mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving flight data from one or more aircraft flight data systems; determining if the aircraft is near stall or in a stall using the flight data; determining if the aircraft is in uncoordinated flight while near stall or in a stall to determine if the aircraft is near spin or in a spin using the flight data; if the aircraft is determined to be near spin: sending a signal to an automated control system for inputting automatic control to the aircraft to avoid a spin by coordinating the aircraft or avoiding a stall while uncoordinated; determining whether a pilot inputs a stall-avoidance control input to avoid a spin within a threshold period of time before inputting automatic control to the aircraft; and overriding the pilot input and inputting automatic control to the aircraft regardless of the threshold period of time if the pilot inputs a stall-exacerbating input within the threshold period of time. receiving flight data from one or more aircraft flight data systems; determining if the aircraft is near stall or in a stall using the flight data; determining if the aircraft is in uncoordinated flight while near stall or in a stall to determine if the aircraft is near spin or in a spin using the flight data; if the aircraft is determined to be near spin: sending a signal to an automated control system for inputting automatic control to the aircraft to avoid a spin by coordinating the aircraft or avoiding a stall while uncoordinated; determining whether a pilot inputs a stall-avoidance control input to avoid a spin within a threshold period of time before inputting automatic control to the aircraft; and overriding the pilot input and inputting automatic control to the aircraft regardless of the threshold period of time if the pilot inputs a stall-exacerbating input within the threshold period of time. sending a signal to an automated control system for inputting automatic control to the aircraft to avoid a spin by coordinating the aircraft or avoiding a stall while uncoordinated; determining whether a pilot inputs a stall-avoidance control input to avoid a spin within a threshold period of time before inputting automatic control to the aircraft; and overriding the pilot input and inputting automatic control to the aircraft regardless of the threshold period of time if the pilot inputs a stall-exacerbating input within the threshold period of time.
A gravity-adaptive card separation mechanism, configured to be arranged on a storage box for storing stacked hard cards and configured to separate hard cards one by one, wherein the gravity-adaptive card separation mechanism comprises: a support frame, configured to mount and support a floating separation unit, and configured to be fixedly assembled with the storage box; and the floating separation unit having a mounting plate, a card rubbing wheel configured to separate the cards, a driving motor configured to provide a driving force for the card rubbing wheel, and position-limiting shafts respectively arranged in front of and at back of the card rubbing wheel, the position-limiting shafts being mounted on the mounting plate; wherein U-shaped guide slots are arranged on the support frame at positions corresponding to upward and downward floating strokes of the position-limiting shafts, wherein upward and downward floating of the position-limiting shafts in the U-shaped guide slots is configured to allow the floating separation unit to float upward and downward in the support frame, and wherein the support frame is provided with a position detecting unit configured to detect the maximum strokes of the upward and downward floating of the floating separation unit. a support frame, configured to mount and support a floating separation unit, and configured to be fixedly assembled with the storage box; and the floating separation unit having a mounting plate, a card rubbing wheel configured to separate the cards, a driving motor configured to provide a driving force for the card rubbing wheel, and position-limiting shafts respectively arranged in front of and at back of the card rubbing wheel, the position-limiting shafts being mounted on the mounting plate; wherein U-shaped guide slots are arranged on the support frame at positions corresponding to upward and downward floating strokes of the position-limiting shafts, wherein upward and downward floating of the position-limiting shafts in the U-shaped guide slots is configured to allow the floating separation unit to float upward and downward in the support frame, and wherein the support frame is provided with a position detecting unit configured to detect the maximum strokes of the upward and downward floating of the floating separation unit.
Method for calibrating an electric machine for a motor vehicle, characterized by the steps of: detecting a direction of rotation of a rotor of the electric machine by means of a rotor position sensor; correcting an angle of rotation of the rotor position sensor depending on the detected direction of rotation; and actuating the electric machine depending on the corrected angle of rotation. detecting a direction of rotation of a rotor of the electric machine by means of a rotor position sensor; correcting an angle of rotation of the rotor position sensor depending on the detected direction of rotation; and actuating the electric machine depending on the corrected angle of rotation.
