mhurhangee/patent-ind-claim-en huggingface dataset:
Method of operation for a LIDAR sensor , having the following steps: - sending a LIDAR signal at a predetermined normal power and receiving a back-scattered component of the LIDAR signal with a predetermined normal sensitivity to ascertain the distance of objects present in the surroundings scanned by the LIDAR sensor in a normal mode, characterized by - repeated interruption of the normal mode by a test mode, wherein the test mode comprises the following steps: - sending a LIDAR signal at a test power, which is decreased by a predetermined amount in comparison with the predetermined normal power, and/or receiving the back-scattered component of the LIDAR signal with a test sensitivity, which is decreased by a predetermined amount in comparison with the predetermined normal sensitivity, and ascertaining a value for a lower limit for the maximum range of the LIDAR sensor that is available in the normal mode of the LIDAR sensor on the basis of the distance, ascertained in the normal mode, of objects that are no longer detected in the test mode. - sending a LIDAR signal at a predetermined normal power and receiving a back-scattered component of the LIDAR signal with a predetermined normal sensitivity to ascertain the distance of objects present in the surroundings scanned by the LIDAR sensor in a normal mode, characterized by - repeated interruption of the normal mode by a test mode, wherein the test mode comprises the following steps: - sending a LIDAR signal at a test power, which is decreased by a predetermined amount in comparison with the predetermined normal power, and/or receiving the back-scattered component of the LIDAR signal with a test sensitivity, which is decreased by a predetermined amount in comparison with the predetermined normal sensitivity, and ascertaining a value for a lower limit for the maximum range of the LIDAR sensor that is available in the normal mode of the LIDAR sensor on the basis of the distance, ascertained in the normal mode, of objects that are no longer detected in the test mode. - sending a LIDAR signal at a test power, which is decreased by a predetermined amount in comparison with the predetermined normal power, and/or receiving the back-scattered component of the LIDAR signal with a test sensitivity, which is decreased by a predetermined amount in comparison with the predetermined normal sensitivity, and ascertaining a value for a lower limit for the maximum range of the LIDAR sensor that is available in the normal mode of the LIDAR sensor on the basis of the distance, ascertained in the normal mode, of objects that are no longer detected in the test mode.
A method for secure latching a first body to a second body of an aerial vehicle by means of an interlock arrangement comprising a latch fitting member of a first body and a laterally moveable latch bar member of a second body , which interlock arrangement is configured for latching the first body to the second body into a closed position (Cp) whereas the laterally moveable latch bar member is configured to subsequently latch the latch fitting member in a latching position (Lp); the latch fitting member is configured to move with the first body making a first motion (M1) from an open position (Op) to the closed position (Cp); a blocking member portion of a blocking member is configured to block a stop surface of the laterally moveable laterally moveable latch bar member for blocking the laterally moveable latch bar member from making a second motion (M2) from an unlatching position (Up) into the latching position (Lp), which blocking member portion is configured to be pushed away from the stop surface by means of a pressing portion moved together with the first body during the first motion (M1), the method is characterized by the steps of: - closing the first body into the closed position (Cp); - pushing away the blocking member portion from the stop surface by means of the first motion (M1); - providing the second motion (M2) of the laterally moveable latch bar member from the unlatching position (Up) into the latching position (Lp) subsequently the blocking member portion has been pushed away from the stop surface ; and - latching the first body to the second body in a closed position (Cp) by positioning the laterally moveable latch bar member in the latching position (Lp). - closing the first body into the closed position (Cp); - pushing away the blocking member portion from the stop surface by means of the first motion (M1); - providing the second motion (M2) of the laterally moveable latch bar member from the unlatching position (Up) into the latching position (Lp) subsequently the blocking member portion has been pushed away from the stop surface ; and - latching the first body to the second body in a closed position (Cp) by positioning the laterally moveable latch bar member in the latching position (Lp).
Valve, in particular servo valve, having a valve seat which is arranged between a valve inlet and a valve outlet , and having a closure element which is arranged so as to be movable with respect to the valve seat and which has a diaphragm , a support element for supporting the diaphragm and a pressure relief device for reducing pressure peaks in the valve inlet , wherein the pressure relief device has a relief duct (6.1) which is formed so as to be closable via a sealing element (6.2) which is in the form of a ball, wherein the ball is connected to a spring element in the form of a compression spring and is pressed by the latter against a sealing seat (8.1), wherein the valve inlet has a valve inlet region (5.1) arranged in front of the diaphragm in the inflow direction and has a pressure space (5.2) arranged behind the diaphragm in the outflow direction, wherein the pressure space (5.2) is connected to a pilot control valve and the pilot control valve is connected to the valve outlet , characterized in that the ball is in the form of a rubber ball, and in that the pilot control valve is connected via a pressure line (10.1) to the pressure space (5.2) and via an outlet line (10.2) to the valve outlet , wherein the outlet line (10.2) is led around the closure element on the outside and through the valve inlet region (5.1).
