mhurhangee/ep-ind-claims huggingface dataset:
Distance camera for determining a distance value R abs between an object and the distance camera within a predetermined distance range, comprising at least one photo element, a trigger generator for activating the photo element during a temporal integration gate (30, 31), a light source for illuminating the object with light pulses having a predetermined temporal intensity profile with a duration T p, and an intensity sensor for determining the intensity I p of the light pulses arriving on the photo element, wherein the integration gate has a predetermined delay to the light pulse emission start point in time in order to capture the light pulses back reflected from the object such that either T o or T o +T p is between an integration start point in time T 1b of the integration gate and an integration end point in time T 1e of the integration gate, with T o being the first point in time when the light pulse arrives on the photo element, wherein the photo element is adapted to output a signal value U at the integration end point in time T 1e with the signal value U depending on the intensity I p and the duration of the light pulse arriving on the photo element during its activation, characterised in that the camera comprises a memory unit adapted to store predetermined parameters of an explicit correction value function Δ = f(I p) for the photo element, and an evaluation unit adapted to determine a raw distance value R raw from the signal value U and the intensity I p and to add the raw distance value R raw and the correction value Δ(I p) so as to obtain the distance value R abs.
A transmission method, applied to a first network node and comprising: sending, by the first network node, a first message to a second network node, wherein the first message is from a terminal device and wherein the first message comprises an original cell radio network temporary identifier allocated by the first network node for the terminal device; receiving, by the first network node, a second message from the second network node, wherein the second message comprises identification information of the terminal device, and wherein the identification information of the terminal device is in association with context information of the terminal device that is stored at the first network node; retrieving, by the first network node, based on the identification information of the terminal device, the context information of the terminal device stored at the first network node; and, replacing, by the first network node, the original cell radio network temporary identifier with a new cell radio network temporary identifier allocated by the first network node for the context information of the terminal device. sending, by the first network node, a first message to a second network node, wherein the first message is from a terminal device and wherein the first message comprises an original cell radio network temporary identifier allocated by the first network node for the terminal device; receiving, by the first network node, a second message from the second network node, wherein the second message comprises identification information of the terminal device, and wherein the identification information of the terminal device is in association with context information of the terminal device that is stored at the first network node; retrieving, by the first network node, based on the identification information of the terminal device, the context information of the terminal device stored at the first network node; and, replacing, by the first network node, the original cell radio network temporary identifier with a new cell radio network temporary identifier allocated by the first network node for the context information of the terminal device.
Composition comprising: - one or more vinylformamide/vinylamine copolymers comprising: - vinylamine units of formula: and - vinylformamide units of formula: - one or more fixing polymers other than vinylformamide/vinylamine copolymers; - one or more nonionic surfactants chosen from oxyalkylenated fatty alcohols comprising a linear or branched, saturated or unsaturated alkyl chain containing at least 8 carbon atoms; and - one or more cationic surfactants. - one or more vinylformamide/vinylamine copolymers comprising: - vinylamine units of formula: and - vinylformamide units of formula: - vinylamine units of formula: and - vinylformamide units of formula: - one or more fixing polymers other than vinylformamide/vinylamine copolymers; - one or more nonionic surfactants chosen from oxyalkylenated fatty alcohols comprising a linear or branched, saturated or unsaturated alkyl chain containing at least 8 carbon atoms; and - one or more cationic surfactants.