A method for diagnosing colorectal adenomas and/or colorectal cancer, comprising the steps of a) obtaining a fecal sample comprising the gut microbiome from a human patient to be diagnosed, b) detecting the fecal metagenome in said sample comprising the species i) Fusobacterium nucleatum subsp. vincentii, Fusobacterium nucleatum subsp. animalis, Porphyromonas asaccharolytica, and Peptostreptococcus stomatis, and/or ii) Enterobacteriaceae bacterium 9_2_54FAA, Acidaminococcus intestini, Bacteroides stercoris, and Ruminococcaceae bacterium D16, and c) concluding on colorectal adenomas and/or CRC in said patient, wherein an increase of the abundance of said species as detected in said sample compared to a sample from a non-colorectal adenoma and/or CRC patient is indicative for CRC for the species as listed in step b i), and indicative for colorectal adenomas for the species as listed in step b ii). a) obtaining a fecal sample comprising the gut microbiome from a human patient to be diagnosed, b) detecting the fecal metagenome in said sample comprising the species i) Fusobacterium nucleatum subsp. vincentii, Fusobacterium nucleatum subsp. animalis, Porphyromonas asaccharolytica, and Peptostreptococcus stomatis, and/or ii) Enterobacteriaceae bacterium 9_2_54FAA, Acidaminococcus intestini, Bacteroides stercoris, and Ruminococcaceae bacterium D16, and i) Fusobacterium nucleatum subsp. vincentii, Fusobacterium nucleatum subsp. animalis, Porphyromonas asaccharolytica, and Peptostreptococcus stomatis, and/or ii) Enterobacteriaceae bacterium 9_2_54FAA, Acidaminococcus intestini, Bacteroides stercoris, and Ruminococcaceae bacterium D16, and c) concluding on colorectal adenomas and/or CRC in said patient, wherein an increase of the abundance of said species as detected in said sample compared to a sample from a non-colorectal adenoma and/or CRC patient is indicative for CRC for the species as listed in step b i), and indicative for colorectal adenomas for the species as listed in step b ii).
A control device configured to determine a manipulation amount of a control object by feedback control so as to bring a control amount of the control object closer to a target value, comprising: a plurality of arithmetic units (45, 46) configured to operate in parallel, wherein the plurality of arithmetic units (45, 46) are configured so that a signal is sequentially transmitted by the arithmetic units (45, 46), a sensor value of the control amount is input to the first arithmetic unit in a signal transmission sequence, and a correction amount for the manipulation amount is output from the last arithmetic unit in the signal transmission sequence, the first arithmetic unit has a controller configured to produce an output by processing the sensor value of the control amount, and the arithmetic units other than the first arithmetic unit have a delay element configured to delay an input by a predetermined number of steps and a controller that produces an output by processing the input delayed by the delay element. a plurality of arithmetic units (45, 46) configured to operate in parallel, wherein the plurality of arithmetic units (45, 46) are configured so that a signal is sequentially transmitted by the arithmetic units (45, 46), a sensor value of the control amount is input to the first arithmetic unit in a signal transmission sequence, and a correction amount for the manipulation amount is output from the last arithmetic unit in the signal transmission sequence, the first arithmetic unit has a controller configured to produce an output by processing the sensor value of the control amount, and the arithmetic units other than the first arithmetic unit have a delay element configured to delay an input by a predetermined number of steps and a controller that produces an output by processing the input delayed by the delay element.
An ammunition case roll sizing apparatus comprising: a base defining a surface and a case receptacle proximate the surface, and having a former protruding from a boundary of said surface; a circular disk rotatably flat mounted onto the surface of the base so that a case channel is complementarily defined commencing from the case receptacle between the former and the disk being operatively rotatable via a rotational actuator a case feeder configured for operatively receiving a plurality of cases and for feeding a case lengthwise into the case receptacle; and a case pusher configured to be operatively actuatable by the rotating disk to push a case from the receptacle into the channel, wherein rotation of the disk urges said case through the channel to roll-size the case. a base defining a surface and a case receptacle proximate the surface, and having a former protruding from a boundary of said surface; a circular disk rotatably flat mounted onto the surface of the base so that a case channel is complementarily defined commencing from the case receptacle between the former and the disk being operatively rotatable via a rotational actuator a case feeder configured for operatively receiving a plurality of cases and for feeding a case lengthwise into the case receptacle; and a case pusher configured to be operatively actuatable by the rotating disk to push a case from the receptacle into the channel, wherein rotation of the disk urges said case through the channel to roll-size the case.
A specimen removal pouch (100,200) comprising: an elongated body (110, 210) having an interior portion for receiving a specimen therein, at least a portion of the elongated body (110, 210) including a gas vent configured to allow passage of gas from the interior of the elongated body (110, 210) to an external environment, characterised in that the gas vent comprises an opening in the elongated body (110, 210) closed by a filter element (120, 226), whereby tissue or fluid is retained within the specimen removal pouch (100,200) while allowing the passage of gas from within the pouch (100,200). an elongated body (110, 210) having an interior portion for receiving a specimen therein, at least a portion of the elongated body (110, 210) including a gas vent configured to allow passage of gas from the interior of the elongated body (110, 210) to an external environment, characterised in that the gas vent comprises an opening in the elongated body (110, 210) closed by a filter element (120, 226), whereby tissue or fluid is retained within the specimen removal pouch (100,200) while allowing the passage of gas from within the pouch (100,200).
