controlling a real-time display on the monitor of a tracking image illustrative of a navigation of a tracking node of the interventional device within an anatomical region, wherein the display controller is configured to autonomously select the tracking image among a plurality of registered spatial images illustrative of the anatomical region within an image space based on position tracking data informative of a location and an orientation of the at least one position tracker within the anatomical region in the image space, wherein the display controller derives an autonomous selection of the tracking image from a location and an orientation of the tracking node of the interventional device relative to the image space as indicated by the position tracking data, and characterised in that the display controller is configured to display the autonomously selected tracking image with a directional view selected based on the orientation of the tracking node of the interventional device . wherein the display controller is configured to autonomously select the tracking image among a plurality of registered spatial images illustrative of the anatomical region within an image space based on position tracking data informative of a location and an orientation of the at least one position tracker within the anatomical region in the image space, wherein the display controller derives an autonomous selection of the tracking image from a location and an orientation of the tracking node of the interventional device relative to the image space as indicated by the position tracking data, and characterised in that the display controller is configured to display the autonomously selected tracking image with a directional view selected based on the orientation of the tracking node of the interventional device .
Method for the production of uniform films on moving substrates in a vacuum chamber by deposition of at least one source material by means of magnetron sputtering, in which at least one substrate is transported with at least one movable substrate mounting in the vacuum chamber to at least one sputtering zone and, in the sputtering zone, at least one film made of at least one source material is deposited on the substrate by sputtering the target comprising the at least one source material, wherein the at least one source material is deposited without separate supply of a reaction gas into the vacuum chamber, characterised in that all surfaces which are situated in the region of the sputtering zone consist of the at least one source material. wherein the at least one source material is deposited without separate supply of a reaction gas into the vacuum chamber, characterised in that all surfaces which are situated in the region of the sputtering zone consist of the at least one source material.
Method for producing a plastics moulding , wherein, in the method, a mould insert with a diffractive surface relief is provided, the mould insert is inserted into one mould half of an injection mould which, together with at least one further mould half, forms a cavity for producing the plastics moulding , wherein the mould insert is inserted into the injection mould such that the diffractive surface relief forms a partial region of the surface of the cavity formed by the mould half , and the plastics moulding is moulded by injection moulding by means of the injection mould , wherein, during the provision of the mould insert , first a provisional diffractive surface relief is formed in a surface of a substrate, and then the substrate is reshaped to form the mould insert , wherein, during the reshaping, the provisional surface relief is deformed into the diffractive surface relief of the mould insert .
A direction indicator control method comprising calculating a presumed traveling route to a destination; acquiring each position of a plurality of directional indication determination points at which it is to be determined whether a directional indication should be made on the presumed traveling route, referring to map information stored in a map database ; acquiring a position of the vehicle; determining whether one of the directional indication determination points belongs to a roundabout (RA) when the vehicle is coming close to the corresponding directional indication determination point; and inhibiting a direction indicator of the vehicle from making the directional indication when the vehicle enters the roundabout (RA) when the corresponding directional indication determination point to which the vehicle is coming close is determined to belong to the roundabout (RA). calculating a presumed traveling route to a destination; acquiring each position of a plurality of directional indication determination points at which it is to be determined whether a directional indication should be made on the presumed traveling route, referring to map information stored in a map database ; acquiring a position of the vehicle; determining whether one of the directional indication determination points belongs to a roundabout (RA) when the vehicle is coming close to the corresponding directional indication determination point; and inhibiting a direction indicator of the vehicle from making the directional indication when the vehicle enters the roundabout (RA) when the corresponding directional indication determination point to which the vehicle is coming close is determined to belong to the roundabout (RA). roundabout (RA) when the vehicle is coming close to the corresponding directional indication determination point; and inhibiting a direction indicator of the vehicle from making the directional indication when the vehicle enters the roundabout (RA) when the corresponding directional indication determination point to which the vehicle is coming close is determined to belong to the roundabout (RA).
A method of imparting microbe-resistance to a locus, comprising: a) providing an effective amount of at least one antimicrobial agent consisting of bismuth aluminate; and b) introducing the antimicrobial agent to a locus to impart microbe-resistance, wherein the locus comprises a coating, coating intermediate, finish, finish intermediate, colorant, process equipment, storage vessel, or combinations thereof, a paint, varnish, colorant, colorant concentrate, dispersion, lacquer, sealer, thinner, stain, glaze, primer, caulk, sealant, reducer, coalescent, reactive diluent, solvent, paste, filler, adhesive, carrier or combination thereof. a) providing an effective amount of at least one antimicrobial agent consisting of bismuth aluminate; and b) introducing the antimicrobial agent to a locus to impart microbe-resistance, wherein the locus comprises a coating, coating intermediate, finish, finish intermediate, colorant, process equipment, storage vessel, or combinations thereof, a paint, varnish, colorant, colorant concentrate, dispersion, lacquer, sealer, thinner, stain, glaze, primer, caulk, sealant, reducer, coalescent, reactive diluent, solvent, paste, filler, adhesive, carrier or combination thereof.
Electrical device comprising: a main housing , a door arranged on the main housing , wherein the door is openable and closable by a user, a vibrator arranged on the main housing and/or the door and configured to produce a predefined vibration pattern comprising a sequence of vibrations during a movement of the door , a vibration detector arranged in the main housing and configured to detect the vibrations generated by the vibrator , and a vibration evaluation device coupled to the vibration detector and configured to determine when the door moves based on the detected vibrations . a main housing , a door arranged on the main housing , wherein the door is openable and closable by a user, a vibrator arranged on the main housing and/or the door and configured to produce a predefined vibration pattern comprising a sequence of vibrations during a movement of the door , a vibration detector arranged in the main housing and configured to detect the vibrations generated by the vibrator , and a vibration evaluation device coupled to the vibration detector and configured to determine when the door moves based on the detected vibrations .
A sliding bearing element , embodied as a half shell, comprising a support layer and a sliding layer , wherein at least one lubricant groove is formed in the sliding layer , which lubricant groove starts in an end face of the sliding bearing element extending in the direction of the axial direction, wherein a depth of the lubricant groove becomes smaller in the direction towards a groove outlet , such that the lubricant groove in the groove outlet runs out flat into the sliding surface of the sliding layer , characterized in that a floor surface of the lubricant groove has a surface with a surface structure, wherein the surface structure has a plurality of recesses .
A battery pack comprising: a plurality of battery cells (C) arranged in a longitudinal direction (Z1); a heat insulating sheet (I) between two adjacent battery cells (C); a first friction sheet (F1) that is between the heat insulating sheet (I) and one battery cell (C) of the two adjacent battery cells (C) and includes non-adhesive surfaces (NA) in direct contact with the heat insulating sheet (I) and the one battery cell (C); and a restraining mechanism configured to provide a compressive force in the longitudinal direction (Z1) from both ends of the plurality of battery cells (C). a plurality of battery cells (C) arranged in a longitudinal direction (Z1); a heat insulating sheet (I) between two adjacent battery cells (C); a first friction sheet (F1) that is between the heat insulating sheet (I) and one battery cell (C) of the two adjacent battery cells (C) and includes non-adhesive surfaces (NA) in direct contact with the heat insulating sheet (I) and the one battery cell (C); and a restraining mechanism configured to provide a compressive force in the longitudinal direction (Z1) from both ends of the plurality of battery cells (C).