mhurhangee/ep-ind-claims huggingface dataset:
Vehicle antenna pane for separating a vehicle interior from external surroundings, at least comprising: - an inner pane having an exterior-side surface, - an outer pane having an interior-side surface, - at least one intermediate layer (3,3'), which connects the interior-side surface of the outer pane areally with the exterior-side surface of the inner pane, - a planar antenna structure, which is arranged between the inner pane and the outer pane, - a base plate, which is arranged on the interior side in relation to the antenna structure, wherein - at least one dielectric is arranged between the antenna structure and the base plate, and the dielectric consists at least of the inner pane, of the intermediate layer (3,3'), or of the inner pane and the intermediate layer (3,3'), - the antenna structure has a base with a ratio of length l A to width b A of 1:1 to 10:1, - the base plate is arranged at least in the region of the orthogonal projection of the antenna structure relative to the inner pane, characterized in that - the antenna foot point of the antenna structure is guided via a foil conductor to the side edge (30,31) of the vehicle antenna pane and is guided out of it, and the foil conductor can be arranged, at least in a region that is adjacent a vehicle body, as a strip conductor and preferably as a coplanar strip conductor, whose shield is electrically connected to the base plate. - an inner pane having an exterior-side surface, - an outer pane having an interior-side surface, - at least one intermediate layer (3,3'), which connects the interior-side surface of the outer pane areally with the exterior-side surface of the inner pane, - a planar antenna structure, which is arranged between the inner pane and the outer pane, - a base plate, which is arranged on the interior side in relation to the antenna structure, wherein - at least one dielectric is arranged between the antenna structure and the base plate, and the dielectric consists at least of the inner pane, of the intermediate layer (3,3'), or of the inner pane and the intermediate layer (3,3'), - the antenna structure has a base with a ratio of length l A to width b A of 1:1 to 10:1, - the base plate is arranged at least in the region of the orthogonal projection of the antenna structure relative to the inner pane, characterized in that - the antenna foot point of the antenna structure is guided via a foil conductor to the side edge (30,31) of the vehicle antenna pane and is guided out of it, and the foil conductor can be arranged, at least in a region that is adjacent a vehicle body, as a strip conductor and preferably as a coplanar strip conductor, whose shield is electrically connected to the base plate.
A method of calibrating an articulating probe head, the articulating probe head being mounted on an arm of a coordinate positioning apparatus, in which a surface sensing device mounted on the articulating probe head is moved into a position-sensing relationship with an artefact placed on a table of the coordinate positioning apparatus and a position reading taken, the method comprising the following steps, in any suitable order: a) measuring a feature of an artefact, whose true measurements have been determined, placed on the table of the coordinate positioning apparatus in a set orientation to obtain measurement data when there is relative movement between the surface sensing device and the arm of the coordinate positioning apparatus; b) generating an error function or map specific to the feature in the set orientation, the error function or map corresponding to a difference between the measurement data obtained in step a and the true measurements of the feature of the artefact; c) measuring subsequent workpieces, each subsequent workpiece having a feature that approximately matches the feature of the artefact, when each workpiece is placed on the table of the coordinate positioning apparatus to at least nominally align the feature of the workpiece in the set orientation, wherein there is relative movement between the surface sensing device and the arm of the coordinate measuring apparatus; and d) correcting measurements of subsequent workpieces obtained in step c using the error function or map generated in step b. a) measuring a feature of an artefact, whose true measurements have been determined, placed on the table of the coordinate positioning apparatus in a set orientation to obtain measurement data when there is relative movement between the surface sensing device and the arm of the coordinate positioning apparatus; b) generating an error function or map specific to the feature in the set orientation, the error function or map corresponding to a difference between the measurement data obtained in step a and the true measurements of the feature of the artefact; c) measuring subsequent workpieces, each subsequent workpiece having a feature that approximately matches the feature of the artefact, when each workpiece is placed on the table of the coordinate positioning apparatus to at least nominally align the feature of the workpiece in the set orientation, wherein there is relative movement between the surface sensing device and the arm of the coordinate measuring apparatus; and d) correcting measurements of subsequent workpieces obtained in step c using the error function or map generated in step b.
Method for controlling sensors, in particular for ultrasonic distance-detection systems in a vehicle, in which the sensors communicate with a signalling device for predefined distance detection operations, characterized in that each sensor from the plurality of sensors comprises a random generator and in each case is caused by a signal which is triggered by the random generator to generate a transmission signal, and on the basis of the reception signal reflected by an object at a distance the sensed distance is used directly to actuate the signalling device and in that the reception signal which is reflected by an object at a distance is compared with a predefined threshold value, and in a logic filter it is calculated whether the reflection is a direct reflection, a transmission signal from an adjacent sensor, an interference signal or a multiple reflection.
