mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for supplying an internal combustion engine, which preferably is arranged on an engine test stand, with a conditioned combustion gas, in particular air, wherein a supply or suction duct, respectively, comprising a blower is provided for supplying the combustion gas at a pre-determined temperature and with a pre-determined moisture content to the internal combustion engine, and a pressure sensor is provided in the supply or suction duct, respectively, for sensing the engine suction pressure, characterised in that a dynamic pressure control unit with an outflow valve (14, 27) is provided in the supply and/or suction duct to conduct away an excess of combustion gas, the dynamic pressure control unit being controlled as a function of the engine suction pressure sensed by the pressure sensor such that the pressure of the combustion gas is constant at its entry into the internal combustion engine.
A gateway method of controlling dynamic equiment (100, 104) which method includes the steps of: providing an electronic control module connected to said equipment; connecting said control module to a protocol converter; providing a wireless communications module connected to said control module; providing a mobile device; wirelessly transmitting commands to and receiving information from said communications module with said mobile device; translating wireless communications between said communications module and said mobile device with said protocol converter; providing said mobile device with a manual actuator on a display screen of said mobile device, the manual actuator requiring the operator to engage opposite sides (1056 A and B) of the display screen to engage the actuator; providing said mobile device with a safety interlock adapted for disabling said equipment in response to an operator releasing said actuator; providing said equipment with a meter roll function; and selectively disabling said meter roll function with said safety interlock. providing an electronic control module connected to said equipment; connecting said control module to a protocol converter; providing a wireless communications module connected to said control module; providing a mobile device; wirelessly transmitting commands to and receiving information from said communications module with said mobile device; translating wireless communications between said communications module and said mobile device with said protocol converter; providing said mobile device with a manual actuator on a display screen of said mobile device, the manual actuator requiring the operator to engage opposite sides (1056 A and B) of the display screen to engage the actuator; providing said mobile device with a safety interlock adapted for disabling said equipment in response to an operator releasing said actuator; providing said equipment with a meter roll function; and selectively disabling said meter roll function with said safety interlock.
A module for a morphing wing for an aircraft, comprising: two structural ribs (76, 78) disposed adjacent to one another, wherein the structural ribs (76, 78) define a lateral axis and a longitudinal axis; at least one active member (88, 90, 92, 94) connected between two adjacent structural ribs (76, 78) at a first angle to the lateral axis, wherein the at least one active member (88, 90, 92, 94) is actively adjustable; wherein adjustment of the at least one active member (88,90,92,94) moves the structural ribs (76,78) with respect to one another, altering at least one of the lateral axis or the longitudinal axis from a first configuration to a second configuration; characterised by at least one passive member (80, 82, 84, 86) connected between the two adjacent structural ribs (76, 78) at a second angle to the lateral axis, wherein the at least one passive member (80, 82, 84, 86) is passively adjustable; two structural ribs (76, 78) disposed adjacent to one another, wherein the structural ribs (76, 78) define a lateral axis and a longitudinal axis; at least one active member (88, 90, 92, 94) connected between two adjacent structural ribs (76, 78) at a first angle to the lateral axis, wherein the at least one active member (88, 90, 92, 94) is actively adjustable; wherein adjustment of the at least one active member (88,90,92,94) moves the structural ribs (76,78) with respect to one another, altering at least one of the lateral axis or the longitudinal axis from a first configuration to a second configuration; characterised by at least one passive member (80, 82, 84, 86) connected between the two adjacent structural ribs (76, 78) at a second angle to the lateral axis, wherein the at least one passive member (80, 82, 84, 86) is passively adjustable;
Method for the production of a shoe by means of direct injection, onto the upper, of a sole made of polymer material comprising a midsole and a tread which covers a bottom surface of the midsole and which, in at least one zone thereof, is in direct contact with the upper, the method comprising the steps of: - providing a mould cavity, designed to receive the shoe part to be covered with the sole and comprising a base having an impression intended to form the outer surface of the tread; - spraying a first polymer mixture onto said impression of the base so as to form the tread; - closing the mould cavity around the shoe so that the base with the tread sprayed previously is positioned relative to the upper with the space for the midsole and with the said zone of the tread placed in direct contact with the upper; - injecting a second polymer mixture inside said mould cavity after closing with the base, so as to form the midsole inside the said space for the midsole. - providing a mould cavity, designed to receive the shoe part to be covered with the sole and comprising a base having an impression intended to form the outer surface of the tread; - spraying a first polymer mixture onto said impression of the base so as to form the tread; - closing the mould cavity around the shoe so that the base with the tread sprayed previously is positioned relative to the upper with the space for the midsole and with the said zone of the tread placed in direct contact with the upper; - injecting a second polymer mixture inside said mould cavity after closing with the base, so as to form the midsole inside the said space for the midsole.
