mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing an optimized control of a complex dynamical system (sys) using machine learned, scenario based control heuristics, the method comprising the steps of: a) providing (S1) a simulation model (f) for predicting a system state vector (x) of said dynamical system (sys) in time based on a current scenario parameter vector (p) comprising parameters that describe the external factors of the system, i.e. factors that do not change because of the system's evolution, and a control vector (u); b) using (S2) a Model Predictive Control, MPC, algorithm to provide the control vector (u) at every time during a simulation of said dynamical system (sys) using said simulation model (f) for different scenario parameter vectors (p0, p1, p2, ..) and initial system state vectors (x00, x01, x02, ..); c) calculating (S3) for every simulated combination of a scenario parameter vector (p) and initial system state vector (x 0 ) a resulting optimal control value (u* (p, x 0 )) by the MPC algorithm and saving the resulting optimal control value; d) generating (S4) machine learned control heuristics (u a (p, x 0 )) approximating the relationship between the corresponding scenario parameter vectors (p) and the initial system state vectors (x 0 ) for the saved resulting optimal control values (u* (p, x 0 )) using a machine learning algorithm; and e) using the generated machine learned control heuristics to control (S5) the complex dynamical system (sys) modelled by said simulation model (f). a) providing (S1) a simulation model (f) for predicting a system state vector (x) of said dynamical system (sys) in time based on a current scenario parameter vector (p) comprising parameters that describe the external factors of the system, i.e. factors that do not change because of the system's evolution, and a control vector (u); b) using (S2) a Model Predictive Control, MPC, algorithm to provide the control vector (u) at every time during a simulation of said dynamical system (sys) using said simulation model (f) for different scenario parameter vectors (p0, p1, p2, ..) and initial system state vectors (x00, x01, x02, ..); c) calculating (S3) for every simulated combination of a scenario parameter vector (p) and initial system state vector (x 0 ) a resulting optimal control value (u* (p, x 0 )) by the MPC algorithm and saving the resulting optimal control value; d) generating (S4) machine learned control heuristics (u a (p, x 0 )) approximating the relationship between the corresponding scenario parameter vectors (p) and the initial system state vectors (x 0 ) for the saved resulting optimal control values (u* (p, x 0 )) using a machine learning algorithm; and e) using the generated machine learned control heuristics to control (S5) the complex dynamical system (sys) modelled by said simulation model (f).
A user terminal device for providing wireless network access to an external wide area network , the user terminal device comprising processing circuitry , the processing circuitry being configured to cause the user terminal device to: establish a wireless connection to a gateway device located in a vehicle , whereby the user terminal device is identified as a client to the gateway device , wherein the user terminal device is configured to use the gateway device as gateway for all data traffic exchanged between the user terminal device and the external wide area network , wherein the wireless connection to the gateway device is established whilst the user terminal device maintains wireless network access between itself and the external wide area network , and wherein also data traffic is exchanged between the external wide area network and a local application run in the user terminal device , whereby the user terminal device is configured to route this data traffic through the gateway device ; and establish wireless network access for the gateway device to the external wide area network , whereby the gateway device is operatively connected to the external wide area network via the user terminal device , wherein the user terminal device is configured to bridge all data traffic communicated between the gateway device and the external wide area network . establish a wireless connection to a gateway device located in a vehicle , whereby the user terminal device is identified as a client to the gateway device , wherein the user terminal device is configured to use the gateway device as gateway for all data traffic exchanged between the user terminal device and the external wide area network , wherein the wireless connection to the gateway device is established whilst the user terminal device maintains wireless network access between itself and the external wide area network , and wherein also data traffic is exchanged between the external wide area network and a local application run in the user terminal device , whereby the user terminal device is configured to route this data traffic through the gateway device ; and establish wireless network access for the gateway device to the external wide area network , whereby the gateway device is operatively connected to the external wide area network via the user terminal device , wherein the user terminal device is configured to bridge all data traffic communicated between the gateway device and the external wide area network .