A method for producing a feedthrough component of a medical electronic device, wherein a feedthrough main body made of ceramic is produced and is provided over a large area with a metal coating, and the metal coating is then structured, wherein the structuring is performed by at least partially removing the metal coating in layers in a number of sub-steps by means of a processing laser, characterised in that during the structuring of the metal coating, at least one expansion joint is formed within the metal coating in order to compensate for different coefficients of thermal expansion of the feedthrough main body and the metal coating, wherein the feedthrough component is then joined to a flange and/or signal pin via the structured metal coating by means of a brazing process.
A leaf extract of Vernonia appendiculata obtainable by the following steps: a) extracting the leaves with a polar solvent, wherein the polar solvent is a mixture of water and alcohol, b) mixing and extracting the obtained solution with a non-polar solvent, and c) separating the phases to retain the aqueous phase, or a) extracting the leaves with a non-polar solvent, b) mixing and extracting the obtained solution with a polar solvent, wherein the polar solvent is a mixture of water and alcohol, and c) separating the phases to retain the aqueous phase, wherein the dried extract contains chlorogenic and/or isochlorogenic acids in a total amount of more than 5% by weight of the total extract. a) extracting the leaves with a polar solvent, wherein the polar solvent is a mixture of water and alcohol, b) mixing and extracting the obtained solution with a non-polar solvent, and c) separating the phases to retain the aqueous phase, a) extracting the leaves with a non-polar solvent, b) mixing and extracting the obtained solution with a polar solvent, wherein the polar solvent is a mixture of water and alcohol, and c) separating the phases to retain the aqueous phase,
A calibrating system for calibrating a camera of a vehicle, the system comprising: - a base unit; - a support structure connected to the base unit; - a vehicle calibration assistance structure mounted on the support structure and including a target panel, which has a surface facing forward towards a service area, wherein the surface of the target panel bears a first combination of predetermined graphical features, the vehicle being positioned in the service area so that the camera of the vehicle can see the surface of the target panel; - a processing system, operatively connected the vehicle calibration assistance structure to process data received from the vehicle calibration assistance structure in order to facilitate alignment or calibration of the camera of the vehicle; - a positioning device, configured to aid a relative positioning between the vehicle and the vehicle calibration assistance structure, characterized in that the processing system is configured to display on the surface of the target panel an image which provides the first combination of predetermined graphical features visible to the camera of the vehicle. - a base unit; - a support structure connected to the base unit; - a vehicle calibration assistance structure mounted on the support structure and including a target panel, which has a surface facing forward towards a service area, wherein the surface of the target panel bears a first combination of predetermined graphical features, the vehicle being positioned in the service area so that the camera of the vehicle can see the surface of the target panel; - a processing system, operatively connected the vehicle calibration assistance structure to process data received from the vehicle calibration assistance structure in order to facilitate alignment or calibration of the camera of the vehicle; - a positioning device, configured to aid a relative positioning between the vehicle and the vehicle calibration assistance structure,
An automated computer-based method of evaluating a blood vessel, the method comprising the steps of: storing intravascular measurements in an electronic memory device, the intravascular measurements comprising distance measurements; generating a set of data from intravascular measurements obtained using an intravascular imaging system of a segment of length L within the blood vessel the method characterised by the steps of: determining a vascular resistance ratio, VRR, using a processor from at least a portion of the set of data; and determining a characteristic of at least a portion of the segment disposed along the length L in response to the VRR, wherein the VRR is a ratio of a blood flow resistance of a stenotic segment to a total flow resistance of a branch of a blood vessel in which the stenotic segment is located. storing intravascular measurements in an electronic memory device, the intravascular measurements comprising distance measurements; generating a set of data from intravascular measurements obtained using an intravascular imaging system of a segment of length L within the blood vessel the method characterised by the steps of: determining a vascular resistance ratio, VRR, using a processor from at least a portion of the set of data; and determining a characteristic of at least a portion of the segment disposed along the length L in response to the VRR, wherein the VRR is a ratio of a blood flow resistance of a stenotic segment to a total flow resistance of a branch of a blood vessel in which the stenotic segment is located. determining a vascular resistance ratio, VRR, using a processor from at least a portion of the set of data; and determining a characteristic of at least a portion of the segment disposed along the length L in response to the VRR, wherein the VRR is a ratio of a blood flow resistance of a stenotic segment to a total flow resistance of a branch of a blood vessel in which the stenotic segment is located.
