mhurhangee/ep-ind-claims huggingface dataset:
A method of distributed fuel control for an aircraft engine comprising: determining, by a controller for distributed fuel control comprising a processor and a tangible, non-transitory memory, a desired fuel pressure differential; directing, by the controller, a torque motor to set a pressure regulator to a position corresponding to the desired fuel pressure differential; determining, by the controller, a sensed fuel pressure differential; characterized in that the fuel pressure differential is based on a diffuser pressure sense signal data and a manifold pressure sense signal data, wherein the manifold pressure sense signal data is a pressure within manifold and the diffuser pressure sense signal data is a pressure within the diffuser; adjusting, by the controller, the torque motor in response to a difference between the sensed fuel pressure differential and the desired fuel pressure differential. determining, by a controller for distributed fuel control comprising a processor and a tangible, non-transitory memory, a desired fuel pressure differential; directing, by the controller, a torque motor to set a pressure regulator to a position corresponding to the desired fuel pressure differential; determining, by the controller, a sensed fuel pressure differential; characterized in that the fuel pressure differential is based on a diffuser pressure sense signal data and a manifold pressure sense signal data, wherein the manifold pressure sense signal data is a pressure within manifold and the diffuser pressure sense signal data is a pressure within the diffuser; adjusting, by the controller, the torque motor in response to a difference between the sensed fuel pressure differential and the desired fuel pressure differential.
A welding method for a substrate and a membrane of a membrane mobile polymer microfluidic chip comprising: before the welding, the substrate is fixed, and the surface of the substrate is covered with the membrane; the membrane is pressed against the surface of the substrate by applying pressure, and in the course of welding, the laser irradiates the welding area on the substrate through the membrane, and the welding area fuses and then the substrate and the membrane are welded together, characterized in that, the substrate has a rugged weld face and that the pressure is applied by a pressure application means which compensates the rugged weld face so that there is no clearance and gas film between the membrane and the substrate.
System for adjusting a driver's seat of a motor vehicle, in particular a system for adjusting the driving position of a driver's seat of a motor vehicle, comprising a computer, a set of seat actuators controlled by the computer, and a human-machine interface connected to the computer for controlling the seat adjustment, characterized in that the system comprises means for limiting the seat movement time (td) to a maximum movement time value, when the vehicle is moving and when the seat adjustment control is activated on the human-machine interface for an activation time (t).
A method of wireless communication by a wireless device (240, 280, 500), the method comprising: selecting multiple transmission reception points, TRPs, of a plurality of TRPs to form a group of TRPs based on information indicative of relative positions between a user equipment, UE, (120, 602) and each of the plurality of TRPs such that the relative positions between the UE (120, 602) and the multiple TRPs satisfy a criteria, wherein the multiple TRPs of the group of TRPs are selected such that levels of communication delay between each of the multiple TRPs and the UE (120, 602) are within a defined delay range; and communicating on an uplink using a single timing advance between the UE (120, 602) and the group of TRPs. selecting multiple transmission reception points, TRPs, of a plurality of TRPs to form a group of TRPs based on information indicative of relative positions between a user equipment, UE, (120, 602) and each of the plurality of TRPs such that the relative positions between the UE (120, 602) and the multiple TRPs satisfy a criteria, wherein the multiple TRPs of the group of TRPs are selected such that levels of communication delay between each of the multiple TRPs and the UE (120, 602) are within a defined delay range; and communicating on an uplink using a single timing advance between the UE (120, 602) and the group of TRPs.