Grinder for a spice mill , having a stator , wherein the stator can be connected to a container and the position of the stator in the connected state is substantially defined in the direction of a longitudinal axis of the grinder relative to the container , and having an actuating unit which comprises a rotor , wherein the rotor is arranged, at least in portions, within the stator and is rotatably mounted relative to the stator , wherein the rotor is connected to an actuating element for conjoint rotation, wherein the actuating element is connected to an adjusting element in a rotatable manner and so as to be secured in the direction of the longitudinal axis , characterised in that the adjusting element comprises a thread , with which it can be connected to the container , and the container comprises a mating thread for the thread of the adjusting element , such that the position of the rotor in the direction of the longitudinal axis can be adjusted by means of a rotation of the adjusting element relative to the container . having a stator , wherein the stator can be connected to a container and the position of the stator in the connected state is substantially defined in the direction of a longitudinal axis of the grinder relative to the container , and having an actuating unit which comprises a rotor , wherein the rotor is arranged, at least in portions, within the stator and is rotatably mounted relative to the stator , wherein the rotor is connected to an actuating element for conjoint rotation, wherein the actuating element is connected to an adjusting element in a rotatable manner and so as to be secured in the direction of the longitudinal axis , characterised in that the adjusting element comprises a thread , with which it can be connected to the container , and the container comprises a mating thread for the thread of the adjusting element , such that the position of the rotor in the direction of the longitudinal axis can be adjusted by means of a rotation of the adjusting element relative to the container .
Method for autonomous processing of floor surfaces with the aid of a mobile, self-driving device, in particular a floor cleaning device such as a suction and/or sweeping and/or mopping robot, comprising the following method steps: - Implementing an exploration tour of the mobile, self-driving device in a proposed floor processing area , - Detecting obstacles and/or objects located on the floor by means of a detection facility, - Classifying the obstacles and/or objects as movable or non-movable, and - Transporting the obstacles and/or objects classified as movable to at least one collection point , characterised in that the collection point is cleaned before obstacles and/or objects classified as movable are transported to the collection point . - Implementing an exploration tour of the mobile, self-driving device in a proposed floor processing area , - Detecting obstacles and/or objects located on the floor by means of a detection facility, - Classifying the obstacles and/or objects as movable or non-movable, and - Transporting the obstacles and/or objects classified as movable to at least one collection point , characterised in that the collection point is cleaned before obstacles and/or objects classified as movable are transported to the collection point .
A sensor for a separable connector comprising: a plug body comprising an insulating resin, the plug body configured to be inserted into the separable connector to encase a high voltage conductor disposed in the separable connector such that there are no exposed high voltage surfaces; one or more high voltage capacitors encased by the insulating resin and configured to be electrically coupled to the separable connector at a first end portion when the plug body is inserted; one or more discrete low voltage capacitors electrically coupled in series to the one or more high voltage capacitors to form a capacitive voltage divider; and a low voltage connection configured to provide a low voltage signal corresponding to a high voltage signal present in the separable connector, further comprising a substrate supporting the one or more low voltage capacitors, wherein the substrate includes conductors, such as traces or wires, to facilitate mechanical connection, electrical connection, or both to other components. a plug body comprising an insulating resin, the plug body configured to be inserted into the separable connector to encase a high voltage conductor disposed in the separable connector such that there are no exposed high voltage surfaces; one or more high voltage capacitors encased by the insulating resin and configured to be electrically coupled to the separable connector at a first end portion when the plug body is inserted; one or more discrete low voltage capacitors electrically coupled in series to the one or more high voltage capacitors to form a capacitive voltage divider; and a low voltage connection configured to provide a low voltage signal corresponding to a high voltage signal present in the separable connector, further comprising a substrate supporting the one or more low voltage capacitors, wherein the substrate includes conductors, such as traces or wires, to facilitate mechanical connection, electrical connection, or both to other components.
