mhurhangee/patent-ind-claim-en huggingface dataset:
A method of analysing an aircraft being located in an inspection area by means of at least one drone comprising at least one sensor adapted to a analyse the surface of said aircraft , the method comprising the steps of: - bringing said at least one drone in said inspection area ; - making a first scan of at least one part of said aircraft ; - processing said first scan in order to determine automatically an inspection path for said at least one drone , said processing comprising: - determining the type of said aircraft , - accessing a database (A_DB) in order to obtain characteristic data for said type of said aircraft ; and - determining said inspection path as a function of said characteristic data for said type of said aircraft ; and - making by means of said at least one drone a second scan following said inspection path and simultaneously analysing the surface of said aircraft by means of said at least one sensor ; characterized in that said database (A_DB) comprises a three-dimensional model of said aircraft divided into a plurality of areas, where associated to each area is an index indicating whether the respective area is to be analysed or a forbidden area. - bringing said at least one drone in said inspection area ; - making a first scan of at least one part of said aircraft ; - processing said first scan in order to determine automatically an inspection path for said at least one drone , said processing comprising: - determining the type of said aircraft , - accessing a database (A_DB) in order to obtain characteristic data for said type of said aircraft ; and - determining said inspection path as a function of said characteristic data for said type of said aircraft ; and - determining the type of said aircraft , - accessing a database (A_DB) in order to obtain characteristic data for said type of said aircraft ; and - determining said inspection path as a function of said characteristic data for said type of said aircraft ; and - making by means of said at least one drone a second scan following said inspection path and simultaneously analysing the surface of said aircraft by means of said at least one sensor ;
A cationic electrodeposition paint composition comprising a cationic base-containing resin (A), a blocked polyisocyanate compound (B), and a modified imidazole (C) represented by the following Formula : wherein R 1 , R 2 , R 3 , and R 4 may be identical or different, and each represents hydrogen or an organic group containing one or more carbon atoms, wherein the organic group may contain at least one member selected from the group consisting of oxygen, nitrogen, sulfur, and halogen, and two or more of R 1 , R 2 , R 3 , and R 4 taken together may form a ring structure; and X represents oxygen or nitrogen, and when X represents oxygen, Y is absent and n is 1, and when X represents nitrogen, Y represents an organic group and n is an integer of 1 or more, wherein the solids content of component (A) is 50 to 90 parts by mass and the solids content of component (B) is 10 to 50 parts by mass based on 100 parts by mass of the total resin solids content of the components (A) and (B), and the proportion of the modified imidazole (C) is 0.01 to 10 mass% based on the total resin solids content of the cationic electrodeposition paint composition. wherein R 1 , R 2 , R 3 , and R 4 may be identical or different, and each represents hydrogen or an organic group containing one or more carbon atoms, wherein the organic group may contain at least one member selected from the group consisting of oxygen, nitrogen, sulfur, and halogen, and two or more of R 1 , R 2 , R 3 , and R 4 taken together may form a ring structure; and X represents oxygen or nitrogen, and when X represents oxygen, Y is absent and n is 1, and when X represents nitrogen, Y represents an organic group and n is an integer of 1 or more, wherein the solids content of component (A) is 50 to 90 parts by mass and the solids content of component (B) is 10 to 50 parts by mass based on 100 parts by mass of the total resin solids content of the components (A) and (B), and the proportion of the modified imidazole (C) is 0.01 to 10 mass% based on the total resin solids content of the cationic electrodeposition paint composition.
Method for navigating a mobile robot unit by means of a lighting device containing a lamp and an operating device for operating this lamp, at least one optical sensor for capturing sensor data/environmental data, and a processing device which has an image recognition system which is designed to provide the sensor data/environmental data for a mobile robot unit , as well as a mobile robot unit which is not mechanically connected to the lighting device , the method comprising the following steps: - capturing the environment by means of the sensor which is designed to capture the environment - transmitting the captured sensor data/environmental data to the processing device - analyzing the sensor data/environmental data by the processing device , which is designed to calculate a permitted region of movement for the mobile robot unit by detecting obstacles and/or objects which are moving - transmitting the permitted movement areas via wireless standards, such as WLAN, Bluetooth, ZigBee, etc., to the mobile robot unit - bypassing obstacles and/or objects which are moving, based on the permitted movement area, by the mobile robot unit . - capturing the environment by means of the sensor which is designed to capture the environment - transmitting the captured sensor data/environmental data to the processing device - analyzing the sensor data/environmental data by the processing device , which is designed to calculate a permitted region of movement for the mobile robot unit by detecting obstacles and/or objects which are moving - transmitting the permitted movement areas via wireless standards, such as WLAN, Bluetooth, ZigBee, etc., to the mobile robot unit - bypassing obstacles and/or objects which are moving, based on the permitted movement area, by the mobile robot unit .
