mhurhangee/patent-ind-claim-en huggingface dataset:
Vertical take-off and landing aircraft , comprising: a fuselage for transporting passengers and/or load; a front wing attached to the fuselage ; an aft wing attached to the fuselage , behind the front wing in a direction of forward flight (FF); a right connecting beam and a left connecting beam , which connecting beams structurally connect the front wing and the aft wing , which connecting beams are spaced apart from the fuselage ; and at least three propulsion units on each one of the connecting beams , which propulsion units comprise at least one propeller and at least one motor driving said propeller , preferably an electric motor, and are arranged with their respective propeller axis in a vertical orientation (z); the at least three propulsion units being arranged behind each other in direction of forward flight (FF) at different heights (z), wherein among said at least three propulsion units a propulsion unit located more toward a rear of the aircraft is located higher in a direction along the vertical or yaw axis (z) of the aircraft ; characterized in that the propellers on each side are located at different heights (z), wherein a respective height (z) increases from front to rear along the vertical or yaw axis (z) of the aircraft . a fuselage for transporting passengers and/or load; a front wing attached to the fuselage ; an aft wing attached to the fuselage , behind the front wing in a direction of forward flight (FF); a right connecting beam and a left connecting beam , which connecting beams structurally connect the front wing and the aft wing , which connecting beams are spaced apart from the fuselage ; and at least three propulsion units on each one of the connecting beams , which propulsion units comprise at least one propeller and at least one motor driving said propeller , preferably an electric motor, and are arranged with their respective propeller axis in a vertical orientation (z); the at least three propulsion units being arranged behind each other in direction of forward flight (FF) at different heights (z), wherein among said at least three propulsion units a propulsion unit located more toward a rear of the aircraft is located higher in a direction along the vertical or yaw axis (z) of the aircraft ; characterized in that the propellers on each side are located at different heights (z), wherein a respective height (z) increases from front to rear along the vertical or yaw axis (z) of the aircraft .
Electrical battery comprising: a plurality of battery cells , each comprising an anode and a cathode , wherein a thin film comprising at least one temperature control device is arranged between the battery cells , characterized in that the thin film comprises a plurality of anode contacts adapted to electrically contact the anodes of the battery cells , comprises a plurality of cathode contacts adapted to electrically contact the cathodes of the battery cells , is adapted to ensure an electrical contact simultaneously between the anode contacts and the anodes , and between the cathode contacts and the cathodes , wherein the thin film comprises a plurality of layers comprising at least a first layer comprising an electrically conductive portion and a second layer comprising an electrically conductive portion and is placed in a meandering pattern between the battery cells , whereas a straight section of the meandering pattern is placed between two successive battery cells and whereas the bent section of the meandering pattern ensures an electrical contact with each of two specific collecting faces of the battery cells , and that the temperature control device comprises at least one Peltier element integrated in the straight section of the meandering pattern of the thin film , wherein the thin film comprises at least one electrical circuit to address the one or more Peltier elements . a plurality of battery cells , each comprising an anode and a cathode , wherein a thin film comprising at least one temperature control device is arranged between the battery cells , characterized in that the thin film comprises a plurality of anode contacts adapted to electrically contact the anodes of the battery cells , comprises a plurality of cathode contacts adapted to electrically contact the cathodes of the battery cells , is adapted to ensure an electrical contact simultaneously between the anode contacts and the anodes , and between the cathode contacts and the cathodes , comprises a plurality of anode contacts adapted to electrically contact the anodes of the battery cells , comprises a plurality of cathode contacts adapted to electrically contact the cathodes of the battery cells , is adapted to ensure an electrical contact simultaneously between the anode contacts and the anodes , and between the cathode contacts and the cathodes , wherein the thin film comprises a plurality of layers comprising at least a first layer comprising an electrically conductive portion and a second layer comprising an electrically conductive portion and is placed in a meandering pattern between the battery cells , whereas a straight section of the meandering pattern is placed between two successive battery cells and whereas the bent section of the meandering pattern ensures an electrical contact with each of two specific collecting faces of the battery cells , and that the temperature control device comprises at least one Peltier element integrated in the straight section of the meandering pattern of the thin film , wherein the thin film comprises at least one electrical circuit to address the one or more Peltier elements .