A device for separating and collecting plasma, the device comprising: a separation membrane ; a collection membrane ; and a substrate , wherein the substrate comprises; an inner flexure formed from a plurality of first slots in the substrate, disposed proximate to a first peripheral portion of the substrate; and an outer flexure formed from a plurality of second slots in the substrate, disposed surrounding at least a portion of the plurality of first slots; wherein a distal end of the separation membrane is disposed under the outer flexure, wherein a proximal end of the collection membrane is disposed under at least one of the outer flexure and inner flexure such that the proximal end of the collection membrane has an overlapping contact area with the distal end of the separation membrane, and wherein the outer flexure is configured to apply pressure on the separation membrane and collection membrane about the overlapping contact area. a separation membrane ; a collection membrane ; and a substrate , wherein the substrate comprises; an inner flexure formed from a plurality of first slots in the substrate, disposed proximate to a first peripheral portion of the substrate; and an outer flexure formed from a plurality of second slots in the substrate, disposed surrounding at least a portion of the plurality of first slots; an inner flexure formed from a plurality of first slots in the substrate, disposed proximate to a first peripheral portion of the substrate; and an outer flexure formed from a plurality of second slots in the substrate, disposed surrounding at least a portion of the plurality of first slots; wherein a distal end of the separation membrane is disposed under the outer flexure, wherein a proximal end of the collection membrane is disposed under at least one of the outer flexure and inner flexure such that the proximal end of the collection membrane has an overlapping contact area with the distal end of the separation membrane, and wherein the outer flexure is configured to apply pressure on the separation membrane and collection membrane about the overlapping contact area.
A method for assembly material logistics and handling comprising: selectively positioning a component transport vehicle positioned along a material aisle in at least one of a component storage area or a component assembly area , the storage area positioned outside of and distant from the assembly area , the material aisle positioned adjacent to a component rack aisle and extending in an x-coordinate direction; the transport vehicle : at a first time, engaging for transport in the storage area a selected one of a plurality of full component containers positioned in the component rack aisle and depositing in the component rack aisle in the storage area an engaged empty component container transported from the assembly area ; and at a second time, engaging for transport in the assembly area a selected one of a plurality of empty component containers positioned in the component rack aisle in the assembly area and depositing in the assembly area component rack aisle an engaged full component container transported from the storage area ; and selectively and reciprocally moving the transport vehicle including at least one of the engaged full component container or the engaged empty component container along the material aisle between the storage area and the assembly area . selectively positioning a component transport vehicle positioned along a material aisle in at least one of a component storage area or a component assembly area , the storage area positioned outside of and distant from the assembly area , the material aisle positioned adjacent to a component rack aisle and extending in an x-coordinate direction; the transport vehicle : at a first time, engaging for transport in the storage area a selected one of a plurality of full component containers positioned in the component rack aisle and depositing in the component rack aisle in the storage area an engaged empty component container transported from the assembly area ; and at a second time, engaging for transport in the assembly area a selected one of a plurality of empty component containers positioned in the component rack aisle in the assembly area and depositing in the assembly area component rack aisle an engaged full component container transported from the storage area ; and at a first time, engaging for transport in the storage area a selected one of a plurality of full component containers positioned in the component rack aisle and depositing in the component rack aisle in the storage area an engaged empty component container transported from the assembly area ; and at a second time, engaging for transport in the assembly area a selected one of a plurality of empty component containers positioned in the component rack aisle in the assembly area and depositing in the assembly area component rack aisle an engaged full component container transported from the storage area ; and selectively and reciprocally moving the transport vehicle including at least one of the engaged full component container or the engaged empty component container along the material aisle between the storage area and the assembly area .
A sugar phosphate isomerase/epimerase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein alanine, which is an amino acid corresponding to position 321 of SEQ ID NO: 3, is substituted with valine.