A method for determining a bonding connection in a component arrangement , wherein the method comprises the following steps: - producing a bonding connection between a bonding section of a bonding wire and a metal contact point , - structuring a top-side surface of the bonding wire in the region of the bonding section , wherein a structuring of the top-side surface is created thereby which is produced in addition to a surface modification which may occur at random or as a result of the production process, and which is different from this surface modification, and - determining the bonding connection , wherein in this process - a test voltage is applied to the bonding wire and the bonding connection , so that the bonding connection heats up as a result of the current flow, - generating a thermographic image for the heated bonding connection and - determining whether the bonding connection was produced correctly by performing an evaluation of the thermographic image using digital image analysis and as part of this process searching for characteristic image patterns that correspond to the structuring of the top-side surface of the bonding wire , and subsequently evaluating the characteristic image patterns to determine the correctness of the bonding connection . - producing a bonding connection between a bonding section of a bonding wire and a metal contact point , - structuring a top-side surface of the bonding wire in the region of the bonding section , wherein a structuring of the top-side surface is created thereby which is produced in addition to a surface modification which may occur at random or as a result of the production process, and which is different from this surface modification, and - determining the bonding connection , wherein in this process - a test voltage is applied to the bonding wire and the bonding connection , so that the bonding connection heats up as a result of the current flow, - generating a thermographic image for the heated bonding connection and - determining whether the bonding connection was produced correctly by performing an evaluation of the thermographic image using digital image analysis and as part of this process searching for characteristic image patterns that correspond to the structuring of the top-side surface of the bonding wire , and subsequently evaluating the characteristic image patterns to determine the correctness of the bonding connection . - a test voltage is applied to the bonding wire and the bonding connection , so that the bonding connection heats up as a result of the current flow, - generating a thermographic image for the heated bonding connection and - determining whether the bonding connection was produced correctly by performing an evaluation of the thermographic image using digital image analysis and as part of this process searching for characteristic image patterns that correspond to the structuring of the top-side surface of the bonding wire , and subsequently evaluating the characteristic image patterns to determine the correctness of the bonding connection .
An axial flow rotor for use in water and comprising at least one blade , the axial flow rotor being a propeller, the blade having a suction surface and a pressure surface which extend from a leading edge to a trailing edge of the blade and a radially-outer tip region, wherein: ten to fifty duct openings per blade are provided extending through the at least one blade from the pressure surface to the suction surface, the duct openings being grouped in the tip region of the blade ; the duct openings are grouped into two to five radially-spaced, chordally-extending rows; the duct openings are grouped spaced from the leading edge of the blade , in the chordally leading two-thirds of the blade ; and the duct openings are grouped in the radially-outer third of the blade . ten to fifty duct openings per blade are provided extending through the at least one blade from the pressure surface to the suction surface, the duct openings being grouped in the tip region of the blade ; the duct openings are grouped into two to five radially-spaced, chordally-extending rows; the duct openings are grouped spaced from the leading edge of the blade , in the chordally leading two-thirds of the blade ; and the duct openings are grouped in the radially-outer third of the blade .
A combined electric tool, comprising at least one main body and at least one working part which may be separated or connected, wherein a separable and connectable transmission device is arranged therebetween, the main body is provided therein with an electric motor and a control circuit , the control circuit comprises a signal recognition module comprising a microcontroller , the working part is provided therein with an identification module, and the signal recognition module and the identification module (q, n, o, p) are electrically connected, such that the microcontroller can recognize the working part , wherein the identification module comprises a plurality of interfaces (q, n, o, p) at least one of which is a common interface (p), and when the main body and the working part are connected, the common interface (p) is electrically connected with the control circuit , characterised in that the number of the interfaces is set according to the number of the working parts.