A nodular graphite cast iron for pistons, containing, in mass%, C: 2.7 to 4.3%, Si: 2.4 to 3.5%, Mn: 0.3 to 0.8%, Mg: 0.02 to 0.10%, Cu: 0.3 to 0.5%, Cr: 0.05 to 0.90%, and Mo: 0.05 to 1.00% with the balance being composed of Fe and inevitable impurities, wherein the C content and the Si content fall within a composition range defined by a line sequentially joining respective points of point A (2.7%, 3.5%), point B (3.2%, 2.0%), point C (4.3%, 2.0%), and point D (3.8%, 3.5%) indicated by (the C content and the Si content) in a graph illustrating the relation between the C content and the Si content, wherein the nodular graphite cast iron for pistons is a pearlite-based nodular graphite cast iron that has a ratio of a pearlite structure greater than 50% in a base structure of the nodular graphite cast iron excluding a graphite structure, and wherein a graphite spheroidizing ratio in the nodular graphite cast iron is 80% or more, wherein the spheroidizing ratio is calculated in conformity with JIS G5502.
Epilamization method of at least one part of a substrate surface comprising the steps of: a) preparing an epilame agent, b) optionally, preparing the substrate surface, c) placing the substrate and the epilame agent in a chamber at ambient pressure, d) introducing CO 2 into the hermetically sealed chamber at a pressure comprised between 25 bar and 74 bar, preferably between 45 bar and 70 bar, and more preferably between 50 bar and 60 bar, and at a temperature comprised between 10°C and 80°C, and preferably between 25°C and 60°C, and more preferably between 30°C and 50°C, for a duration comprised between 1 minute and 30 minutes, preferably between 1 minute and 20 minutes, and more preferably between 3 minutes and 15 minutes, e) reducing the pressure in the chamber, and f) removing the epilamized substrate from the chamber, the method being characterized in that the epilame agent is in the form of a solution in a solvent, the concentration thereof in the solvent/CO 2 mixture being comprised between 10 mg and 5 g per 1000 g of mixture (CO 2 +solvent), preferably between 50 mg and 1 g per 1000 g of mixture (CO 2 +solvent), more preferably between 100 mg and 500 mg per 1000 g of mixture (CO 2 +solvent). a) preparing an epilame agent, b) optionally, preparing the substrate surface, c) placing the substrate and the epilame agent in a chamber at ambient pressure, d) introducing CO 2 into the hermetically sealed chamber at a pressure comprised between 25 bar and 74 bar, preferably between 45 bar and 70 bar, and more preferably between 50 bar and 60 bar, and at a temperature comprised between 10°C and 80°C, and preferably between 25°C and 60°C, and more preferably between 30°C and 50°C, for a duration comprised between 1 minute and 30 minutes, preferably between 1 minute and 20 minutes, and more preferably between 3 minutes and 15 minutes, e) reducing the pressure in the chamber, and f) removing the epilamized substrate from the chamber,
A gas injected downflow mixer for mixing fluid in a tank or basin having a draft tube with an upper end having a fluid intake with an unobstructed lower end below the upper end forming a lower, unobstructed discharge end that is submerged in the fluid to be mixed, comprising: a propeller or impeller housed within said draft tube between said fluid intake and said discharge end; a gas source; a gas injection device attached to said unobstructed lower discharge end of said draft tube below said propeller or impeller, said gas injection device including an injector body having a lower end, injection ports below said propeller or impeller, a gas distribution manifold attached to said injector body to distribute said gas to said injection ports, at least one gas inlet port to supply said gas to said manifold from said gas source wherein said fluid in said tank or basin is mixed by said mixer; and a baffle plate is attached to said unobstructed lower end of said injector body and below said propeller or impeller configured to permit an unobstructed flow from said discharge end of said draft tube and configured to prevent short circuiting of said mixer fluid intake during mixing. a propeller or impeller housed within said draft tube between said fluid intake and said discharge end; a gas source; a gas injection device attached to said unobstructed lower discharge end of said draft tube below said propeller or impeller, said gas injection device including an injector body having a lower end, injection ports below said propeller or impeller, a gas distribution manifold attached to said injector body to distribute said gas to said injection ports, at least one gas inlet port to supply said gas to said manifold from said gas source wherein said fluid in said tank or basin is mixed by said mixer; and a baffle plate is attached to said unobstructed lower end of said injector body and below said propeller or impeller configured to permit an unobstructed flow from said discharge end of said draft tube and configured to prevent short circuiting of said mixer fluid intake during mixing.