Method for providing an image representation of at least part of an environment of a vehicle on a display device, comprising the steps: - capturing at least partly the environment of the vehicle by means of at least one vehicle sensor (3, 4, 5, 6); - providing an image representation of at least one first part of the captured environment within a defined viewport from a defined perspective, wherein the image representation includes a vehicle representation representing the vehicle; and - displaying the image representation on the display device; characterized in that when providing the image representation at least one second part of the captured environment is represented in form of a mirrored image of the at least one second part of the environment on a defined region (17, 19, 20) of the vehicle representation while the defined region (17, 19, 20) of the vehicle representation constitutes a part of the vehicle representation that relates to a window (17, 19, 20) of the vehicle, especially a windscreen and/or a rear window and/or a roof window and/or a side window. - capturing at least partly the environment of the vehicle by means of at least one vehicle sensor (3, 4, 5, 6); - providing an image representation of at least one first part of the captured environment within a defined viewport from a defined perspective, wherein the image representation includes a vehicle representation representing the vehicle; and - displaying the image representation on the display device; when providing the image representation at least one second part of the captured environment is represented in form of a mirrored image of the at least one second part of the environment on a defined region (17, 19, 20) of the vehicle representation while the defined region (17, 19, 20) of the vehicle representation constitutes a part of the vehicle representation that relates to a window (17, 19, 20) of the vehicle, especially a windscreen and/or a rear window and/or a roof window and/or a side window.
Process for the esterification of all or some of the hydroxyl functions of a wood-type material and/or of one of the products derived therefrom, characterized in that said material is brought into contact with a fluid in a supercritical state carrying at least one unsaturated natural plant oil, under conditions suitable for carrying out said esterification, comprising at least the steps consisting in: i) placing, within a chamber, a wood-type material preferably having a water content of less than 20% by weight relative to the total weight thereof, and at least one unsaturated natural plant oil carried, preferably dissolved, in a liquid fluid capable of changing to a supercritical state under pressure; ii) subjecting the whole mixture to pressure conditions that are effective for the impregnation of said material by said oil; and iii) exposing said material impregnated by said oil obtained in step ii) to pressure and temperature conditions that are effective for changing said fluid to a supercritical state and carrying out the esterification reaction, wherein step ii) is carried out at room temperature and under a pressure of between 15.0 and 25.0 MPa, and wherein step iii) is carried out at a pressure greater than that of step ii) and with heating. i) placing, within a chamber, a wood-type material preferably having a water content of less than 20% by weight relative to the total weight thereof, and at least one unsaturated natural plant oil carried, preferably dissolved, in a liquid fluid capable of changing to a supercritical state under pressure; ii) subjecting the whole mixture to pressure conditions that are effective for the impregnation of said material by said oil; and iii) exposing said material impregnated by said oil obtained in step ii) to pressure and temperature conditions that are effective for changing said fluid to a supercritical state and carrying out the esterification reaction, wherein step ii) is carried out at room temperature and under a pressure of between 15.0 and 25.0 MPa, and wherein step iii) is carried out at a pressure greater than that of step ii) and with heating.
A method of interleaving host write and cache flushing by managing movement of data from a cache storage to a main storage in a storage device in which incoming data received in write commands from an external host are first stored in the cache storage and later moved to the main storage, the method comprising: receiving a write command from the host at the storage device; storing data received with the write command in the cache storage; generating a busy status at the storage device upon receipt of the write command; and subsequent to storing the data in the cache storage, copying at least a portion of data from the cache storage to the main storage while maintaining the busy status, if available capacity present in the cache storage for receiving data in a subsequent write command from the host is below a desired threshold, wherein sufficient available capacity is present in the cache storage for receiving data in a subsequent write command from the host when the copying is initiated; the method being further characterized in that copying at least a portion of the data from the cache storage comprises executing a selectable number of cache clearing steps, and in that each cache clearing step copies data from at least one page in the cache storage to the main storage. receiving a write command from the host at the storage device; storing data received with the write command in the cache storage; generating a busy status at the storage device upon receipt of the write command; and subsequent to storing the data in the cache storage, copying at least a portion of data from the cache storage to the main storage while maintaining the busy status, if available capacity present in the cache storage for receiving data in a subsequent write command from the host is below a desired threshold, wherein sufficient available capacity is present in the cache storage for receiving data in a subsequent write command from the host when the copying is initiated; the method being further characterized in that copying at least a portion of the data from the cache storage comprises executing a selectable number of cache clearing steps, and in that each cache clearing step copies data from at least one page in the cache storage to the main storage.
