mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for numerical modular simulation of a system (SYS) said system being disaggregated (a) into at least two subunit (SSY) simulation subsystems (SMN), said method comprising: (b) simulating the respective subunits (SSY) stepwise repeatedly generating subsystem-step-output (MSO) from subsystem-step-input (MSI) during a respective subsystem-time-step (SMP), characterized by the additional steps for enabling numerical modular simulation of said system (SYS) even if different platforms or different internal solvers are used for each subunit (SSY): (c) transmitting subsystem-step-inputs (MSI) to a receiving subsystem (SMR) and simulating this subsystem (SMN) over a delay-time (DLT) before its subsystem-step-outputs (MSO) are generated, (d) receiving connection interface variables (TRD) from a sending subsystem (SMS) comprising at least one of: - numerical data (DTA), - at least parameters of a data-prediction-model (DEM) of said numerical data (DTA), - a data-prediction-model (DEM) assigned to said numerical data (DTA), wherein said numerical data (DTA) belongs to said subsystem-step-output (MSO) of said sending subsystem (SMS), comprising details about at least one information of the sending subsystem (SMS) to be sent to at least one receiving subsystem (SMR), (e) predicting said numerical data (DTA) by a data-prediction-model (DEM) over said delay-time (DLT) to obtain predicted numerical data (EDT) of said interface variables (TRD) provided by said sending subsystem (SMS), (f) starting the next simulation step of said receiving subsystem (SMR) generating the next subsystem-step-output (MSO) from subsystem-step-input (MSI), wherein said subsystem-step-input (MSI) comprises said predicted numerical data (EDT). (c) transmitting subsystem-step-inputs (MSI) to a receiving subsystem (SMR) and simulating this subsystem (SMN) over a delay-time (DLT) before its subsystem-step-outputs (MSO) are generated, (d) receiving connection interface variables (TRD) from a sending subsystem (SMS) comprising at least one of: - numerical data (DTA), - at least parameters of a data-prediction-model (DEM) of said numerical data (DTA), - a data-prediction-model (DEM) assigned to said numerical data (DTA), wherein said numerical data (DTA) belongs to said subsystem-step-output (MSO) of said sending subsystem (SMS), comprising details about at least one information of the sending subsystem (SMS) to be sent to at least one receiving subsystem (SMR), - numerical data (DTA), - at least parameters of a data-prediction-model (DEM) of said numerical data (DTA), - a data-prediction-model (DEM) assigned to said numerical data (DTA), (e) predicting said numerical data (DTA) by a data-prediction-model (DEM) over said delay-time (DLT) to obtain predicted numerical data (EDT) of said interface variables (TRD) provided by said sending subsystem (SMS), (f) starting the next simulation step of said receiving subsystem (SMR) generating the next subsystem-step-output (MSO) from subsystem-step-input (MSI), wherein said subsystem-step-input (MSI) comprises said predicted numerical data (EDT).
An image processing method, comprising: obtaining static image data of a static image; obtaining dynamic image data of a dynamic image; and generating target image data of a target image comprising the static image and the dynamic image at a display position in the static image, wherein the target image data comprises an area for the static image, and an area for the dynamic image, the method further comprising obtaining a data length of the dynamic image, and a coordinate position of the dynamic image in the static image, and obtaining an image overlay instruction, wherein the image overlay instruction is used to instruct to overlay the dynamic image and the static image and generating the target image data according to the image overlay instruction such that the target image data further comprises the static image data indicated in the area for the static image, an area indicating the data length of the dynamic image and an area indicating the display position of the dynamic image in the static image, wherein an extension field of the static image is set to avoid a format conversion process of the static image when the static image and the dynamic image are overlaid. obtaining static image data of a static image; obtaining dynamic image data of a dynamic image; and generating target image data of a target image comprising the static image and the dynamic image at a display position in the static image, wherein the target image data comprises an area for the static image, and an area for the dynamic image, the method further comprising obtaining a data length of the dynamic image, and a coordinate position of the dynamic image in the static image, and obtaining an image overlay instruction, wherein the image overlay instruction is used to instruct to overlay the dynamic image and the static image and generating the target image data according to the image overlay instruction such that the target image data further comprises the static image data indicated in the area for the static image, an area indicating the data length of the dynamic image and an area indicating the display position of the dynamic image in the static image, wherein an extension field of the static image is set to avoid a format conversion process of the static image when the static image and the dynamic image are overlaid.