An implantable device, comprising: a memory that stores executable components; and a processor that executes the executable components stored in the memory, wherein the executable components comprise: a data packet component configured to insert information associated with the implantable device in a defined service field of an advertising data packet , wherein the defined service field is selected from one or more service fields of the advertising data packet based on the information associated with the implantable device; and a communication component configured to transmit the advertising data packet via an advertising communication channel associated with a BLUETOOTH ® low energy (BLE) protocol. a memory that stores executable components; and a processor that executes the executable components stored in the memory, wherein the executable components comprise: a data packet component configured to insert information associated with the implantable device in a defined service field of an advertising data packet , wherein the defined service field is selected from one or more service fields of the advertising data packet based on the information associated with the implantable device; and a communication component configured to transmit the advertising data packet via an advertising communication channel associated with a BLUETOOTH ® low energy (BLE) protocol. a data packet component configured to insert information associated with the implantable device in a defined service field of an advertising data packet , wherein the defined service field is selected from one or more service fields of the advertising data packet based on the information associated with the implantable device; and a communication component configured to transmit the advertising data packet via an advertising communication channel associated with a BLUETOOTH ® low energy (BLE) protocol.
Medical vehicle comprising a compartment with a medical imaging system , wherein the medical imaging system comprises at least one system support sensor , wherein the system support sensors augment the vehicle's own sensors and/or replace equivalent sensors in the vehicle, and the medical vehicle is configured to obtain sensor readings from the at least one system support sensor during operation of the medical vehicle ; analyze the sensor readings; and provide feedback based on the analyzed sensor readings. obtain sensor readings from the at least one system support sensor during operation of the medical vehicle ; analyze the sensor readings; and provide feedback based on the analyzed sensor readings.
An introducer sheath for endoluminally delivering surgical implements to a treatment site, the introducer sheath comprising: a tubular member having generally opposite first and second ends, the tubular member defining a longitudinally extending lumen, the tubular member having a reinforcement member including a plurality of adjacent, helical windings that can be peeled from each other by applying a force to a proximal end of the reinforcement member .
Method for producing a microencapsulate comprising the following stages: [a] dispersing a first liquid phase in a second liquid phase forming an emulsion, so that said first phase remains dispersed in said second phase, and [b] forming a polymer which forms the wall of said microencapsulate, characterised in that between said first phase and said second phase an interphase is formed which comprises a reactive amphiphilic compound, where said amphiphilic compound is a prepolymer of said polymer, and said amphiphilic compound has at least two main functional groups that react in the subsequent polymerisation for forming said polymer, where said amphiphilic compound has at least one hydrophilic or hydrophobic functional group in a chain which is sideways with respect to the chain that links both main functional groups, where said main functional groups of said amphiphilic compound are NCO functional groups, able to form urethane and/or urea type bonds, where said second phase comprises a second compound, where said second compound comprises at least two functional groups that react with said main functional groups of said amphiphilic compound, to form said polymer, where said second compound is a polyamine, preferably a diamine, triamine, tetraamine or pentaamine and very preferably it is a polyamine from the group made up of ethylendiamine, diethylentriamine, triethylentetraamine and L-lysine, where a second prepolymer is added to said first phase, where said second prepolymer has at least two main functional groups that react in the subsequent polymerisation for forming said polymer, where said second prepolymer is more hydrophobic than said amphiphilic compound if said first phase is organic, or said second prepolymer is more hydrophilic than said amphiphilic compound if said first phase is aqueous, so that said second prepolymer will tend to arrange itself as a second internal layer in the wall of the microcapsules, given its greater affinity to the first phase, and so that said second prepolymer will react also with the second compound thereby forming a wall with two layers, and where said polymer comprises, in its main chain, a disulphide or an ester.
A standing wave oscillator comprising: a transmission line ; and an even number of at least four gain stages , each gain stage being connected to the transmission line , each gain stage being located at a respective location along a length of the transmission line ; the gain stages being configured to generate a standing wave oscillator signal along the length of the transmission line , when a supply voltage is applied to at least one end of the transmission line ; the location of each gain stage being non-coincidental with a location of maximum amplitude of the standing wave oscillator signal. a transmission line ; and an even number of at least four gain stages , each gain stage being connected to the transmission line , each gain stage being located at a respective location along a length of the transmission line ; the gain stages being configured to generate a standing wave oscillator signal along the length of the transmission line , when a supply voltage is applied to at least one end of the transmission line ; the location of each gain stage being non-coincidental with a location of maximum amplitude of the standing wave oscillator signal.