An engine comprising: a plurality of cylinders provided along a crankshaft ; a gas chamber configured to extend from a first end portion toward a second end portion in a direction of an axial line of the crankshaft and to distribute gas into the plurality of cylinders ; and a heat shielding member (38; 50; 55; 56) provided in the gas chamber and configured to extend from the first end portion toward the second end portion and to shield heat radiated from an inner wall surface of the gas chamber, wherein the heat shielding member (38; 50; 55; 56) partitions an internal space of the gas chamber into a first space configured to guide the gas introduced into the gas chamber from the first end portion toward the second end portion , and a second space characterized in that the second space is configured to communicate with the first space via a gap between the heat shielding member (38; 50; 55; 56) and the inner wall surface of the gas chamber on a side close to the second end portion in the direction of the axial line of the crankshaft , and the second space is configured to distribute the gas flowing in from the first space into the plurality of cylinders while guiding the gas from the second end portion toward the first end portion . a plurality of cylinders provided along a crankshaft ; a gas chamber configured to extend from a first end portion toward a second end portion in a direction of an axial line of the crankshaft and to distribute gas into the plurality of cylinders ; and a heat shielding member (38; 50; 55; 56) provided in the gas chamber and configured to extend from the first end portion toward the second end portion and to shield heat radiated from an inner wall surface of the gas chamber, wherein the heat shielding member (38; 50; 55; 56) partitions an internal space of the gas chamber into a first space configured to guide the gas introduced into the gas chamber from the first end portion toward the second end portion , and a second space characterized in that the second space is configured to communicate with the first space via a gap between the heat shielding member (38; 50; 55; 56) and the inner wall surface of the gas chamber on a side close to the second end portion in the direction of the axial line of the crankshaft , and the second space is configured to distribute the gas flowing in from the first space into the plurality of cylinders while guiding the gas from the second end portion toward the first end portion .
A method comprising: receiving, by one or more processors of a secondary computing system from a primary computing system , a fall back trajectory from a location of a vehicle in order to safely stop the vehicle, wherein a portion of the fall back trajectory from the location of the vehicle to a divergent location is identical to a portion of a nominal trajectory from the location of the vehicle to the divergent location, the nominal trajectory allows the vehicle to achieve a mission goal, and the nominal trajectory and the fall back trajectory diverge after the divergent location; controlling, by the one or more processors of the secondary computing system, the vehicle according to the portion of the fall back trajectory in order to achieve the mission goal; waiting, by the one or more processors of the secondary computing system, for an updated trajectory from the primary computing system while controlling the vehicle; and when an updated trajectory has not been received by the one or more processors of the secondary computing system and the vehicle reaches a threshold point on the fall back trajectory, continuing, by the one or more processors of the secondary computing system, to control the vehicle according to the fall back trajectory in order to safely stop the vehicle. receiving, by one or more processors of a secondary computing system from a primary computing system , a fall back trajectory from a location of a vehicle in order to safely stop the vehicle, wherein a portion of the fall back trajectory from the location of the vehicle to a divergent location is identical to a portion of a nominal trajectory from the location of the vehicle to the divergent location, the nominal trajectory allows the vehicle to achieve a mission goal, and the nominal trajectory and the fall back trajectory diverge after the divergent location; controlling, by the one or more processors of the secondary computing system, the vehicle according to the portion of the fall back trajectory in order to achieve the mission goal; waiting, by the one or more processors of the secondary computing system, for an updated trajectory from the primary computing system while controlling the vehicle; and when an updated trajectory has not been received by the one or more processors of the secondary computing system and the vehicle reaches a threshold point on the fall back trajectory, continuing, by the one or more processors of the secondary computing system, to control the vehicle according to the fall back trajectory in order to safely stop the vehicle.
Method for continuous or semi-continuous casting, in particular in a vertical casting system for casting steel, in which the strand is lowered into a cooled mould at the end of casting after the melt supply has stopped, characterised in that the strand is stopped before the level reaches the lower end of the mould and a tube element is immersed with its lower end in the molten metal in the mould that the fill level of the molten metal rises to the upper end of the mould, as during casting.