An electronic device comprising: a touch device ; a pressure device ; and at least one processor , wherein the touch device comprises a touch panel and the pressure device comprises a pressure panel and wherein the touch panel and the pressure panel overlap, wherein the at least one processor is configured to, if a pressure input is detected by the pressure device , process an event corresponding to the pressure input and determine if a touch input is detected by the touch device while the pressure input is detected; and wherein the at least one processor is configured to, if the touch input is detected while the pressure input is detected: match the pressure input and the touch input based on the closest distance between a coordinate of the pressure input and a coordinate of the touch input; update the event to correspond to a pressure strength of the matched pressure input and the touch coordinate of the touch input; and process the updated event. a touch device ; a pressure device ; and at least one processor , wherein the touch device comprises a touch panel and the pressure device comprises a pressure panel and wherein the touch panel and the pressure panel overlap, wherein the at least one processor is configured to, if a pressure input is detected by the pressure device , process an event corresponding to the pressure input and determine if a touch input is detected by the touch device while the pressure input is detected; and wherein the at least one processor is configured to, if the touch input is detected while the pressure input is detected: match the pressure input and the touch input based on the closest distance between a coordinate of the pressure input and a coordinate of the touch input; update the event to correspond to a pressure strength of the matched pressure input and the touch coordinate of the touch input; and process the updated event. match the pressure input and the touch input based on the closest distance between a coordinate of the pressure input and a coordinate of the touch input; update the event to correspond to a pressure strength of the matched pressure input and the touch coordinate of the touch input; and process the updated event.
A method of operating a computer system, comprising: • within an image of a canister, identifying a reference marker on the canister (S110); • selecting an area of the image based on the reference marker (S120); • receiving an entry of a fluid level within the canister (S140); • estimating a volume of fluid within the canister based on the fluid level (S140); • extracting a colour intensity from the selected area of the image (S150); • correlating the extracted colour intensity with a concentration of a blood component within the canister (S160); and • estimating a quantity of the blood component within the canister based on the estimated volume of fluid in the canister and the concentration of the blood component within the canister (S170). • within an image of a canister, identifying a reference marker on the canister (S110); • selecting an area of the image based on the reference marker (S120); • receiving an entry of a fluid level within the canister (S140); • estimating a volume of fluid within the canister based on the fluid level (S140); • extracting a colour intensity from the selected area of the image (S150); • correlating the extracted colour intensity with a concentration of a blood component within the canister (S160); and • estimating a quantity of the blood component within the canister based on the estimated volume of fluid in the canister and the concentration of the blood component within the canister (S170).
A method for the tamper-proof storing of data in an electronic memory using a bidirectionally linked blockchain structure which comprises at least a first and a last block , wherein the method comprises the steps of: • providing a bidirectionally linked blockchain structure , • providing the data to be stored, • generating an additional block to extend the blockchain structure , which block comprises the data to be stored and is intended to be bidirectionally linked to the last block of the blockchain structure , wherein the last block of the blockchain structure comprises stored data , • calculating a first check value of the last block for bidirectionally linking the additional block to the last block of the blockchain structure , wherein the first check value of the last block is calculated using a first hash value, the calculation of which comprises applying a hash function to the data stored in the last block and the data to be stored in the additional block , • calculating a check value of the additional block for bidirectionally linking the additional block to the last block of the blockchain structure , wherein the check value of the additional block is calculated using a second hash value, the calculation of which comprises applying the hash function to the data stored in the last block and the data to be stored in the additional block , • adding the first check value of the last block to the last block , • adding the check value of the additional block to the additional block , • storing the blockchain structure extended by the additional block . • providing a bidirectionally linked blockchain structure , • providing the data to be stored, • generating an additional block to extend the blockchain structure , which block comprises the data to be stored and is intended to be bidirectionally linked to the last block of the blockchain structure , wherein the last block of the blockchain structure comprises stored data , • calculating a first check value of the last block for bidirectionally linking the additional block to the last block of the blockchain structure , wherein the first check value of the last block is calculated using a first hash value, the calculation of which comprises applying a hash function to the data stored in the last block and the data to be stored in the additional block , • calculating a check value of the additional block for bidirectionally linking the additional block to the last block of the blockchain structure , wherein the check value of the additional block is calculated using a second hash value, the calculation of which comprises applying the hash function to the data stored in the last block and the data to be stored in the additional block , • adding the first check value of the last block to the last block , • adding the check value of the additional block to the additional block , • storing the blockchain structure extended by the additional block .
Multilayer surface covering comprising at least one layer obtained from a filler-containing PVC plastisol, comprising PVC, a filler and a plasticizer composition, and at least one layer obtained from a filler-free PVC plastisol, comprising PVC and a plasticizer composition, characterized in that the plasticizer composition in the filler-containing PVC plastisol and in the filler-free PVC plastisol respectively contains bis(2-ethylhexyl) cyclohexane-1,4-dicarboxylate.