A method for controlling a cooking appliance (2, 3) on the basis of a control command transferred from a mobile device (19, 20) to a control device (6a, 6b) via a wireless data connection, characterized in that the method comprises the following steps: 1.1. capturing a plurality of sample values (P i, P I,1, P I,2, P I,3) correlating to a signal strength of the wireless data connection, 1.2. determining a test value (P T) on the basis of the plurality of sample values (P i, P I,1, P I,2, P I,3), 1.3. comparing the test value (P T) with a reference test value (P ref) to determine a comparison result, and 1.4. limiting the controllability of the cooking appliance (2, 3) by means of the mobile device (19, 20) according to the comparison result. 1.1. capturing a plurality of sample values (P i, P I,1, P I,2, P I,3) correlating to a signal strength of the wireless data connection, 1.2. determining a test value (P T) on the basis of the plurality of sample values (P i, P I,1, P I,2, P I,3), 1.3. comparing the test value (P T) with a reference test value (P ref) to determine a comparison result, and 1.4. limiting the controllability of the cooking appliance (2, 3) by means of the mobile device (19, 20) according to the comparison result.
Method for separating, a component along a separating line, comprising the steps of: (a) arranging the component and at least one first electrode such that they are in contact with one another, so that the component is in electrically conductive contact with the at least one first electrode on a first side along a separating line, and arranging the component and at least one second electrode such that they are in contact with one another, so that the component is in electrically conductive contact with the at least one second electrode on a second side along the separating line, (b) passing an electric current from the at least one first electrode, through the component, into the at least one second electrode, so that the component melts and is separated along the separating line, and (c) coolant flowing through the electrodes (16, 20), characterized by conducting the electric current from at least one of the electrodes (16, 20), via an electrically conductive bearing surface of the electrode (16, 20), which bearing surface adjoins an electrically insulated edge of the electrode (16, 20), into the component and through the separating line, past at least one further electrically insulated edge of at least one further electrode (16, 20), into the at least one electrically conductive bearing surface of the further electrodes (16, 20), which bearing surface respectively adjoins an electrically insulated edge of this kind. (a) arranging the component and at least one first electrode such that they are in contact with one another, so that the component is in electrically conductive contact with the at least one first electrode on a first side along a separating line, and arranging the component and at least one second electrode such that they are in contact with one another, so that the component is in electrically conductive contact with the at least one second electrode on a second side along the separating line, (b) passing an electric current from the at least one first electrode, through the component, into the at least one second electrode, so that the component melts and is separated along the separating line, and (c) coolant flowing through the electrodes (16, 20), characterized by conducting the electric current from at least one of the electrodes (16, 20), via an electrically conductive bearing surface of the electrode (16, 20), which bearing surface adjoins an electrically insulated edge of the electrode (16, 20), into the component and through the separating line, past at least one further electrically insulated edge of at least one further electrode (16, 20), into the at least one electrically conductive bearing surface of the further electrodes (16, 20), which bearing surface respectively adjoins an electrically insulated edge of this kind.
A boarding pass including a sheet which has a first face and a second face opposite to the first face, the sheet having: a first part comprising an attachment device to attach the boarding pass to a support, a second part comprising an RFID tag including a memory and an antenna, characterized in that the attachment device includes an adhesive strip having an adhesive face and a non-adhesive face, opposite to the adhesive face, and in that the first part has a hole which is covered by the adhesive strip, the adhesive face being attached to the first face of the sheet so that a part of the adhesive face opens into the second face of the sheet. a first part comprising an attachment device to attach the boarding pass to a support, a second part comprising an RFID tag including a memory and an antenna, characterized in that the attachment device includes an adhesive strip having an adhesive face and a non-adhesive face, opposite to the adhesive face, and in that the first part has a hole which is covered by the adhesive strip, the adhesive face being attached to the first face of the sheet so that a part of the adhesive face opens into the second face of the sheet.
