mhurhangee/ep-ind-claims huggingface dataset:
A sample extraction system capable of providing sustained delivery of feed solution to a system, the sample extraction system comprising: (a) an extraction solvent source, wherein the extraction solvent comprises a fluid selected from a group consisting of (i) an organic solvent maintained at or above 86.2 bar (1250 psi) and (ii) CO2; (b) a splitter in fluid communication with the extraction solvent source, the splitter for providing two or more fluid paths downstream of the splitter; (c) a first extraction vessel assembly and a second extraction vessel assembly, each extraction vessel assembly comprising a first valve (431, 432), an inlet port (462, 464), an outlet port (463, 467), and a second valve (433, 434), the first valve being connected to the splitter, the inlet port being connected to the first valve and to an inlet (441, 445) of an extraction vessel, and the outlet port being connected to an outlet (443, 447) of the extraction vessel and being connected to the second valve; (d) a coupler, in fluid communication with the second valve of each of the first extraction vessel assembly and the second valve of the second extraction assembly, the coupler for receiving fluid flow from the two or more fluid paths upstream and delivering combined flow to a single stream downstream of the coupler; and (e) a feed injector in fluid communication with the coupler, the feed injector capable of providing a feed of extraction solvent supplied with sample for use in the system. (a) an extraction solvent source, wherein the extraction solvent comprises a fluid selected from a group consisting of (i) an organic solvent maintained at or above 86.2 bar (1250 psi) and (ii) CO2; (b) a splitter in fluid communication with the extraction solvent source, the splitter for providing two or more fluid paths downstream of the splitter; (c) a first extraction vessel assembly and a second extraction vessel assembly, each extraction vessel assembly comprising a first valve (431, 432), an inlet port (462, 464), an outlet port (463, 467), and a second valve (433, 434), the first valve being connected to the splitter, the inlet port being connected to the first valve and to an inlet (441, 445) of an extraction vessel, and the outlet port being connected to an outlet (443, 447) of the extraction vessel and being connected to the second valve; (d) a coupler, in fluid communication with the second valve of each of the first extraction vessel assembly and the second valve of the second extraction assembly, the coupler for receiving fluid flow from the two or more fluid paths upstream and delivering combined flow to a single stream downstream of the coupler; and (e) a feed injector in fluid communication with the coupler, the feed injector capable of providing a feed of extraction solvent supplied with sample for use in the system.
A device (100, 200, 300, 400) for the preparation of a hot beverage comprising a water tank, a flow heater (23, 27) and a brewing device, the water tank having a connection element for cold water, characterized in that the water tank is fluidly connected to the flow heater, so that the flow heater can be filled with the cold water from the water tank wherein the water tank comprises a tank bottom, a tank jacket and a tank lid, wherein a piston in the water tank is movable between a top dead center and a bottom dead center, wherein the water tank contains a filling space for cold water, which is arranged between the piston and the tank bottom when the piston is not located in the bottom dead center, wherein the filling space is fluidly connected to the flow heater such that the flow heater can be filled with the cold water from the filling space, so that a quantity of water corresponding to the filling space can be fed into the flow heater.
A para-amino-benzyl linker compound of Formula: wherein: • R 1 represents a hydroxy group or a halogen atom; • R 2 represents a -S 2 group, a -S 2 (O - M +) group, a linear or branched -(C 1 -C 4)alkyl-S 2 group, a linear or branched -(C 1 -C 4)alkyl-S 2 (O - M +) group, a linear or branched -halo(C 1 -C 4)alkyl-S 2 group, or a linear or branched -halo(C 1 -C 4)alkyl-S 2 (O - M +) group; • A 1 represents a -C -CH(R 3)-NH- group; • A 2 represents a -C -CH(R 4)-NH- group, a group, a group, or a group; • R 3 and R 4, independently of one another, represent the side chain of an amino acid; • X represents a hydrogen atom, a hydroxy group, or a protecting group; • M + represents a pharmaceutically acceptable monovalent cation. • R 1 represents a hydroxy group or a halogen atom; • R 2 represents a -S 2 group, a -S 2 (O - M +) group, a linear or branched -(C 1 -C 4)alkyl-S 2 group, a linear or branched -(C 1 -C 4)alkyl-S 2 (O - M +) group, a linear or branched -halo(C 1 -C 4)alkyl-S 2 group, or a linear or branched -halo(C 1 -C 4)alkyl-S 2 (O - M +) group; • A 1 represents a -C -CH(R 3)-NH- group; • A 2 represents a -C -CH(R 4)-NH- group, a group, a group, or a group; • R 3 and R 4, independently of one another, represent the side chain of an amino acid; • X represents a hydrogen atom, a hydroxy group, or a protecting group; • M + represents a pharmaceutically acceptable monovalent cation.