A compound of the formula (I) wherein X is -O(CO)-; R 1 is C 1 -C 12 haloalkyl or C 6 -C 10 haloaryl; R 2 is located in position 7 of the coumarinyl ring and is OR 8 ; R 2 a, R 2 b and R 2 c independently of each other are hydrogen; R 3 is C 1 -C 8 haloalkyl or C 1 -C 8 alkyl; R 4 is hydrogen; and R 8 is C 1 -C 6 alkyl. X is -O(CO)-; R 1 is C 1 -C 12 haloalkyl or C 6 -C 10 haloaryl; R 2 is located in position 7 of the coumarinyl ring and is OR 8 ; R 2 a, R 2 b and R 2 c independently of each other are hydrogen; R 3 is C 1 -C 8 haloalkyl or C 1 -C 8 alkyl; R 4 is hydrogen; and R 8 is C 1 -C 6 alkyl.
A method for storing thermal energy within a thermal energy storage device comprising: - a container including a heat storage material and defining a main fluid pathway along a longitudinal direction (X) extending between a first longitudinal end and a second longitudinal end of the container , - an inlet connected to the first longitudinal end and including a plurality of inlet channels distributed along a direction orthogonal to the longitudinal direction (X), - an outlet connected to the second longitudinal end and including a plurality of outlet channels distributed along a direction orthogonal to the longitudinal direction (X), wherein each of the inlet and outlet channels has a respective actively controlled valve , the longitudinal direction (X) being horizontally oriented, characterized in that the method comprises the steps of: - opening the plurality of inlet and outlet channels closer to a bottom of the container , - closing at least one inlet channel closer to a top of the container , - charging the thermal energy storage device by letting a hot working fluid flow from the inlet to the outlet , - closing at least one outlet channel closer to a top of the container , before or after said charging step. - a container including a heat storage material and defining a main fluid pathway along a longitudinal direction (X) extending between a first longitudinal end and a second longitudinal end of the container , - an inlet connected to the first longitudinal end and including a plurality of inlet channels distributed along a direction orthogonal to the longitudinal direction (X), - an outlet connected to the second longitudinal end and including a plurality of outlet channels distributed along a direction orthogonal to the longitudinal direction (X), - opening the plurality of inlet and outlet channels closer to a bottom of the container , - closing at least one inlet channel closer to a top of the container , - charging the thermal energy storage device by letting a hot working fluid flow from the inlet to the outlet , - closing at least one outlet channel closer to a top of the container , before or after said charging step.
A shredding assembly for a grinder pump, comprising a stationary shredding ring configured for being mounted to an inlet of the pump, and a cutting device for rotating about an axial direction (A) and configured for being fixed to a shaft of the pump, wherein the shredding ring comprises a top face , a bottom face , and a central opening extending from the top face to the bottom face and being delimited in a radial direction by an inner periphery , wherein a plurality of slots extending in the axial direction (A) is formed in the inner periphery , wherein the cutting device is positioned in the central opening of the shredding ring , and comprises a front face and a back face , wherein the front face comprises a plurality of first cutting members extending in the axial direction (A) and facing the slots in the inner periphery , and wherein the back face of the cutting device comprises at least one second cutting member , with the second cutting member projecting beyond the central opening with respect to the radial direction, characterized in that the back face of the cutting device comprises exactly two second cutting members with the two second cutting members being arranged diametrically opposite at an outer periphery of the cutting device .
A solar cell panel, comprising: a plurality of solar cells each including a semiconductor substrate and an electrode formed on the semiconductor substrate; and a plurality of wires connected to the electrode for interconnecting the plurality of solar cells, wherein the electrode includes a pad portion and a line portion for attachment of the wire , wherein the wire includes a first wire portion connected to the pad portion, and a second wire portion connected to the line portion , characterized in that the first wire portion has a thickness greater than a thickness of the second wire portion , and the first wire portion has a width greater than a width of the second wire portion . a plurality of solar cells each including a semiconductor substrate and an electrode formed on the semiconductor substrate; and a plurality of wires connected to the electrode for interconnecting the plurality of solar cells, wherein the electrode includes a pad portion and a line portion for attachment of the wire , wherein the wire includes a first wire portion connected to the pad portion, and a second wire portion connected to the line portion , characterized in that the first wire portion has a thickness greater than a thickness of the second wire portion , and the first wire portion has a width greater than a width of the second wire portion .