A reaction mixture for detecting corneal dystrophy in a human subject, the reaction mixture comprising: at least a first amplification primer pair for amplifying and determining a first TGFβI gene sequence from a biological sample from the subject; and a first set of at least four detection probes including a first detection probe comprising the sequence of SEQ ID NO:25, a second detection probe comprising the sequence of SEQ ID NO:26, a third detection probe comprising the sequence of SEQ ID NO:48 and a fourth detection probe consisting of the sequence of SEQ ID NO:49. at least a first amplification primer pair for amplifying and determining a first TGFβI gene sequence from a biological sample from the subject; and a first set of at least four detection probes including a first detection probe comprising the sequence of SEQ ID NO:25, a second detection probe comprising the sequence of SEQ ID NO:26, a third detection probe comprising the sequence of SEQ ID NO:48 and a fourth detection probe consisting of the sequence of SEQ ID NO:49.
An irradiated fluoropolymer article comprising at least one fluoropolymer composition layer that will contact a fluid, wherein said fluoropolymer composition comprises at least one fluoropolymer and from 50 to 50,000 ppm, preferably from 500 ppm to 10,000 ppm of at least one metal salt or a metal oxide, and where said fluoropolymer composition has been exposed to a level at least 5 KGray of radiation.
A vehicle safety assist system for a host vehicle, said vehicle safety assist system being adapted to: - receive sensor information from a vehicle long range sensor set comprising at least one long range sensor, said vehicle long range sensor set being adapted to detect vehicles travelling within a sensor coverage area ahead of the host vehicle; - on the basis of said sensor information, determine a set of detected vehicles and, for each detected vehicle (A, B), determine a relative kinematic property between said detected vehicle (A, B) and said host vehicle and also determine a relative kinematic property reliability measure indicative of the reliability of the determined relative kinematic property; - receive host vehicle state information, said host vehicle state information comprising a speed of said host vehicle; - on the basis of at least said host vehicle state information, the number of vehicles in said set of detected vehicles, the relative kinematic property and the reliability of said relative kinematic property of each vehicle (A, B) in said set of detected vehicles, determine a host vehicle impact consequence level and an impact consequence level reliability measure indicative of the reliability of the determined host vehicle impact consequence level, and - on the basis of at least said host vehicle impact consequence level and said impact consequence level reliability measure, determine whether or not said vehicle safety assist system should issue a warning signal and/or an autonomous braking signal. - receive sensor information from a vehicle long range sensor set comprising at least one long range sensor, said vehicle long range sensor set being adapted to detect vehicles travelling within a sensor coverage area ahead of the host vehicle; - on the basis of said sensor information, determine a set of detected vehicles and, for each detected vehicle (A, B), determine a relative kinematic property between said detected vehicle (A, B) and said host vehicle and also determine a relative kinematic property reliability measure indicative of the reliability of the determined relative kinematic property; - receive host vehicle state information, said host vehicle state information comprising a speed of said host vehicle; - on the basis of at least said host vehicle state information, the number of vehicles in said set of detected vehicles, the relative kinematic property and the reliability of said relative kinematic property of each vehicle (A, B) in said set of detected vehicles, determine a host vehicle impact consequence level and an impact consequence level reliability measure indicative of the reliability of the determined host vehicle impact consequence level, and - on the basis of at least said host vehicle impact consequence level and said impact consequence level reliability measure, determine whether or not said vehicle safety assist system should issue a warning signal and/or an autonomous braking signal.
A crystalline form of the bis-HCl salt of a compound represented by Structural Formula 1: wherein the crystalline form is Form I and is characterized by at least three x-ray powder diffraction peaks at 2θ angles selected from 7.22°, 7.80°, 10.41°, and 11.11°, and wherein the crystalline form is a hemi-ethanolate solvate. the crystalline form is Form I and is characterized by at least three x-ray powder diffraction peaks at 2θ angles selected from 7.22°, 7.80°, 10.41°, and 11.11°, and wherein the crystalline form is a hemi-ethanolate solvate.