A device for increasing absorption of substances through the skin of an animal or human, characterized by comprising, in order: a substrate layer ; a treatment substance carrying layer holding a treatment substrate, carried on said substrate layer ; and a cover layer disposed over said treatment substance carrying layer , said cover layer having metal particles disposed on or exposed through at least a portion of said cover layer as a plurality of lines or dots in a specific pattern that positions the metal particles in discrete electrically isolated locations separated by a distance, or disposed in or on an adhesive coating on said cover layer in a plurality of lines or dots in a specific pattern that positions the metal particles in discrete electrically isolated locations separated by a distance, wherein said cover layer is configured such that said metal particles are exposed at least in part, wherein said metal particles on said cover layer or carried by said adhesive coating form a plurality of half-cells of an air-or oxygen-metal battery, for ion exchange with the skin of the human or animal whereupon the treatment substance may be driven into the skin by iontophoresis. a substrate layer ; a treatment substance carrying layer holding a treatment substrate, carried on said substrate layer ; and a cover layer disposed over said treatment substance carrying layer , said cover layer having metal particles disposed on or exposed through at least a portion of said cover layer as a plurality of lines or dots in a specific pattern that positions the metal particles in discrete electrically isolated locations separated by a distance, or disposed in or on an adhesive coating on said cover layer in a plurality of lines or dots in a specific pattern that positions the metal particles in discrete electrically isolated locations separated by a distance, wherein said cover layer is configured such that said metal particles are exposed at least in part, wherein said metal particles on said cover layer or carried by said adhesive coating form a plurality of half-cells of an air-or oxygen-metal battery, for ion exchange with the skin of the human or animal whereupon the treatment substance may be driven into the skin by iontophoresis.
A polymeric tandem dye comprising: a water-soluble light harvesting multichromophore comprising: a polymeric backbone comprising non-conjugated repeat units; and a plurality of pendant donor chromophore groups each independently linked to a non-conjugated repeat unit of the polymeric backbone; and an acceptor fluorophore linked to a non-conjugated repeat unit of the polymeric backbone and configured in energy-receiving proximity to at least one pendant donor chromophore group of the light harvesting multichromophore. a polymeric backbone comprising non-conjugated repeat units; and a plurality of pendant donor chromophore groups each independently linked to a non-conjugated repeat unit of the polymeric backbone; and an acceptor fluorophore linked to a non-conjugated repeat unit of the polymeric backbone and configured in energy-receiving proximity to at least one pendant donor chromophore group of the light harvesting multichromophore.
A radio frequency (RF) coil for use in a magnetic resonance (MR) imaging system , whereby the RF coil comprises a coil printed circuit board (PCB) , multiple conductive elements provided on the coil PCB , the multiple conductive elements configured to apply a RF magnetic field to an examination space during RF transmit phases to excite nuclei of a subject of interest , and to receive MR signals from the excited nuclei during RF receive phases, one or multiple feeding ports configured for the excitation of the multiple conductive elements , at least one connection port , and one or multiple feeding lines connecting the at least one connection port to the one or multiple feeding ports , whereby the one or multiple feeding lines are provided as one or more co-planar feeding lines, which are arranged at the coil PCB , whereby each co-planar feeding line is suitable to convey microwave-frequency signals and comprises a conducting track , which is printed onto a dielectric substrate , together with a pair of return conductors , which are provided one to either side of the conducting track , wherein said conducting track and said pair of return conductors are provided co-planar on the same side of the substrate , wherein the co-planar feeding line is provided as conductor-backed co-planar waveguide (CBCPW) with a ground plane covering an area corresponding at least to an area covered by said conducting track and said pair of return conductors of the co-planar feeding line . multiple conductive elements provided on the coil PCB , the multiple conductive elements configured to apply a RF magnetic field to an examination space during RF transmit phases to excite nuclei of a subject of interest , and to receive MR signals from the excited nuclei during RF receive phases, one or multiple feeding ports configured for the excitation of the multiple conductive elements , at least one connection port , and one or multiple feeding lines connecting the at least one connection port to the one or multiple feeding ports , whereby the one or multiple feeding lines are provided as one or more co-planar feeding lines, which are arranged at the coil PCB , whereby each co-planar feeding line is suitable to convey microwave-frequency signals and comprises a conducting track , which is printed onto a dielectric substrate , together with a pair of return conductors , which are provided one to either side of the conducting track , wherein said conducting track and said pair of return conductors are provided co-planar on the same side of the substrate , wherein the co-planar feeding line is provided as conductor-backed co-planar waveguide (CBCPW) with a ground plane covering an area corresponding at least to an area covered by said conducting track and said pair of return conductors of the co-planar feeding line .
