mhurhangee/ep-ind-claims huggingface dataset:
Method for setting up and operating a wireless vehicle network with at least two stations (34, 37) which are also interconnected via a physical line, wherein the stations can communicate with one another both wirelessly and via the physical line during the wireless network set-up, having the following features: a) a first station wirelessly transmits signals which indicate the first station, b) a second station wirelessly transmits signals which indicate a readiness for the wireless connection to a different station, c) a physical line is set up now at the latest between the two stations, d) the first station transmits signals via the physical line to the second station, e) in response, the second station transmits signals via a physical line to the first station, said signals being dependent on signals of the first station transmitted via the physical line, f) the first station checks the response from the second station and, following a positive check, allows the set-up of the wireless network with the second station, e) the second station forms the wireless network with the first station. a) a first station wirelessly transmits signals which indicate the first station, b) a second station wirelessly transmits signals which indicate a readiness for the wireless connection to a different station, c) a physical line is set up now at the latest between the two stations, d) the first station transmits signals via the physical line to the second station, e) in response, the second station transmits signals via a physical line to the first station, said signals being dependent on signals of the first station transmitted via the physical line, f) the first station checks the response from the second station and, following a positive check, allows the set-up of the wireless network with the second station, e) the second station forms the wireless network with the first station.
Oropharyngeal obturation device configured for blocking the oropharynx and hypopharynx of a patient during a surgical procedure with nasotracheal intubation, comprising: - an obturator element having a shape comprising a lower portion and an upper portion, where the lower portion comprises two parallel lobular cavities shaped as two bottom-closed sacs and is configured for adapting to the anatomy of the front portion of the patient's oropharynx such that it abuts on the side of the tongue with the epiglottis housed in a gap separating both lobular cavities, and where the obturator element has shape memory, such that it can be folded during a device introduction procedure and recover its shape once in the oropharyngeal area of the patient, thus sealing the respiratory airway adjacent the oropharynx; - at least a attachment element (5; 51, 52) joined to the obturator element, where the attachment element (5; 51, 52) is configured for being coupled to the nasotracheal tube adjacent the patient's oropharynx; and - a safety element, comprising a thread fixed to the obturator element or to the attachment element (5; 51, 52) and in whose free end a very visible safety plate is present, the oropharyngeal obturation device being characterized in that the upper portion of the obturator element comprises a rear wall protruding from rear edges of the lobular cavities and is configured for adapting to the anatomy of the rear portion of the oropharynx of the patient such that it abuts on the rear wall of the oropharynx. - an obturator element having a shape comprising a lower portion and an upper portion, where the lower portion comprises two parallel lobular cavities shaped as two bottom-closed sacs and is configured for adapting to the anatomy of the front portion of the patient's oropharynx such that it abuts on the side of the tongue with the epiglottis housed in a gap separating both lobular cavities, and where the obturator element has shape memory, such that it can be folded during a device introduction procedure and recover its shape once in the oropharyngeal area of the patient, thus sealing the respiratory airway adjacent the oropharynx; where the lower portion comprises two parallel lobular cavities shaped as two bottom-closed sacs and is configured for adapting to the anatomy of the front portion of the patient's oropharynx such that it abuts on the side of the tongue with the epiglottis housed in a gap separating both lobular cavities, and where the obturator element has shape memory, such that it can be folded during a device introduction procedure and recover its shape once in the oropharyngeal area of the patient, thus sealing the respiratory airway adjacent the oropharynx; - at least a attachment element (5; 51, 52) joined to the obturator element, where the attachment element (5; 51, 52) is configured for being coupled to the nasotracheal tube adjacent the patient's oropharynx; and - a safety element, comprising a thread fixed to the obturator element or to the attachment element (5; 51, 52) and in whose free end a very visible safety plate is present,
An oral care system, comprising: an electric toothbrush having an energy source; an electronic circuit, in particular including a microcontroller, and one or more electric loads; and at least a first sensor for providing a first signal indicating a relevant change of a first external condition; and a mobile computing device that stores a computer application; wherein in response to a relevant change in an external condition indicated by the first signal, the electronic circuit is arranged to activate a ready mode, the ready mode causing the system to enable or establish a wireless communication link between toothbrush and the mobile computing device, in particular wherein the communication is bi-directional; characterized in that the first sensor is one of a light sensor, a microphone, a Hall sensor, a capacitance sensor, a humidity sensor, a movement or acceleration or inclination sensor such as a gyroscope, a gas sensor, a vibration sensor, and a temperature sensor. an electric toothbrush having an energy source; an electronic circuit, in particular including a microcontroller, and one or more electric loads; and at least a first sensor for providing a first signal indicating a relevant change of a first external condition; and a mobile computing device that stores a computer application; wherein in response to a relevant change in an external condition indicated by the first signal, the electronic circuit is arranged to activate a ready mode, the ready mode causing the system to enable or establish a wireless communication link between toothbrush and the mobile computing device, in particular wherein the communication is bi-directional; characterized in that the first sensor is one of a light sensor, a microphone, a Hall sensor, a capacitance sensor, a humidity sensor, a movement or acceleration or inclination sensor such as a gyroscope, a gas sensor, a vibration sensor, and a temperature sensor.