Press fitting, comprising a socket provided with one end for the insertion of an end portion of a pipe or the like which socket is intended to be mechanically and tightly locked on said end portion of a pipe or the like by clamping and that is provided with strain sensors able to transduce a strain of the socket into an electrical quantity, characterized in that there is provided a plurality of said sensors distributed along the external circumference of the socket while the socket on the shell surface has a first portion for the action by a pressing unit such as pliers or the like and a second portion upon which the pressing unit does not act and in which or on which there are provided said strain sensors, the second portion being adjacent to the first one.
A method for cleaning fabrics or the like, such as garments and the like, comprising the steps of: - a) preparing a compartment for containing the fabrics; - b) preparing a quantity of cleaning fluid in the liquid state in a tank in fluid communication with the containment compartment; - c) inserting the fabrics in the compartment and isolating the containment compartment with respect to an outside environment, the method being characterised in that it comprises a step for sucking air from the compartment, in a substantially continuous manner, for adjusting the pressure in the compartment for containing the fabrics and in the tank to a pressure less than the atmospheric pressure so as to allow the evaporation of the cleaning fluid and the introduction into the compartment of the cleaning fluid in the vapour phase, for cleaning the fabrics. - a) preparing a compartment for containing the fabrics; - b) preparing a quantity of cleaning fluid in the liquid state in a tank in fluid communication with the containment compartment; - c) inserting the fabrics in the compartment and isolating the containment compartment with respect to an outside environment, the method being characterised in that it comprises a step for sucking air from the compartment, in a substantially continuous manner, for adjusting the pressure in the compartment for containing the fabrics and in the tank to a pressure less than the atmospheric pressure so as to allow the evaporation of the cleaning fluid and the introduction into the compartment of the cleaning fluid in the vapour phase, for cleaning the fabrics.
An atmospheric suit configured for a space environment, characterized in that the suit comprises a system to create vibration-based directional synthetic ambient sound in or on the suit, the system comprising: a vibration detector configured to detect a location of vibration and identify a frequency of the vibration; a controller configured to generate audio corresponding to the frequency of vibration detected by the vibration detector; and one or more speakers configured to provide the audio as directional sound. a vibration detector configured to detect a location of vibration and identify a frequency of the vibration; a controller configured to generate audio corresponding to the frequency of vibration detected by the vibration detector; and one or more speakers configured to provide the audio as directional sound.
A manufacturing method of a magnesium alloy sheet, the method comprising: preparing a molten alloy containing 0.5 to 2.1 wt% of Al, 0.5 to 1.5 wt% of Zn, 0.1 to 1.0 wt% of Ca, and a balance of Mg and inevitable impurities, with respect to a total of 100 wt% of the molten alloy; preparing a casting material by casting the molten alloy; preparing a rolled material by rolling the casting material; final annealing of the rolled material, wherein in the preparing of the rolled material by rolling the casting material, rolling is performed at a reduction ratio of 50 % or less excluding 0 %per rolling; wherein in the preparing of the rolled material by rolling the casting material, the casting material is rolled twice, or more, wherein in the preparing of the rolled material by rolling the casting material, the rolling is performed in a temperature range of 200 to 350 °C, wherein the preparing of the rolled material by rolling the casting material includes intermediate annealing of the rolled material, wherein in the intermediate annealing of the rolled material, a number of intermediate annealing is in a range of 1/6 to 1/8, and wherein the number of intermediate annealing = number of intermediate annealing/total number of rolling. preparing a molten alloy containing 0.5 to 2.1 wt% of Al, 0.5 to 1.5 wt% of Zn, 0.1 to 1.0 wt% of Ca, and a balance of Mg and inevitable impurities, with respect to a total of 100 wt% of the molten alloy; preparing a casting material by casting the molten alloy; preparing a rolled material by rolling the casting material; final annealing of the rolled material, wherein in the preparing of the rolled material by rolling the casting material, rolling is performed at a reduction ratio of 50 % or less excluding 0 %per rolling; wherein in the preparing of the rolled material by rolling the casting material, the casting material is rolled twice, or more, wherein in the preparing of the rolled material by rolling the casting material, the rolling is performed in a temperature range of 200 to 350 °C, wherein the preparing of the rolled material by rolling the casting material includes intermediate annealing of the rolled material, wherein in the intermediate annealing of the rolled material, a number of intermediate annealing is in a range of 1/6 to 1/8, and wherein the number of intermediate annealing = number of intermediate annealing/total number of rolling.