Dishwasher, in particular a domestic dishwasher, having a washing container which provides a washing chamber and which is used to receive washware to be cleaned, having a fresh water tank as a side tank arranged beside the washing container , which fresh water tank is fluidically connected to the washing container , and having a second fresh water tank which is arranged as a base tank below the washing container , the first and the second fresh water tank being fluidically interconnected, into which connection a pump is integrated, so that fresh water can circulate between the two fresh water tanks in a circulating mode, and having a heat exchanger which is fluidically connected to the washing container , characterised in that the heat exchanger is a fluid-tight container arranged in the second fresh water tank , which container can be supplied with washing solution from the washing container , the fresh water, when circulating between the two fresh water tanks in the circulating mode, washes around the container, and the container comprising through-flow openings through which the fresh water is guided. and having a heat exchanger which is fluidically connected to the washing container , characterised in that the heat exchanger is a fluid-tight container arranged in the second fresh water tank , which container can be supplied with washing solution from the washing container , the fresh water, when circulating between the two fresh water tanks in the circulating mode, washes around the container, and the container comprising through-flow openings through which the fresh water is guided.
A method for transmitting data from a population of devices to a relay station wherein said relay station is traveling with respect to said population of devices, wherein for transmitting said data to said relay station each device comprises a transmission window, which transmission window is a window of time wherein a transmission of a device can be received by said relay station, and at least one transmission slot resulting from a channel access method, wherein said relay station is travelling within said transmission windows of said population of devices, and wherein said relay station broadcasts an instruction to said population of devices before said data transmission, wherein upon receiving said instruction at least part of said population of devices sets a modified transmission slot before said data transmission, wherein said channel access method is TDMA; characterized in that said setting of said modified transmission slot comprises at least one selected from replacing an actual device position for a virtual device position, modifying a transmission slot length, modifying a transmission slot start, modifying a transmission slot end, interrupting a transmission slot, and a combination thereof, wherein said relay station has a data receiving capacity, and said modified transmission slot is set for statistically distributing said data transmission of said population of devices for matching said data receiving capacity, wherein more in particular said setting of said modified transmission slot is derived from simulating transmission scenarios using a density model of said population of devices. wherein said channel access method is TDMA; characterized in that said setting of said modified transmission slot comprises at least one selected from replacing an actual device position for a virtual device position, modifying a transmission slot length, modifying a transmission slot start, modifying a transmission slot end, interrupting a transmission slot, and a combination thereof, wherein said relay station has a data receiving capacity, and said modified transmission slot is set for statistically distributing said data transmission of said population of devices for matching said data receiving capacity, wherein more in particular said setting of said modified transmission slot is derived from simulating transmission scenarios using a density model of said population of devices.
A method of transmitting messages performed by a relay node in a blockchain relay communication network, wherein the relay node comprises two or more message queues, and a same message queue is used for storing blockchain messages having a same priority identifier, the priority identifier represents a priority of a message to be transmitted; and the method comprises: obtaining a to-be-transmitted blockchain message from one of the two or more message queues based on a message transmission policy, the message transmission policy is configured for transmitting a blockchain message with a highest priority first; obtaining identifier information comprised in the to-be-transmitted blockchain message, wherein the identifier information comprises a set identifier; determining a blockchain node set corresponding to the set identifier, and determining all blockchain nodes pre-registered to the blockchain node set as target blockchain nodes corresponding to the to-be-transmitted blockchain message; determining a target relay node connected to the target blockchain nodes in the blockchain relay communication network; and transmitting the blockchain message to each of the target blockchain nodes through the target relay node. obtaining a to-be-transmitted blockchain message from one of the two or more message queues based on a message transmission policy, the message transmission policy is configured for transmitting a blockchain message with a highest priority first; obtaining identifier information comprised in the to-be-transmitted blockchain message, wherein the identifier information comprises a set identifier; determining a blockchain node set corresponding to the set identifier, and determining all blockchain nodes pre-registered to the blockchain node set as target blockchain nodes corresponding to the to-be-transmitted blockchain message; determining a target relay node connected to the target blockchain nodes in the blockchain relay communication network; and transmitting the blockchain message to each of the target blockchain nodes through the target relay node.
Shoe sole including a stability element within the sole, wherein the stability element has respectively one medial and one lateral end, and is disposed in a substantially arcuate manner along the toe region of the shoe sole and extends in this regard along the medial and lateral sides of the sole in the toe region, wherein the medial end of the stability element is located approximately at the level of the big toe, and characterised in that the lateral end of the stability element is located approximately at the level of the little toe.