A routing control method, wherein a network device (100, 1300) has a first routing entry and a second routing entry, an address prefix of the first routing entry is a first address prefix, an address prefix of the second routing entry is a second address prefix, a network segment to which the second address prefix belongs is a subset of a network segment to which the first address prefix belongs, a mask value in the second address prefix is greater than a mask value in the first address prefix, and the method comprises: a) obtaining, by a control module (1011, 101) of the network device, a route suppression request; b) determining, by the control module (1012, 101), the second routing entry; and c) setting, by the control module (1013, 101), a state of the second routing entry to a non-delivery state, wherein the non-delivery state is used to indicate that the second routing entry does not need to be delivered to a forwarding table; and d) before setting the state of the second routing entry to the non-delivery state, determining that the first routing entry is in a delivery state in an active state; and e) delivering the first routing entry to the forwarding table after setting the state of the second routing entry to the non-delivery state. a) obtaining, by a control module (1011, 101) of the network device, a route suppression request; b) determining, by the control module (1012, 101), the second routing entry; and c) setting, by the control module (1013, 101), a state of the second routing entry to a non-delivery state, wherein the non-delivery state is used to indicate that the second routing entry does not need to be delivered to a forwarding table; and d) before setting the state of the second routing entry to the non-delivery state, determining that the first routing entry is in a delivery state in an active state; and e) delivering the first routing entry to the forwarding table after setting the state of the second routing entry to the non-delivery state.
Memory card reader body with an overall rectangular parallelepiped shape comprising a slot for inserting a memory card, the reader body comprising, on a rear face, a housing for receiving a memory card connector, said housing for receiving having a predetermined volume shape, characterized in that the memory card reader body comprises, on the rear face of the reader body, at least one protective conductive track in proximity to a contact zone of pins of the memory card connector, said tracking covering at least one surface appreciably equivalent to a volume of a free space of said memory card reader body.
A method of identifying a component by a response to a challenge, the component comprising an array of bipolar transistors each having a base contact, and each having main contacts being a collector contact and an emitter contact, and being connected in parallel, so as to have a common collector contact, a common emitter contact and a common base contact, the method comprising: receiving the challenge, the challenge comprising a value representative of the total main current; in response to the challenge, supplying a total main contact current to one of the common main contacts by increasing a current supplied to the respective common main contact from a first level to a second level; characterized in that the method further comprises: detecting an onset of electro-thermal instability in a group of the transistors of the array of bipolar transistor; and determining a response in dependence on the group, the response comprising a sequence of transistors corresponding to the group of transistors which have undergone thermal instability or a sequence of common main contact currents at the respective onsets of thermal instability. receiving the challenge, the challenge comprising a value representative of the total main current; in response to the challenge, supplying a total main contact current to one of the common main contacts by increasing a current supplied to the respective common main contact from a first level to a second level; characterized in that the method further comprises: detecting an onset of electro-thermal instability in a group of the transistors of the array of bipolar transistor; and determining a response in dependence on the group, the response comprising a sequence of transistors corresponding to the group of transistors which have undergone thermal instability or a sequence of common main contact currents at the respective onsets of thermal instability. detecting an onset of electro-thermal instability in a group of the transistors of the array of bipolar transistor; and determining a response in dependence on the group, the response comprising a sequence of transistors corresponding to the group of transistors which have undergone thermal instability or a sequence of common main contact currents at the respective onsets of thermal instability.
A pet dental chew, comprising: a body having a predetermined size insertable to a pet's mouth; a plurality of upper core units formed on one side of the body; a plurality of lower core units formed on the other side of the body and arranged in a pattern oblique to the plurality of the upper core units; and a plurality of air holes formed in the body between the one side and the other side, characterized in that the body is made of material ingestible for a pet. a body having a predetermined size insertable to a pet's mouth; a plurality of upper core units formed on one side of the body; a plurality of lower core units formed on the other side of the body and arranged in a pattern oblique to the plurality of the upper core units; and a plurality of air holes formed in the body between the one side and the other side, characterized in that the body is made of material ingestible for a pet.
A ski boot shell, comprising a notch in the rear upper portion thereof and a rear bearing element movably connected relative to the shell, the shell being characterized in that the rear bearing element is capable of occupying a first position in which it abuts against at least one surface of the shell to at least partially close the notch and favors skiing, and a second position withdrawn backward to allow the leg of a skier to be straightened in a walking phase.