A system for tracking a vehicle comprising: a transceiver configured to: receive a first signal including first surveillance data from the vehicle at a first time, and receive a second signal from the vehicle at a second time; and processing circuitry configured to: determine a first location of the vehicle at the first time based on the first surveillance data, characterised in that the processing circuitry is further configured to: determine a first course of the vehicle at the first time based on the first surveillance data, determine a change in power level from the first signal to the second signal, and predict a maneuver for the vehicle based on the first location, the first course, and the change in power level from the first signal to the second signal. a transceiver configured to: receive a first signal including first surveillance data from the vehicle at a first time, and receive a second signal from the vehicle at a second time; and processing circuitry configured to: determine a first location of the vehicle at the first time based on the first surveillance data, characterised in that the processing circuitry is further configured to: determine a first course of the vehicle at the first time based on the first surveillance data, determine a change in power level from the first signal to the second signal, and predict a maneuver for the vehicle based on the first location, the first course, and the change in power level from the first signal to the second signal. receive a first signal including first surveillance data from the vehicle at a first time, and receive a second signal from the vehicle at a second time; and processing circuitry configured to: determine a first location of the vehicle at the first time based on the first surveillance data, characterised in that the processing circuitry is further configured to: determine a first course of the vehicle at the first time based on the first surveillance data, determine a change in power level from the first signal to the second signal, and predict a maneuver for the vehicle based on the first location, the first course, and the change in power level from the first signal to the second signal. determine a first course of the vehicle at the first time based on the first surveillance data, determine a change in power level from the first signal to the second signal, and predict a maneuver for the vehicle based on the first location, the first course, and the change in power level from the first signal to the second signal.
A gas-insulated high or medium voltage circuit breaker (100, 200) comprising: a first arcing contact and a second arcing contact, wherein at least one of the two arcing contacts (101, 103) is axially movable along a switching axis, wherein during a breaking operation, an arc between the first arcing contact and the second arcing contact is formed in an arcing region; a nozzle moveably connected to the first arcing contact and including a channel directed to the arcing region, for blowing an arc-extinguishing gas to the arcing region during the breaking operation, and a diffuser portion adjacent to the nozzle, for transporting the arc-extinguishing gas from the arcing region to a buffer volume axially downstream of the diffuser portion away from the channel; an enclosure confined within a housing of the circuit breaker (100, 200), wherein the enclosure substantially surrounds the buffer volume circumferentially; and a buffer dividing member (150, 250) connected to the diffuser portion as to divide the buffer volume into a first and a second buffer sub-volume (171, 173), wherein the buffer dividing member (150, 250) has one or more apertures allowing a flow of gas between the first and the second buffer sub-volume (171, 173) through the buffer dividing member (150, 250). a first arcing contact and a second arcing contact, wherein at least one of the two arcing contacts (101, 103) is axially movable along a switching axis, wherein during a breaking operation, an arc between the first arcing contact and the second arcing contact is formed in an arcing region; a nozzle moveably connected to the first arcing contact and including a channel directed to the arcing region, for blowing an arc-extinguishing gas to the arcing region during the breaking operation, and a diffuser portion adjacent to the nozzle, for transporting the arc-extinguishing gas from the arcing region to a buffer volume axially downstream of the diffuser portion away from the channel; an enclosure confined within a housing of the circuit breaker (100, 200), wherein the enclosure substantially surrounds the buffer volume circumferentially; and a buffer dividing member (150, 250) connected to the diffuser portion as to divide the buffer volume into a first and a second buffer sub-volume (171, 173), wherein the buffer dividing member (150, 250) has one or more apertures allowing a flow of gas between the first and the second buffer sub-volume (171, 173) through the buffer dividing member (150, 250).