A method of controlling an aircraft having multiple configurations or modes, wherein each configuration is controlled by a different control law implemented by a flight control device and wherein transition from one configuration or mode to another configuration or mode is achieved by gradually blending out a control law for said one configuration or mode and by gradually increasing an impact of a control law for said other configuration or mode in said flight control device based on an estimated or measured flight condition of the aircraft, characterized in that said transition is further achieved by dynamically adjusting, in said flight control device, respective maximum and minimum limit values of control volumes, which control volumes are defined by parameter ranges of control parameters in connection with a corresponding control law, wherein a control volume, for a given mode, is a multi-dimensional volume defined between said respective maximum and minimum limit values u pi min, u pi max, of pseudo control inputs u pi for said given mode i, wherein u pi consists of control thrust and control torques around roll, pitch and yaw axes of the aircraft; wherein said parameter ranges are defined between maximum and minimum limit values u p 1 max and u p 1 min, respectively, for said one or primary mode, and maximum and minimum limit values u p 2 max and u p 2 min, respectively, for said other or secondary mode, with u p 1 and u p 2 being pseudo control inputs computed using the control laws for primary and secondary modes, respectively, both for controlling the aircraft motion and prior to allocation to different actuators (a 1, a 2) thereof; wherein during transition both modes are active and both u p 1 and u p 2 are actively being computed. said transition is further achieved by dynamically adjusting, in said flight control device, respective maximum and minimum limit values of control volumes, which control volumes are defined by parameter ranges of control parameters in connection with a corresponding control law, wherein a control volume, for a given mode, is a multi-dimensional volume defined between said respective maximum and minimum limit values u pi min, u pi max, of pseudo control inputs u pi for said given mode i, wherein u pi consists of control thrust and control torques around roll, pitch and yaw axes of the aircraft; wherein said parameter ranges are defined between maximum and minimum limit values u p 1 max and u p 1 min, respectively, for said one or primary mode, and maximum and minimum limit values u p 2 max and u p 2 min, respectively, for said other or secondary mode, with u p 1 and u p 2 being pseudo control inputs computed using the control laws for primary and secondary modes, respectively, both for controlling the aircraft motion and prior to allocation to different actuators (a 1, a 2) thereof; wherein during transition both modes are active and both u p 1 and u p 2 are actively being computed.
A steering system, comprising: an operation mechanism that includes an operation member used to perform a steering operation; and a steered mechanism that is not mechanically coupled to the operation mechanism, and that steers a wheel based on the steering operation of the operation member, wherein the operation mechanism includes a steering angle sensor that detects a steering angle of the operation member and a steering direction detection unit that detects a steering direction of the operation member, characterized in that the steering direction detection unit includes a threaded shaft that is rotatable in the steering direction of the operation member, a nut that is screwed to the threaded shaft, a nut guide that is a shaft member arranged parallel to the threaded shaft and passing through the nut and that causes the nut to move in an axial direction of the threaded shaft in accordance with rotation of the threaded shaft, and a force detection unit that detects a force that the nut guide receives from the nut. an operation mechanism that includes an operation member used to perform a steering operation; and a steered mechanism that is not mechanically coupled to the operation mechanism, and that steers a wheel based on the steering operation of the operation member, wherein the operation mechanism includes a steering angle sensor that detects a steering angle of the operation member and a steering direction detection unit that detects a steering direction of the operation member, the steering direction detection unit includes a threaded shaft that is rotatable in the steering direction of the operation member, a nut that is screwed to the threaded shaft, a nut guide that is a shaft member arranged parallel to the threaded shaft and passing through the nut and that causes the nut to move in an axial direction of the threaded shaft in accordance with rotation of the threaded shaft, and a force detection unit that detects a force that the nut guide receives from the nut.
A magnetic filter for a central heating or cooling system, the magnetic filter comprising: a pipe having an inlet end and an outlet end, and a filtration portion between the inlet and outlet ends (26, 28), the diameter of the filtration portion of the pipe being greater than the diameter of the inlet end of the pipe and also greater than the diameter of the outlet end of the pipe, and a magnet assembly attached to the pipe, around an outside surface of the filtration portion of the pipe, the magnet assembly being retained on the pipe on a hinge or pivot to allow movement of the magnet assembly relative to the pipe, and the magnet assembly being movable relative to the pipe from a position close to the pipe to a position more distant from the pipe, the magnet assembly comprising a plurality of magnetic elements in a clamshell arrangement, and the magnet assembly comprising at least two rigid sections connected to each other at the hinge or pivot to form the clamshell arrangement. a pipe having an inlet end and an outlet end, and a filtration portion between the inlet and outlet ends (26, 28), the diameter of the filtration portion of the pipe being greater than the diameter of the inlet end of the pipe and also greater than the diameter of the outlet end of the pipe, and a magnet assembly attached to the pipe, around an outside surface of the filtration portion of the pipe, the magnet assembly being retained on the pipe on a hinge or pivot to allow movement of the magnet assembly relative to the pipe, and the magnet assembly being movable relative to the pipe from a position close to the pipe to a position more distant from the pipe, the magnet assembly comprising a plurality of magnetic elements in a clamshell arrangement, and the magnet assembly comprising at least two rigid sections connected to each other at the hinge or pivot to form the clamshell arrangement.