A steerable medical device comprising: an outer sheath and an inner sheath disposed within the outer sheath, wherein the inner sheath includes a first tubular element ; a steerable portion adapted to be steered, wherein the outer and inner sheaths are axially fixed relative to one another at a first location distal to the steerable portion; a handle portion that includes a rotatable control knob and handle grip , wherein the rotation of the rotatable control knob relative to the handle grip causes axial motion of the inner sheath relative to the outer sheath and results in steering of the steerable portion; and a tensioning element disposed radially between the inner and outer sheaths along the steerable portion, the tensioning element being secured to the inner sheath proximal to the steerable portion and to both the inner sheath and the outer sheath at the first location; and, wherein along the steerable portion the first tubular element includes a first section of a first material with a first durometer and a second section of a second material with a second durometer different than the first durometer, wherein the first and second sections are disposed at different circumferential portions of the first tubular element . an outer sheath and an inner sheath disposed within the outer sheath, wherein the inner sheath includes a first tubular element ; a steerable portion adapted to be steered, wherein the outer and inner sheaths are axially fixed relative to one another at a first location distal to the steerable portion; a handle portion that includes a rotatable control knob and handle grip , wherein the rotation of the rotatable control knob relative to the handle grip causes axial motion of the inner sheath relative to the outer sheath and results in steering of the steerable portion; and a tensioning element disposed radially between the inner and outer sheaths along the steerable portion, the tensioning element being secured to the inner sheath proximal to the steerable portion and to both the inner sheath and the outer sheath at the first location; and, wherein along the steerable portion the first tubular element includes a first section of a first material with a first durometer and a second section of a second material with a second durometer different than the first durometer, wherein the first and second sections are disposed at different circumferential portions of the first tubular element .
A breaker valve assembly for a nuclear reactor containment, the breaker valve assembly comprising: a valve body having a generally frustoconical shape, the valve body including, a first side wall defining a chamber, a first opening in a top portion of the first side wall, and a second opening in a bottom portion of the first side wall; a valve insert body nested in the valve body, the valve insert body having a generally frustoconical shape, the valve insert body including, a second side wall defining a second chamber , and a third opening in a bottom portion of the second side wall, the second opening aligning with the third opening of the valve insert body ; and a lid arranged on an upper edge of the second side wall of the valve insert body , the valve insert body configured to move substantially vertically with respect to the valve body when pressure is applied to the lid. a valve body having a generally frustoconical shape, the valve body including, a first side wall defining a chamber, a first opening in a top portion of the first side wall, and a second opening in a bottom portion of the first side wall; a first side wall defining a chamber, a first opening in a top portion of the first side wall, and a second opening in a bottom portion of the first side wall; a valve insert body nested in the valve body, the valve insert body having a generally frustoconical shape, the valve insert body including, a second side wall defining a second chamber , and a third opening in a bottom portion of the second side wall, the second opening aligning with the third opening of the valve insert body ; and a second side wall defining a second chamber , and a third opening in a bottom portion of the second side wall, the second opening aligning with the third opening of the valve insert body ; and a lid arranged on an upper edge of the second side wall of the valve insert body , the valve insert body configured to move substantially vertically with respect to the valve body when pressure is applied to the lid.
A coffee machine for wirelessly driving a coffee cup holder to rotate, comprising a machine body and a coffee cup holder assembly ; the machine body is physically separated from the coffee cup holder assembly ; the coffee cup holder assembly comprises a base , a cup holder , a driving motor and a motor driving circuit, wherein the base is internally provided with a driving motor , and the output shaft of the driving motor is sleeved with the cup holder ; the upper part of the machine body is provided with a support , the support is provided with a sprinkler head , the sprinkler head is provided above the cup holder , and the height difference between the sprinkler head and the cup holder is capable of accommodating a coffee cup in which a coffee filter cup is placed; the machine body is provided with a first control circuit and a charging coil , the first control circuit controls the charging coil to be powered on, and the charging coil is installed on the side close to the coffee cup holder assembly ; the coffee cup holder assembly is provided with a power receiving coil , the installation position of the power receiving coil corresponds to that of the charging coil , and the output end of the power receiving coil is connected with the motor driving circuit; a second control circuit is provided in the coffee cup holder assembly , the second control circuit is adapted to wirelessly exchange data with the first control circuit; and the second control circuit is adapted to control rotation of the driving motor by controlling the motor driving circuit; a coffee filter cup is placed on the coffee cup , the coffee cup is placed on the cup holder , and the sprinkler head is located above the coffee filter cup ; the motor driving circuit controls the operation of the motor to drive the cup holder to rotate and drive the coffee cup and the coffee filter cup on the coffee cup to rotate, and the coffee liquid in the coffee filter cup after spraying is naturally filtered out into the coffee cup by gravity. a second control circuit is provided in the coffee cup holder assembly , the second control circuit is adapted to wirelessly exchange data with the first control circuit; and the second control circuit is adapted to control rotation of the driving motor by controlling the motor driving circuit; a coffee filter cup is placed on the coffee cup , the coffee cup is placed on the cup holder , and the sprinkler head is located above the coffee filter cup ; the motor driving circuit controls the operation of the motor to drive the cup holder to rotate and drive the coffee cup and the coffee filter cup on the coffee cup to rotate, and the coffee liquid in the coffee filter cup after spraying is naturally filtered out into the coffee cup by gravity.