Method for the manufacture of graphene oxide from kish graphite comprising: A. The provision of kish graphite, B. A pre-treatment step of said kish graphite comprising the following successive sub-steps: i. A sieving step wherein the kish graphite is classified by size as follows: a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, ii. A flotation step with the fraction b) of kish graphite having a size above or equal to 50μm, iii. An acid leaching step wherein an acid is added so that the ratio in weight (acid amount)/(kish graphite amount) is between 0.25 and 1.0, iv. Optionally, the kish graphite is washed and dried and C. An oxidation step of the pre-treated kish-graphite obtained after step B) in order to obtain graphene oxide. A. The provision of kish graphite, B. A pre-treatment step of said kish graphite comprising the following successive sub-steps: i. A sieving step wherein the kish graphite is classified by size as follows: a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, ii. A flotation step with the fraction b) of kish graphite having a size above or equal to 50μm, iii. An acid leaching step wherein an acid is added so that the ratio in weight (acid amount)/(kish graphite amount) is between 0.25 and 1.0, iv. Optionally, the kish graphite is washed and dried and i. A sieving step wherein the kish graphite is classified by size as follows: a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, ii. A flotation step with the fraction b) of kish graphite having a size above or equal to 50μm, iii. An acid leaching step wherein an acid is added so that the ratio in weight (acid amount)/(kish graphite amount) is between 0.25 and 1.0, iv. Optionally, the kish graphite is washed and dried and C. An oxidation step of the pre-treated kish-graphite obtained after step B) in order to obtain graphene oxide.
A radar level gauge system for determining the filling level of a product in a tank, comprising: a signal propagation device arranged to propagate an electromagnetic transmit signal towards a surface of the product and to return an electromagnetic reflection signal resulting from reflection of the electromagnetic transmit signal at the surface; a microwave signal source coupled to said signal propagation device and controllable to generate said electromagnetic transmit signal; a microwave signal source controller (31,55) coupled to said microwave signa source and configured to control said microwave signal source to generate said transmit signal in the form of a measurement sweep comprising a time sequence of discrete and mutually different frequency steps defining a bandwidth of said transmit signal; a mixer coupled to said microwave signal source and to said signa propagation device, and configured to combine said transmit signal and said reflection signal to form an intermediate frequency signal; a sampler (51,52) coupled to said mixer and configured to sample said intermediate frequency signal at a plurality of sampling times during said measurement sweep; and processing circuitry coupled to said sampler and configured to determine said filling level based on said intermediate frequency signal, wherein said microwave signal source controller and said sampler are controllable independently of each other, in such a way that a duration of each of the frequency steps comprised in said measurement sweep is made different from a sampling time interval between consecutive ones of said sampling times. a signal propagation device arranged to propagate an electromagnetic transmit signal towards a surface of the product and to return an electromagnetic reflection signal resulting from reflection of the electromagnetic transmit signal at the surface; a microwave signal source coupled to said signal propagation device and controllable to generate said electromagnetic transmit signal; a microwave signal source controller (31,55) coupled to said microwave signa source and configured to control said microwave signal source to generate said transmit signal in the form of a measurement sweep comprising a time sequence of discrete and mutually different frequency steps defining a bandwidth of said transmit signal; a mixer coupled to said microwave signal source and to said signa propagation device, and configured to combine said transmit signal and said reflection signal to form an intermediate frequency signal; a sampler (51,52) coupled to said mixer and configured to sample said intermediate frequency signal at a plurality of sampling times during said measurement sweep; and processing circuitry coupled to said sampler and configured to determine said filling level based on said intermediate frequency signal, wherein said microwave signal source controller and said sampler are controllable independently of each other, in such a way that a duration of each of the frequency steps comprised in said measurement sweep is made different from a sampling time interval between consecutive ones of said sampling times.
A control method of a home appliance, the method comprising: retrieving information about a communication device; authenticating the communication device using the information; registering the authenticated communication device; receiving voice data from the authenticated communication device; outputting a voice signal corresponding to the received voice data to a user; receiving the voice signal from the user; and transmitting voice data corresponding to the received voice signal to the communication device, characterized by: when a call device calling command is input by the user, retrieving information about one or more communication devices, receiving selection of a lost communication device from among the one or more communication devices, calling the lost communication device and requesting output of a sound to the lost communication device. retrieving information about a communication device; authenticating the communication device using the information; registering the authenticated communication device; receiving voice data from the authenticated communication device; outputting a voice signal corresponding to the received voice data to a user; receiving the voice signal from the user; and transmitting voice data corresponding to the received voice signal to the communication device, characterized by: when a call device calling command is input by the user, retrieving information about one or more communication devices, receiving selection of a lost communication device from among the one or more communication devices, calling the lost communication device and requesting output of a sound to the lost communication device.