A method for treating effluent seawater generated in the removal of sulphur dioxide from a process gas by contacting the process gas containing sulphur dioxide with seawater, comprising bringing the effluent seawater into contact with oxygen in the presence of an enzyme, which is active for catalytic oxidation of bisulphite and/or sulphite ions of the effluent seawater to form sulphate ions, blowing an oxygen containing gas into the effluent seawater to form a mixing region in an oxidation basin in which the oxygen containing gas and effluent seawater are mixed, arranging a presence of said enzyme adjacent to said mixing region by means of an enzyme contacting system, and passing the effluent seawater through an oxidation basin characterized by the enzyme contacting system having at least one carrier in the form of an enzyme supporting structure arranged in and fixed to the oxidation basin so as to carry said enzyme in an immobilized state.
A pharmaceutical composition comprising: (a) multilayer nanoconstructs comprising a cationic polymer bound to an exterior surface of a nanoparticle, wherein the cationic polymer is cross-linked and is from about 5% to about 30% by weight of the nanoconstruct, wherein the nanoparticle comprises silica, silicon, iron oxide, silver, or a carbon nanotube, wherein the nanoconstruct has a hydrodynamic diameter of from 10 to 200 nm, and wherein the multilayer nanoconstruct further comprises a stabilizer bound to the cationic polymer or nanoparticle, wherein the stabilizer prevents aggregation of the nanoconstruct in solution; (b) a therapeutic agent, wherein the therapeutic agent is at least one type of oligonucleotide electrostatically bound to the cationic polymer; and (c) a pharmaceutically acceptable carrier. (a) multilayer nanoconstructs comprising a cationic polymer bound to an exterior surface of a nanoparticle, wherein the cationic polymer is cross-linked and is from about 5% to about 30% by weight of the nanoconstruct, wherein the nanoparticle comprises silica, silicon, iron oxide, silver, or a carbon nanotube, wherein the nanoconstruct has a hydrodynamic diameter of from 10 to 200 nm, and wherein the multilayer nanoconstruct further comprises a stabilizer bound to the cationic polymer or nanoparticle, wherein the stabilizer prevents aggregation of the nanoconstruct in solution; (b) a therapeutic agent, wherein the therapeutic agent is at least one type of oligonucleotide electrostatically bound to the cationic polymer; and (c) a pharmaceutically acceptable carrier.
Use of a composition comprising wolfberries (Lycium barbarum) fruits and milk or a milk-protein containing carrier for the preparation of a dermatological product for oral administration as a food supplement, for use in treating and/or preventing skin inflammation selected from the group consisting of UV or chemical-induced skin inflammation, eczema, psoriasis, vitiligo, acne and atopic dermatitis wherein the composition and/or the product excludes insoluble fibers, wherein the composition is obtainable by a process comprising the steps of: i) mixing and milling wolfberry fruits in milk or milk protein-containing liquid medium, ii) separating insoluble fibers to obtain an aqueous suspension iii) optionally pasteurising the resulting suspension iv) optionally adding synthetic or natural bioactive components during the processing v) and further optionally drying the suspension to obtain a powder.
A method for connecting a Domain Name System "DNS" secure resolution protocol, the method comprising: determining, by a protection module, a DNS query from a client; determining, by the protection module, a fulfillment of at least one condition for connecting the DNS secure resolution protocol, wherein the at least one condition is obtained from a database; and wherein the condition for connecting a DNS secure resolution protocol comprises at least one of: a lowering of a mean data transfer rate in a computer network; connecting to a public access point; obtaining access to one or more corporate resources in the computer network; obtaining access to resources from a list of protected resources; an address of a requested resource not being obtained using a DNS protocol; connecting, by the protection module, the DNS secure resolution protocol for the client when the at least one condition for connecting the DNS secure resolution protocol is fulfilled; determining whether an availability of the network connection decreases after the connection of the DNS secure resolution protocol; and connecting to a different DNS secure resolution protocol when the availability of the network connection decreases after the connection of the DNS secure resolution protocol. determining, by a protection module, a DNS query from a client; determining, by the protection module, a fulfillment of at least one condition for connecting the DNS secure resolution protocol, wherein the at least one condition is obtained from a database; and wherein the condition for connecting a DNS secure resolution protocol comprises at least one of: a lowering of a mean data transfer rate in a computer network; connecting to a public access point; obtaining access to one or more corporate resources in the computer network; obtaining access to resources from a list of protected resources; an address of a requested resource not being obtained using a DNS protocol; connecting, by the protection module, the DNS secure resolution protocol for the client when the at least one condition for connecting the DNS secure resolution protocol is fulfilled; determining whether an availability of the network connection decreases after the connection of the DNS secure resolution protocol; and connecting to a different DNS secure resolution protocol when the availability of the network connection decreases after the connection of the DNS secure resolution protocol.