An electrode holder , suitable for receiving a spray nozzle, for a powder spray gun operable at high voltage, - wherein a powder channel is provided, - wherein a web for holding a high-voltage electrode is arranged in the powder channel , - wherein an annular groove arranged concentrically to the powder channel is provided, which is open on the downstream side, - wherein the annular groove is embodied such that a labyrinth for the high voltage can be formed by said annular groove and an annular web of a cap nut , which serves to lock the electrode holder . - wherein a powder channel is provided, - wherein a web for holding a high-voltage electrode is arranged in the powder channel , - wherein an annular groove arranged concentrically to the powder channel is provided, which is open on the downstream side, - wherein the annular groove is embodied such that a labyrinth for the high voltage can be formed by said annular groove and an annular web of a cap nut , which serves to lock the electrode holder .
An inverter comprising: a printed circuit board ; an electrolytic capacitor mounted on one surface of the printed circuit board, wherein the electrolytic capacitor is disposed so that its longitudinal direction is approximately parallel to the printed circuit board ; and a power device mounted on the printed circuit board and including a terminal connected to a terminal of the electrolytic capacitor , the printed circuit board including: a plate-shaped substrate with insulation properties; and a metal object connecting the terminal of the electrolytic capacitor to the terminal of the power device , the metal object including a heat dissipating portion dissipating heat generated by the power device , wherein the heat dissipating portion is provided on the one surface of the printed circuit board and it is disposed to face a main body of the electrolytic capacitor so that the region occupied by the heat dissipating portion has an overlap with the region occupied by the main body of the electrolytic capacitor along the one surface . a printed circuit board ; an electrolytic capacitor mounted on one surface of the printed circuit board, wherein the electrolytic capacitor is disposed so that its longitudinal direction is approximately parallel to the printed circuit board ; and a power device mounted on the printed circuit board and including a terminal connected to a terminal of the electrolytic capacitor , the printed circuit board including: a plate-shaped substrate with insulation properties; and a metal object connecting the terminal of the electrolytic capacitor to the terminal of the power device , the metal object including a heat dissipating portion dissipating heat generated by the power device , wherein the heat dissipating portion is provided on the one surface of the printed circuit board and it is disposed to face a main body of the electrolytic capacitor so that the region occupied by the heat dissipating portion has an overlap with the region occupied by the main body of the electrolytic capacitor along the one surface . a plate-shaped substrate with insulation properties; and a metal object connecting the terminal of the electrolytic capacitor to the terminal of the power device , the metal object including a heat dissipating portion dissipating heat generated by the power device , wherein the heat dissipating portion is provided on the one surface of the printed circuit board and it is disposed to face a main body of the electrolytic capacitor so that the region occupied by the heat dissipating portion has an overlap with the region occupied by the main body of the electrolytic capacitor along the one surface .
Piston for an internal combustion engine, comprising on the piston shaft a coating consisting of a composition which, based on the total composition, comprises: a) 10-30 wt.% phenol resin; b) 10-30 wt.% epoxy resin; c) 10-30 wt.% at least one solid lubricant selected from the group consisting of graphite, MoS 2 , WS 2 and BN; and d) 5-30 wt.% Fe 2 O 3 particles. a) 10-30 wt.% phenol resin; b) 10-30 wt.% epoxy resin; c) 10-30 wt.% at least one solid lubricant selected from the group consisting of graphite, MoS 2 , WS 2 and BN; and d) 5-30 wt.% Fe 2 O 3 particles.
Meat mincer with a drivable feed worm , with a blade shaft mounted nonrotatably on the feed worm and with at least one cutting set, - wherein a cutting set comprises at least one perforated disc supported in a stationary manner on the mincer housing and a blade mounted in a rotationally fixed manner on a support section of the blade shaft , - whereby the blade shaft is held at the feed worm with one end, characterised in that - the blade shaft is inserted into a bearing bore of the feed worm , whereby the cross-section of the bearing bore is adjusted to the cross-section of the insertion end of the blade shaft , - the insertion end of the blade shaft projects the support section of the blade shaft in a radial direction and that there is a stop section on the transition area between the end of the shaft and the support section , - a detachable coupling of the blade shaft with the feed worm is achieved by means of a mounting ring which is pushed to the stop section on the one hand over the support section of the blade shaft , and on the other hand is connectable to the feed worm , whereby the mounting ring and the feed worm have matching joints. - wherein a cutting set comprises at least one perforated disc supported in a stationary manner on the mincer housing and a blade mounted in a rotationally fixed manner on a support section of the blade shaft , - whereby the blade shaft is held at the feed worm with one end, characterised in that - the blade shaft is inserted into a bearing bore of the feed worm , whereby the cross-section of the bearing bore is adjusted to the cross-section of the insertion end of the blade shaft , - the insertion end of the blade shaft projects the support section of the blade shaft in a radial direction and that there is a stop section on the transition area between the end of the shaft and the support section , - a detachable coupling of the blade shaft with the feed worm is achieved by means of a mounting ring which is pushed to the stop section on the one hand over the support section of the blade shaft , and on the other hand is connectable to the feed worm , whereby the mounting ring and the feed worm have matching joints.