Method for managing a printing of data by a thermal printer, comprising a thermal print head, said thermal head 44 comprising a plurality of points, each point having an effective resistance r d, said thermal printer being powered by a power source, method comprising the following actions: - measuring a voltage U given by said power source of said thermal printer; - measuring an internal resistance r u of said power source, and - computing a duration t for heating a number n of points as a function of said voltage U of said power source, said internal resistance r u of the power source, said effective resistance r d of at least one point corresponding to a dot to be printed for the printing of said data and as a function of at least one value of parasitic resistance r p of at least one element of said thermal printer, - said method being characterized in that said duration is computed according to the following formula: t = W × r d U d 2 × n = n × r u + r d + r p 2 n × r d × U 2 × W wherein: - n represents the number of printing points of said thermal print head; - W represents the energy needed to heat n points of said thermal print head; - r p represents the parasitic resistance of a printing point of said thermal print head. - measuring a voltage U given by said power source of said thermal printer; - measuring an internal resistance r u of said power source, and - computing a duration t for heating a number n of points as a function of said voltage U of said power source, said internal resistance r u of the power source, said effective resistance r d of at least one point corresponding to a dot to be printed for the printing of said data and as a function of at least one value of parasitic resistance r p of at least one element of said thermal printer, - said method being characterized in that said duration is computed according to the following formula: t = W × r d U d 2 × n = n × r u + r d + r p 2 n × r d × U 2 × W wherein: - n represents the number of printing points of said thermal print head; - W represents the energy needed to heat n points of said thermal print head; - r p represents the parasitic resistance of a printing point of said thermal print head. - n represents the number of printing points of said thermal print head; - W represents the energy needed to heat n points of said thermal print head; - r p represents the parasitic resistance of a printing point of said thermal print head.
A method comprising: following receipt by a content provider system of a selection of content from a user equipment, communicating, via a core network, a token to the user equipment based on the user equipment being authenticated by the content provider system to retrieve content from the content provider system; receiving, from the user equipment by the core network, first data including a request for content and the token; sending, to the content provider system, the first data including the request for content and the token; subsequent to the content provider system performing security checks on the token and verifying a binding between the token and the user equipment, receiving, from the content provider system, second data including the requested content; inspecting the token in the first data to determine a charging treatment for the requested content; and sending, to the user equipment, the second data including the requested content while applying the charging treatment to the requested content. following receipt by a content provider system of a selection of content from a user equipment, communicating, via a core network, a token to the user equipment based on the user equipment being authenticated by the content provider system to retrieve content from the content provider system; receiving, from the user equipment by the core network, first data including a request for content and the token; sending, to the content provider system, the first data including the request for content and the token; subsequent to the content provider system performing security checks on the token and verifying a binding between the token and the user equipment, receiving, from the content provider system, second data including the requested content; inspecting the token in the first data to determine a charging treatment for the requested content; and sending, to the user equipment, the second data including the requested content while applying the charging treatment to the requested content.
A device carrier panel of a satellite, having at least one electronic box that accommodates electrical and/or electronic modules, - the device carrier panel having a base plate (10; 11) on which the at least one electronic box is mountable, and - the base plate (10; 11) having, at least in areas, a design that is temperature-controllable by means of integrated heat sources and/or heat sinks, characterized in that - a plurality of individually controllable heat-conducting devices (82, 83, 84) and/or cooling and/or heating devices (90, 91, 92, 93, 94) is provided distributed over the surface of the base plate (10; 11). - the device carrier panel having a base plate (10; 11) on which the at least one electronic box is mountable, and - the base plate (10; 11) having, at least in areas, a design that is temperature-controllable by means of integrated heat sources and/or heat sinks, - a plurality of individually controllable heat-conducting devices (82, 83, 84) and/or cooling and/or heating devices (90, 91, 92, 93, 94) is provided distributed over the surface of the base plate (10; 11).
A visor for a protective helmet, comprising two retaining arms and two bearing devices for the retaining arms, said bearing devices being attachable to a helmet shell of a helmet, for pivoting the visor between two end positions which correspond to an operating position, in which the visor is folded down and rests on a front edge of the helmet shell, and a parking position, in which the visor is folded up and disposed at the outer surface of the helmet shell, wherein the visor is provided with a soft lip at least in a region in which the visor can be brought into close proximity or into touch with a helmet shell in the end positions and wherein the lip is formed and disposed at the visor so that it can be placed onto a protruding front edge of the helmet shell in the operating position of the visor, and wherein at least one of its bearing devices has a spring-biased end position lock associated with it which locks the retaining arm in each end position by frictional force and which accelerates the visor toward the operating position when the pivot motion of the visor out of the parking position is manually initiated until the lip touches the helmet shell, characterized in that the lip is further formed and disposed at the visor so that in the parking position it can be brought to rest against the outer surface of the helmet shell, wherein the visor accelerates when the pivot motion of the visor out of the operating position toward the parking position is manually initiated until the lip touches the outer surface of the helmet shell substantially without a rebound.