A method of producing metal alloy powders comprising: introducing an α-phase titanium alloy hydride feed material into a microwave generated plasma torch; directing the feed material toward a plasma within the plasma torch; melting, dehydrogenating and spheroidizing the feed material within the plasma to form dehydrogenated and spheroidized α-phase titanium alloy particles; directing the dehydrogenated and spheroidized particles from the plasma to a chamber having an inert gas; rapidly cooling and solidifying the dehydrogenated and spheroidized particles in the chamber having the inert gas, wherein the cooling of the dehydrogenated and spheroidized particles forms an acicular microstructure in the dehydrogenated and spheroidized particles, wherein the acicular microstructure comprises a martensitic microstructure; and collecting the dehydrogenated and spheroidized particles. introducing an α-phase titanium alloy hydride feed material into a microwave generated plasma torch; directing the feed material toward a plasma within the plasma torch; melting, dehydrogenating and spheroidizing the feed material within the plasma to form dehydrogenated and spheroidized α-phase titanium alloy particles; directing the dehydrogenated and spheroidized particles from the plasma to a chamber having an inert gas; rapidly cooling and solidifying the dehydrogenated and spheroidized particles in the chamber having the inert gas, wherein the cooling of the dehydrogenated and spheroidized particles forms an acicular microstructure in the dehydrogenated and spheroidized particles, wherein the acicular microstructure comprises a martensitic microstructure; and collecting the dehydrogenated and spheroidized particles.
A battery system comprising: a system bus; a system controller coupled to the system bus and configured to transmit one or more first system frames on the system bus; and one or more battery subsystems (210-1 - 210-1) coupled to the system bus and configured to transmit one or more second system frames on the system bus, wherein at least one of the one or more battery subsystems (210-1 - 210-1) comprises: a storage system for storing power; and a storage system controller for controlling charging and discharging of the storage system, for receiving storage system data, and for transmitting the one or more second system frames including the storage system data on the system bus, characterized in that at least one of the system controller or the storage system controller is configured to apply a system frame division signal on the system bus between the system frames, to occupy the system bus. a system bus; a system controller coupled to the system bus and configured to transmit one or more first system frames on the system bus; and one or more battery subsystems (210-1 - 210-1) coupled to the system bus and configured to transmit one or more second system frames on the system bus, wherein at least one of the one or more battery subsystems (210-1 - 210-1) comprises: a storage system for storing power; and a storage system controller for controlling charging and discharging of the storage system, for receiving storage system data, and for transmitting the one or more second system frames including the storage system data on the system bus, characterized in that at least one of the system controller or the storage system controller is configured to apply a system frame division signal on the system bus between the system frames, to occupy the system bus. a storage system for storing power; and a storage system controller for controlling charging and discharging of the storage system, for receiving storage system data, and for transmitting the one or more second system frames including the storage system data on the system bus, characterized in that at least one of the system controller or the storage system controller is configured to apply a system frame division signal on the system bus between the system frames, to occupy the system bus.
Reverse osmosis arrangement comprising a membrane unit having a housing and a membrane separating a first chamber and a second chamber in the housing, the first chamber having a first port and a second port and the second chamber being connected to a permeate outlet, wherein the first port is connected to a first pump (13 and the second port is connected to a second pump, characterized in that the first pump is operatively connected to a first reversible electric machine which can be operated in a motor mode and in a generator mode and the second pump is connected to a second reversible electric machine which can be operated in a motor mode and in a generator mode, wherein the first pump can be operated as hydraulic motor driving the first electric machine and the second pump can be operated as hydraulic motor driving the second electric machine.