A level sensor assembly configured to be inserted in a tank for measuring physical properties indicative of a quality of a urea solution such as AdBlue or DEF, where at least a portion of said level sensor assembly is adapted to be inserted in the urea solution in the tank , said level sensor assembly comprises: - a header unit adapted to be mounted in an aperture of the tank , - heating tubes inserted in the tank for heating or thawing the urea solution in the tank , and one or more tubes for suction of urea solution from the tank , said tubes being connected to the header unit , and - a level sensor for measuring level of urea solution in the tank , - a detachable urea quality sensor (UQS, 30) is installed in the header unit , said UQS sensor being at least partly submerged in a liquid pool of urea solution in the header unit , characterised in that - the liquid pool in the header unit comprises a compressible and/or expanding bottom , wherein - the bottom comprises one or more elastic cups made of elastic material, said elastic cups are expandable during formation of ice in the liquid pool and retractable when the ice melts, or - the bottom comprises one or more elastic cups made of compressible material, said elastic cups are compressible during formation of ice in the liquid pool and expandable when the ice melts. - a header unit adapted to be mounted in an aperture of the tank , - heating tubes inserted in the tank for heating or thawing the urea solution in the tank , and one or more tubes for suction of urea solution from the tank , said tubes being connected to the header unit , and - a level sensor for measuring level of urea solution in the tank , - a detachable urea quality sensor (UQS, 30) is installed in the header unit , said UQS sensor being at least partly submerged in a liquid pool of urea solution in the header unit , characterised in that - the liquid pool in the header unit comprises a compressible and/or expanding bottom , wherein - the bottom comprises one or more elastic cups made of elastic material, said elastic cups are expandable during formation of ice in the liquid pool and retractable when the ice melts, or - the bottom comprises one or more elastic cups made of compressible material, said elastic cups are compressible during formation of ice in the liquid pool and expandable when the ice melts.
A method for a Bluetooth Low Energy, BLE, network comprising a plurality of nodes (N1-N8), wherein the network comprises a unique head node (HN) and each node of the network is associated with a hop count representing the distance expressed in number of hops from a node to the head node, the method comprising: detecting, at a first node (N2), that a second node (N1) is a failed node; recording, at the first node, that the second node is a failed node and that a first path is unavailable; switching, at the first node, to a second path, the second path comprising a third node (N6); checking, at the first node, the hop count of the third node, wherein the third node is the next hop on the second path from the first node; generating an information packet at the first node, wherein the information packet comprises a unique ID of the failed node and the hop count of the first node; broadcasting the information packet from the first node (N2) to one or more one-hop neighbouring nodes (N1, N3, N6) of the first node; storing, at each of the one-hop neighbouring nodes that receives the information packet, the unique ID of the failed node (N1) and the hop count of the first node; recalculating, at each of the one-hop neighbouring nodes that receives the information packet, a new hop count, wherein if the new hop count at one of the one-hop neighbouring nodes is recalculated to be different from the hop count prior to receiving the information packet, the one-hop neighbouring node generates a second information packet comprising the new hop count of the one-hop neighbouring node and broadcasts the second information packet to one or more of its own one-hop neighbouring nodes. detecting, at a first node (N2), that a second node (N1) is a failed node; recording, at the first node, that the second node is a failed node and that a first path is unavailable; switching, at the first node, to a second path, the second path comprising a third node (N6); checking, at the first node, the hop count of the third node, wherein the third node is the next hop on the second path from the first node; generating an information packet at the first node, wherein the information packet comprises a unique ID of the failed node and the hop count of the first node; broadcasting the information packet from the first node (N2) to one or more one-hop neighbouring nodes (N1, N3, N6) of the first node; storing, at each of the one-hop neighbouring nodes that receives the information packet, the unique ID of the failed node (N1) and the hop count of the first node; recalculating, at each of the one-hop neighbouring nodes that receives the information packet, a new hop count, wherein if the new hop count at one of the one-hop neighbouring nodes is recalculated to be different from the hop count prior to receiving the information packet, the one-hop neighbouring node generates a second information packet comprising the new hop count of the one-hop neighbouring node and broadcasts the second information packet to one or more of its own one-hop neighbouring nodes.