A chemical injection management system for regulating a fluid flow into a wellhead, the chemical injection management system comprising: a flow path having an inlet and an outlet for the delivery of fluid to the wellhead; a flow-meter disposed in the flow path between the inlet and the outlet; and characterised in that the system further comprises: a motorised valve disposed in the flow path between the inlet and the outlet; a controller communicatively coupled to the flow-meter by a measurement signal path and communicatively coupled to the motorized valve by a control signal path and a drive feedback signal path; wherein the controller is configured to exercise feedback control of a parameter of fluid flow through the flow path via the control signal path based on a feedback signal received via the drive feedback signal path from the motorized valve; and the controller is configured to exercise feed-forward control by a control signal via the control signal path of the position of the motorised valve based on a difference between a desired value of the parameter and a value of the parameter indicated by a feedback signal received via the measurement signal path. a flow path having an inlet and an outlet for the delivery of fluid to the wellhead; a flow-meter disposed in the flow path between the inlet and the outlet; and characterised in that the system further comprises: a motorised valve disposed in the flow path between the inlet and the outlet; a controller communicatively coupled to the flow-meter by a measurement signal path and communicatively coupled to the motorized valve by a control signal path and a drive feedback signal path; wherein the controller is configured to exercise feedback control of a parameter of fluid flow through the flow path via the control signal path based on a feedback signal received via the drive feedback signal path from the motorized valve; and the controller is configured to exercise feed-forward control by a control signal via the control signal path of the position of the motorised valve based on a difference between a desired value of the parameter and a value of the parameter indicated by a feedback signal received via the measurement signal path. a motorised valve disposed in the flow path between the inlet and the outlet; a controller communicatively coupled to the flow-meter by a measurement signal path and communicatively coupled to the motorized valve by a control signal path and a drive feedback signal path; wherein the controller is configured to exercise feedback control of a parameter of fluid flow through the flow path via the control signal path based on a feedback signal received via the drive feedback signal path from the motorized valve; and the controller is configured to exercise feed-forward control by a control signal via the control signal path of the position of the motorised valve based on a difference between a desired value of the parameter and a value of the parameter indicated by a feedback signal received via the measurement signal path.
A computing system (200, 300, 400, 600) for providing an interface between a high-level intent and low-level settings, comprising: an interface component (202, 302, 402, 602) that is configured to receive a policy expressed in terms of a user's intent as a sentence structured in declarative language, wherein the policy is to be applied to a target set being a set of managed targets, wherein the managed targets expose state through facets, a facet being a set of logical properties that models a particular dimension of the user's intent, and the policy comprises statements defining constraints on acceptable states of the facets; and a declarative management component (204, 304, 404, 604) that is configured to: interpret the user's intent, wherein interpreting the user's intent comprises: parsing the sentence structured in declarative language into key words; and analyzing each of the key words to determine similar words to identify repeated actions or similar actions; identify low-level settings corresponding to the repeated or similar actions; identify the managed targets of the target set; and automatically apply the identified low-level settings to the target set. an interface component (202, 302, 402, 602) that is configured to receive a policy expressed in terms of a user's intent as a sentence structured in declarative language, wherein the policy is to be applied to a target set being a set of managed targets, wherein the managed targets expose state through facets, a facet being a set of logical properties that models a particular dimension of the user's intent, and the policy comprises statements defining constraints on acceptable states of the facets; and a declarative management component (204, 304, 404, 604) that is configured to: interpret the user's intent, wherein interpreting the user's intent comprises: parsing the sentence structured in declarative language into key words; and analyzing each of the key words to determine similar words to identify repeated actions or similar actions; identify low-level settings corresponding to the repeated or similar actions; identify the managed targets of the target set; and automatically apply the identified low-level settings to the target set. interpret the user's intent, wherein interpreting the user's intent comprises: parsing the sentence structured in declarative language into key words; and analyzing each of the key words to determine similar words to identify repeated actions or similar actions; parsing the sentence structured in declarative language into key words; and analyzing each of the key words to determine similar words to identify repeated actions or similar actions; identify low-level settings corresponding to the repeated or similar actions; identify the managed targets of the target set; and automatically apply the identified low-level settings to the target set.
A method of controlling a magnitude of a sonic boom caused by off-design-condition operation of a supersonic aircraft at supersonic speeds, the method comprising the steps of: monitoring, with a processor, a weight of the supersonic aircraft and a distribution of fuel onboard the supersonic aircraft; determining, with the processor, that there is a deviation of the weight of the supersonic aircraft from a design-condition weight; controlling, with the processor, a redistribution of the fuel onboard the supersonic aircraft to adjust an amount of fuel stored within a wing to minimize a twist in the wing caused by the deviation, wherein the magnitude of the sonic boom caused by the deviation is reduced. monitoring, with a processor, a weight of the supersonic aircraft and a distribution of fuel onboard the supersonic aircraft; determining, with the processor, that there is a deviation of the weight of the supersonic aircraft from a design-condition weight; controlling, with the processor, a redistribution of the fuel onboard the supersonic aircraft to adjust an amount of fuel stored within a wing to minimize a twist in the wing caused by the deviation, wherein the magnitude of the sonic boom caused by the deviation is reduced.