An arc detection method for performing protection in an energy storage system, comprising: obtaining, by a control apparatus, an electrical signal at an electrical connection point in an energy storage system, wherein the electrical signal comprises a voltage signal; determining, by the control apparatus, a frequency domain amplitude based on a frequency domain characteristic of the electrical signal; and when the frequency domain amplitude is greater than a preset amplitude, controlling, by the control apparatus, the energy storage system to perform an arc extinguishing and protection operation on the electrical connection point, wherein the energy storage system comprises a battery module, a battery management system BMS, and a direct current-direct current DC-DC converter; and the electrical connection point comprises a connection point between the battery module and the BMS, a connection point between the BMS and the DC-DC converter, or a connection point between the DC-DC converter and a load circuit, characterized in that the controlling, by the control apparatus, the energy storage system to perform an arc extinguishing and protection operation on the electrical connection point comprises: controlling, by the control apparatus, the DC-DC converter to generate a reverse electrical signal, to change an electric potential and further output a reverse electric potential to extinguish the arc. obtaining, by a control apparatus, an electrical signal at an electrical connection point in an energy storage system, wherein the electrical signal comprises a voltage signal; determining, by the control apparatus, a frequency domain amplitude based on a frequency domain characteristic of the electrical signal; and when the frequency domain amplitude is greater than a preset amplitude, controlling, by the control apparatus, the energy storage system to perform an arc extinguishing and protection operation on the electrical connection point, wherein the energy storage system comprises a battery module, a battery management system BMS, and a direct current-direct current DC-DC converter; and the electrical connection point comprises a connection point between the battery module and the BMS, a connection point between the BMS and the DC-DC converter, or a connection point between the DC-DC converter and a load circuit, characterized in that the controlling, by the control apparatus, the energy storage system to perform an arc extinguishing and protection operation on the electrical connection point comprises: controlling, by the control apparatus, the DC-DC converter to generate a reverse electrical signal, to change an electric potential and further output a reverse electric potential to extinguish the arc.
A method in a first radio communication node for instructing a second radio communication node to adjust a transmit power level of a radio transceiver in the second radio communication node to reduce a Relative Phase Discontinuity, RPD, between first and second phases of transmission by the radio transceiver, wherein the transmit power level during the first phase of transmission is different than the transmission power level during the second phase of transmission, the method comprising the steps of: receiving from the second radio communication node, a Relative Phase, RP, characteristic between multiple transmitter chains of the radio transceiver in the second radio communication node; based on the RP characteristic, selecting by the first radio communication node, the transmit power level for the radio transceiver in the second radio communication node for a selected one of the two phases of transmission, so as to reduce the RPD between the first and second phases of transmission; and instructing the second radio communication node to set the transmit power level for the radio transceiver during the selected phase of transmission to the level selected by the first radio communication node. receiving from the second radio communication node, a Relative Phase, RP, characteristic between multiple transmitter chains of the radio transceiver in the second radio communication node; based on the RP characteristic, selecting by the first radio communication node, the transmit power level for the radio transceiver in the second radio communication node for a selected one of the two phases of transmission, so as to reduce the RPD between the first and second phases of transmission; and instructing the second radio communication node to set the transmit power level for the radio transceiver during the selected phase of transmission to the level selected by the first radio communication node.
Dish rack for a dishwasher, in particular a household dishwasher, having at least one dishwasher cavity, said dish rack being able to be movably arranged in the dishwasher cavity and comprising a dish basket and a storage surface for holding items to be washed, which storage surface can be coupled to the dish basket, wherein the storage surface can be locked on the dish basket and can be pivoted about an axis into different angles of inclination (W. 1; W.2; W.3), wherein at least one support element is arranged on the underside of the storage surface, which support element supports the storage surface at different angles of inclination (W. 1; W.2; W.3), at a point spaced from the axis, and wherein the support element arranged on the underside of the storage surface has a number of locking steps (19.1, 19.2, 19.3), which come into engagement with the dish basket, whereby the storage surface is supported at different angles of inclination (W.1; W.2; W.3), characterised in that the storage surface also can be slid along the axis, so that a change to the angle of inclination (W.1; W.2; W.3) of the storage surface is carried out by a combined movement, i.e. by a longitudinal sliding of the storage surface along an axis and preferably a simultaneous rotation of the storage surface about the axis.