A vibrating inclined plate box settlement separator consisting of: an upper box and a lower tapered hopper ; wherein the upper box and the lowered tapered hopper are connected securely to each other and sealed; the upper box is comprising a rectangular or square steel-structured box with supporting platforms (1-1) on its left and right sides; a plurality of spring assemblies are located on the supporting platforms (1-1); a feed box is located on a side of the top or inside the upper box ; an overflow collect chute is welded on a side of the box opposite to the feed box ; and a plurality of inclined box modules mounted on the spring assemblies , wherein the inclined plate box modules and the overflow collect chute are connected with a rubber tube ; the lower tapered hopper being either square, rectangular square, or square round-and being placed securely on the steel-structured bracket reinforced concrete framework and comprising at its bottom a tapered hopper lined with wear-resistant rubber or coated with polyurethane characterized in that the inclined plate box modules have a plurality of inclined plate boxes (4-2) inserted into a parallelogram frame (4-1) with angles ranged from 30° to 70° between the sloped side (4-1-1) of the parallelogram frame and ground level; wherein each inclined plate box (4-2) is a long rectangular box and its length is the same as that of the sloped side (4-1-1) of the parallelogram frame (4-1), wherein the inclined plate box comprises a top panel (4-2-1) and a bottom panel (4-2-2), both top and bottom panels consisting of tilted settlement plates, wherein at least two inner ribs (4-2-3) support the top panel (4-2-1) and the bottom panel (4-2-2) of the inclined plate box (4-2), so that each inclined plate box (4-2) has a plurality of long and narrow independent settlement channels (4-2-5); wherein a guide edge is located on each side wall (4-2-4) of each inclined plate box (4-2) and configured to prevent displacement when assembling multiple inclined plate boxes (4-2).
A device for flue gas and water separation of a medical insufflator having a suction pump for desufflation, including at least one liquid-tight housing having a first port for mechanically coupling to housing to the insufflator housing, wherein the coupling is carried out such that the orientation of the housing is fixed and that rotation about the connection axis is impossible, at least one second port for connecting at least one desufflation tube, at least one particulate filter , at least one cavity, wherein the gas flow runs from the patient through the first tube into the housing, through the cavity, and then through the particulate filter to the suction pump, wherein at least one cavity of the housing is configured as a water trap , wherein the cavity includes at least one component for additional water separation, selected from: - axial or tangential cyclone, - impact wall - gas flow deflection system for deflecting the gas flow by 90° to 180° - nozzles - adsorbent or absorbent media - vortex scrubber - wire mesh - synthetic mesh or foam. including at least one liquid-tight housing having a first port for mechanically coupling to housing to the insufflator housing, wherein the coupling is carried out such that the orientation of the housing is fixed and that rotation about the connection axis is impossible, at least one second port for connecting at least one desufflation tube, at least one particulate filter , at least one cavity, wherein the gas flow runs from the patient through the first tube into the housing, through the cavity, and then through the particulate filter to the suction pump, wherein at least one cavity of the housing is configured as a water trap , wherein the cavity includes at least one component for additional water separation, selected from: - axial or tangential cyclone, - impact wall - gas flow deflection system for deflecting the gas flow by 90° to 180° - nozzles - adsorbent or absorbent media - vortex scrubber - wire mesh - synthetic mesh or foam. - axial or tangential cyclone, - impact wall - gas flow deflection system for deflecting the gas flow by 90° to 180° - nozzles - adsorbent or absorbent media - vortex scrubber - wire mesh - synthetic mesh or foam.
Sound insulating panel for vehicle structure, in particular a sound insulating panel for vehicle tunnel , the panel comprising: - a contact surface for covering the vehicle structure; - a ground layer ; and - a spring layer for damping vibrations transmitted from the contact surface to the ground layer; further comprising positioning means formed by at least one of the layers (18; 22) of the panel and which project from the contact surface , characterized in that the positioning means are formed by the ground layer and by the spring layer . - a contact surface for covering the vehicle structure; - a ground layer ; and - a spring layer for damping vibrations transmitted from the contact surface to the ground layer;