A compound of formula IV: or a pharmaceutically acceptable salt thereof, wherein: X is N; and each R b is independently substituted or unsubstituted C 1-6 aliphatic; and n is 0 to 4. X is N; and each R b is independently substituted or unsubstituted C 1-6 aliphatic; and n is 0 to 4.
A light-emitting device package comprising: a package body ; a light-emitting device disposed on the package body; a molding member disposed on the light-emitting device; and a phosphor disposed in the molding member, wherein a first energy ratio (HE) defined as an area of the Spectral Power Distribution, SPD, integrated over a first wavelength range of 415 nm to 455 nm of the light-emitting device package is 75% or less of a corresponding energy ratio of a reference sunlight source in the first wavelength range, wherein a second energy ratio (BE) defined as an area of the SPD integrated over a second wavelength range of 465 nm to 495 nm of the light-emitting device package is 60% or more of a corresponding energy ratio of a reference sunlight source in the second wavelength range, wherein in the light-emitting device package , the second energy ratio (BE) is higher than the first energy ratio (HE), wherein the phosphor comprises a first phosphor having a center wavelength of 515 nm to 570 nm and a second phosphor having a center wavelength of 580 nm to 670 nm, thereby implementing a white light source with an emission wavelength of the light-emitting device as an excitation wavelength, wherein the first phosphor is a green phosphor and the second phosphor is a red phosphor, wherein a phosphor composition of the first phosphor is higher in ratio than the second phosphor, and wherein a relative ratio of the first phosphor and the second phosphor is 85wt% to 95wt% and 5wt% to 15wt%. a package body ; a light-emitting device disposed on the package body; a molding member disposed on the light-emitting device; and a phosphor disposed in the molding member, wherein a first energy ratio (HE) defined as an area of the Spectral Power Distribution, SPD, integrated over a first wavelength range of 415 nm to 455 nm of the light-emitting device package is 75% or less of a corresponding energy ratio of a reference sunlight source in the first wavelength range, wherein a second energy ratio (BE) defined as an area of the SPD integrated over a second wavelength range of 465 nm to 495 nm of the light-emitting device package is 60% or more of a corresponding energy ratio of a reference sunlight source in the second wavelength range, wherein in the light-emitting device package , the second energy ratio (BE) is higher than the first energy ratio (HE), wherein the phosphor comprises a first phosphor having a center wavelength of 515 nm to 570 nm and a second phosphor having a center wavelength of 580 nm to 670 nm, thereby implementing a white light source with an emission wavelength of the light-emitting device as an excitation wavelength, wherein the first phosphor is a green phosphor and the second phosphor is a red phosphor, wherein a phosphor composition of the first phosphor is higher in ratio than the second phosphor, and wherein a relative ratio of the first phosphor and the second phosphor is 85wt% to 95wt% and 5wt% to 15wt%.
Substituted pyridopyrrolopyrimidine ribonucleosides of general formula I: wherein - X is a nitrogen atom and Y is a carbon atom; or - X is a carbon atom and Y is a nitrogen atom; and wherein R is selected from the group comprising - C1-C5 alkyl, optionally substituted by at least one substitutent selected from hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - C2-C6 alkenyl, optionally substituted by at least one substitutent selected from hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - C6-C12 aryl, optionally substituted by at least one substitutent selected from C1-C5 alkyl, hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - C4-12 heteroaryl, comprising at least one heteroatom selected from O and S; optionally substituted by at least one substituent selected from C1-C5 alkyl, hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - amino, - C1-C5 alkylamino, - di(C1-C5 alkyl)amino, - C1-C5 alkoxy, - C1-C5 alkylsulfanyl, and pharmaceutically acceptable salt thereof, their optical isomers and mixtures of such optical isomers including racemic mixtures. - X is a nitrogen atom and Y is a carbon atom; or - X is a carbon atom and Y is a nitrogen atom; - C1-C5 alkyl, optionally substituted by at least one substitutent selected from hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - C2-C6 alkenyl, optionally substituted by at least one substitutent selected from hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - C6-C12 aryl, optionally substituted by at least one substitutent selected from C1-C5 alkyl, hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - C4-12 heteroaryl, comprising at least one heteroatom selected from O and S; optionally substituted by at least one substituent selected from C1-C5 alkyl, hydroxy, sulfanyl, amino, C1-C5 alkoxy, C1-C5 sulfanyl, C1-C5 alkylamino, di(C1-C5 alkyl)amino; - amino, - C1-C5 alkylamino, - di(C1-C5 alkyl)amino, - C1-C5 alkoxy, - C1-C5 alkylsulfanyl,