Device for guiding at least one line of an articulated-arm robot, in particular for guiding a hose package of an industrial robot, with a restoring mechanism for exerting a restoring force on the line, wherein the restoring mechanism has - a guide unit (42, 20) and a sliding element, wherein the sliding element is connected to a fastening element for fixing the line and is held on the guide unit (42, 20) displaceably between a first and a second position, - a elastic restoring unit, which is arranged to act between the guide unit (42, 20) and the sliding element in order to exert a restoring force on the sliding element, characterized in that the restoring unit has at least one deflecting element and a flexurally flexible strand-shaped connecting element (46, 64), which is guided around the deflecting element and is connected to the sliding element and to the guide unit (42, 20). - a guide unit (42, 20) and a sliding element, wherein the sliding element is connected to a fastening element for fixing the line and is held on the guide unit (42, 20) displaceably between a first and a second position, - a elastic restoring unit, which is arranged to act between the guide unit (42, 20) and the sliding element in order to exert a restoring force on the sliding element, characterized in that
A wheel assembly comprising a wheel for a wheelchair, a gripping ring connected to the wheel, and a gear-shift arrangement (7; 10; 40; 70); the wheel being provided with a wheel axle (17; 47; 77); the gear-shift arrangement being configured to change a gear ratio between the wheel and the gripping ring; the gear-shift arrangement comprising: - an internal-gear hub (8; 16; 46; 76) comprising a number of internal gears (18, 18', 18"; 48, 48', 48"; 78, 78', 78"), - a shift member (15; 45; 75), and - a gear selector (9; 11; 41; 71); wherein the gear selector and the gripping ring are located on the same side of the wheel; characterized in that the gear selector is operatively connected to the shift member, which is axially moveable within the internal-gear hub to engage a specific gear of said number of internal gears, and that the gear selector has an inner base portion (12; 42; 72) and an outer handle portion (13; 43; 73) and extends radially away from the wheel axle. - an internal-gear hub (8; 16; 46; 76) comprising a number of internal gears (18, 18', 18"; 48, 48', 48"; 78, 78', 78"), - a shift member (15; 45; 75), and - a gear selector (9; 11; 41; 71);
Apparatus for the production of a rope ladder comprising a desired plurality of steps equidistantly arranged at a fixed spacing and successively connected by means of ropes that pass through predetermined apertures at both side ends of steps, the apparatus comprising a workbench of an elongated rectangular configuration formed by means of members, a plurality of pairs of U-sectioned metallic members being mounted in the traverse direction along the workbench at equidistantly spaced points, channels being formed in between each one of said pairs of U-sectioned metallic members for the reception of steps, said steps thereby being provided at equidistantly spaced points along said workbench, said steps extending beyond the longitudinally oriented parallel metallic members of the workbench and provided with an arrangement of apertures (1a, 1b, 1c) at each one of the extending ends thereof, the apparatus being characterized by that a first arrangement of a pair of longitudinally extending parallel rails (12, 13) is provided on either end of the longitudinally oriented parallel metallic members of the workbench, a sliding carriage that is provided with a first arrangement of pairs of wheels (22, 23) being mounted onto said first arrangement of rails (12, 13), a press assembly being mounted onto an internal platform of said sliding carriage that is provided with said pairs of wheels (22, 23), said pairs of wheels allowing reciprocating sliding movement along the corresponding rails (12, 13), said internal platform being capable of performing a sliding transverse movement onto a second arrangement of pairs of wheels (24, 25) along a provision of a second arrangement of rails (14, 15), wherein said second arrangement of rails (14, 15) is oriented perpendicularly with respect to said first arrangement of rails (12, 13) respectively and said second rails (14, 15) are interconnected by means of metallic laminates, said press assembly being employed for effecting pressing for the closure of H-sectioned metallic clamping sockets within which are encaged said ropes, above and below, on either side of each one of said plurality of steps, said press assembly comprising a pair of jaws (18, 19) inside which are being enclaved said metallic clamping sockets in order to close by means of the pressure exerted thereupon by said pair of jaws (18, 19) through a pressing operation of said press assembly applying a piston/cylinder arrangement being provided above the upper one of said pair of jaws (18, 19)..