A method for implementing multi-party call control in a hybrid telecommunications network having a cellular voice access network and a VoIP, Voice over Internet Protocol, core network, the method comprising: making a connection to a first remote party in a first call between a user on a mobile device and the first remote party, the mobile device accessing the hybrid telecommunications network through the cellular voice access network in an original call session; receiving (1225, 1230) a request for a first new call session from the cellular voice access network to make a connection for a second call to a second remote party, the request including a caller-ID for the second remote party, the cellular voice access network placing the first call on hold when making the request; releasing the first new call session so that the cellular voice access network un-holds the first call and restores the original call session; and using the original call session, placing, by the VoIP core network, the first call on hold and making the connection for the second call to the second remote party so that a single call session is implemented in the cellular voice access network and audio from the second remote party is flowing over the single call session to the mobile device on the original call session. making a connection to a first remote party in a first call between a user on a mobile device and the first remote party, the mobile device accessing the hybrid telecommunications network through the cellular voice access network in an original call session; receiving (1225, 1230) a request for a first new call session from the cellular voice access network to make a connection for a second call to a second remote party, the request including a caller-ID for the second remote party, the cellular voice access network placing the first call on hold when making the request; releasing the first new call session so that the cellular voice access network un-holds the first call and restores the original call session; and using the original call session, placing, by the VoIP core network, the first call on hold and making the connection for the second call to the second remote party so that a single call session is implemented in the cellular voice access network and audio from the second remote party is flowing over the single call session to the mobile device on the original call session.
Cleaning device for narrow-necked channels, tubes, lines or the like, comprising a rinsing chamber, a distribution chamber that has a medium inlet and a medium outlet, a cleaning fluid supply line and a compressed air supply line, the distribution chamber being connected on the inlet side to the cleaning fluid supply line, and the distribution chamber comprising, on the output side, connection terminals for replaceably arranging narrow-necked channels, tubes, lines or the like to be cleaned, the compressed air supply line opening into the cleaning fluid supply line, characterised in that the rinsing chamber accommodates the distribution chamber and the connection terminals each have a flow cross section that is reduced relative to the flow cross section of the cleaning fluid supply line, such that a dynamic pressure can be produced inside the distribution chamber.
A kit, comprising an object delivery arrangement (101, 111, 201, 203, 204a) for delivering objects into bone, and retention means (108, 113, 109, 111, 112, 200, 201, 203, 204a-e) formed by one of - a covering layer having a lower perfusion coefficient than the embracing tissues, - an active object having a size sufficient to prevent passive diffusion out of the target in the bone, - a substance configured to expand and cover the target site in the bone, and - means for subsequent application of mechanical waves for maintaining the substance in the target, after application of mechanical waves for depositing the substance, wherein said object delivery arrangement comprises an ultrasound, photo-acoustics or plasma source configured to generate localized mechanical waves, and wherein said object delivery arrangement is configured to - perform localized deposition of the objects near bone, - expose the objects and the bone to said localized mechanical waves to force the objects into the bone, and - wherein said retention means is configured to perform retention of the deposited objects in the bone, so as to prevent the deposed objects from escaping the target site in the bone. - a covering layer having a lower perfusion coefficient than the embracing tissues, - an active object having a size sufficient to prevent passive diffusion out of the target in the bone, - a substance configured to expand and cover the target site in the bone, and - means for subsequent application of mechanical waves for maintaining the substance in the target, after application of mechanical waves for depositing the substance, - perform localized deposition of the objects near bone, - expose the objects and the bone to said localized mechanical waves to force the objects into the bone, and - wherein said retention means is configured to perform retention of the deposited objects in the bone, so as to prevent the deposed objects from escaping the target site in the bone.