Method for fabricating a composite timepiece or jewellery component comprising at least one decoration affixed to a substrate which has at least one apparent surface intended to remain visible, said method comprising the following operations in this order: - in an initial operation , making a base in a substrate which has at least one apparent surface intended to remain visible; - in a first polishing operation , mirror polishing each said apparent surface intended to be seen by the user; - performing a first coating operation wherein each said polished apparent surface comprised in said base is coated with a deposition of a first transparent or coloured semi-transparent layer of a first material in a dry process, or PVD or CVD or ALD process, or lacquering or zapon varnish process. - performing a first transfer operation of affixing and bonding at least one decorative element on a first external surface comprised in said first layer ; - performing a second coating operation wherein said first layer and each said decorative element carried by said first layer is coated with a deposition of a second layer of a transparent treatment material in a dry process, or PVD or CVD or ALD process, or lacquering or zapon varnish process, said method for fabricating being characterized in that when said initial operation , at least one apparent surface is made with a warped surface having a particular curved shape, and in that , before performing said first transfer operation , a warped sacrificial support is made, which corresponds to said particular curved shape on which at least one said decorative element is affixed with an adhesive fastening. - in an initial operation , making a base in a substrate which has at least one apparent surface intended to remain visible; - in a first polishing operation , mirror polishing each said apparent surface intended to be seen by the user; - performing a first coating operation wherein each said polished apparent surface comprised in said base is coated with a deposition of a first transparent or coloured semi-transparent layer of a first material in a dry process, or PVD or CVD or ALD process, or lacquering or zapon varnish process. - performing a first transfer operation of affixing and bonding at least one decorative element on a first external surface comprised in said first layer ; - performing a second coating operation wherein said first layer and each said decorative element carried by said first layer is coated with a deposition of a second layer of a transparent treatment material in a dry process, or PVD or CVD or ALD process, or lacquering or zapon varnish process, said method for fabricating being characterized in that when said initial operation , at least one apparent surface is made with a warped surface having a particular curved shape, and in that , before performing said first transfer operation , a warped sacrificial support is made, which corresponds to said particular curved shape on which at least one said decorative element is affixed with an adhesive fastening.
A salt of a cyclohexane derivative N'-[trans-4-[2-[4-(benzo[b]thiophen-7-yl)piperazin-1-yl]ethyl]cyclohexyl]-N,N-dimethyl urea of Formula I, wherein the salt comprises an anion, and the anion is a maleate ion,
A method for determining a hemodynamic parameter, the method comprising: receiving data associated with at least one heart beat; calculating a first standard deviation for the data; determining, using a computing device processor, a polynomial function that fits the first standard deviation, the polynomial function being associated with at least one polynomial coefficient; characterised in that the method further comprises calculating a second standard deviation by subtracting the polynomial function from the first standard deviation; and determining, using a computing device processor, the hemodynamic parameter based on the first standard deviation and the second standard deviation. receiving data associated with at least one heart beat; calculating a first standard deviation for the data; determining, using a computing device processor, a polynomial function that fits the first standard deviation, the polynomial function being associated with at least one polynomial coefficient; characterised in that the method further comprises calculating a second standard deviation by subtracting the polynomial function from the first standard deviation; and determining, using a computing device processor, the hemodynamic parameter based on the first standard deviation and the second standard deviation.
Method of producing an assembly consisting of at least two components , made of a flat material, for example of sheet steel, which are clamped to each other at a predetermined distance (H) by using a clamping nut , which abuts a first component on its outer side facing away from a second component , as well as by using a clamping bolt which engages in the clamping nut and abuts the second component on its outer surface facing away from the first component , as well as by using an adjustable spacer between the two components formed by a threaded sleeve and a drum nut , wherein before screwing in or while screwing in the threaded bolt , which passes through the drum nut and the threaded sleeve , into the clamping nut , while initially also turning the drum nut , the distance (H) between the components is adjusted and then during further screwing in of the clamping bolt into the clamping nut the two components are clamped to each other, wherein the clamping nut and the threaded sleeve are formed by separate components, characterised in that the clamping nut and the threaded sleeve are fixed on the first component, in that a rivet collar provided on a front side of the clamping nut is inserted through a joint opening of the first component into the threaded sleeve and is then permanently deformed into a rivet collar (11.1) engaging behind an undercut of the threaded sleeve . characterised in that the clamping nut and the threaded sleeve are fixed on the first component, in that a rivet collar provided on a front side of the clamping nut is inserted through a joint opening of the first component into the threaded sleeve and is then permanently deformed into a rivet collar (11.1) engaging behind an undercut of the threaded sleeve .