An antenna, comprising: a mainboard Printed Circuit Board, PCB,, a metal frame, an antenna radiation element, a first feeding branch element, a second feeding branch element, a grounding element, a feeding point, and a clearance area, wherein the metal frame and the antenna radiation element are arranged on a perimeter of a user equipment to form a frame of the user equipment, and a first gap and a second gap are provided between the metal frame and the antenna radiation element; where in the antenna radiation element comprises a U-shaped structure the antenna radiation element is arranged in the clearance area located at an upper above one side of the mainboard PCB characterized in that, the mainboard PCB is connected to the metal frame via the grounding element; the feeding point is connected to the antenna radiation element via the first feeding branch element and the second feeding branch element, separately, wherein the first feeding branch element is connected to the antenna radiation element at a central position inside the U-shaped structure of the antenna radiation element, and the second feeding branch element is connected to the antenna radiation element at one side of the central position inside the U-shaped structure of the antenna radiation element, wherein the first feeding branch element is arranged to control a low-frequency part by using a microstrip straight-line form; and the second feeding branch element is arranged to control a high-frequency part by using a microstrip tapered-line form.
Method for controlling a vehicle moving on a road, the method comprising automated steps performed by a controller of the vehicle and consisting in: a) activating an emergency braking function involving an emergency braking of the vehicle to avoid a collision, b) after said emergency braking is complete, measuring the distance (d) to the nearest obstacle in front of the vehicle; c) determining whether said distance (d) is superior to a threshold value; and d) only if said distance is superior to said threshold value, reaccelerating the vehicle. a) activating an emergency braking function involving an emergency braking of the vehicle to avoid a collision, b) after said emergency braking is complete, measuring the distance (d) to the nearest obstacle in front of the vehicle; c) determining whether said distance (d) is superior to a threshold value; and d) only if said distance is superior to said threshold value, reaccelerating the vehicle.
A centrifugal compressor for processing a wet gas comprising a liquid phase and a gaseous phase, said centrifugal compressor comprising: a casing; at least one compressor stage comprising at least one impeller rotatingly arranged in said casing and provided with an impeller hub and a plurality of impeller blades, each impeller blade having a suction side and a pressure side; wherein said at least one compressor stage comprises at least one droplet breaking arrangement (120, 122) for promoting breakup of liquid droplets arranged to flow through said compressor stage, wherein said droplet breaking arrangement comprises droplet diverters arranged on the pressure side of said impeller blades, said droplet diverters arranged to impart to liquid droplets moving along the pressure side of said impeller blades a speed component directed transversely to the main flow speed direction of the wet gas flow across said impeller; characterized in that said impeller hub comprises a plurality of grooves disposed thereon between consecutive impeller blades, said grooves being configured to direct the liquid droplets towards the pressure side of each respective impeller blade. a casing; at least one compressor stage comprising at least one impeller rotatingly arranged in said casing and provided with an impeller hub and a plurality of impeller blades, each impeller blade having a suction side and a pressure side; wherein said at least one compressor stage comprises at least one droplet breaking arrangement (120, 122) for promoting breakup of liquid droplets arranged to flow through said compressor stage, wherein said droplet breaking arrangement comprises droplet diverters arranged on the pressure side of said impeller blades, said droplet diverters arranged to impart to liquid droplets moving along the pressure side of said impeller blades a speed component directed transversely to the main flow speed direction of the wet gas flow across said impeller; characterized in that said impeller hub comprises a plurality of grooves disposed thereon between consecutive impeller blades, said grooves being configured to direct the liquid droplets towards the pressure side of each respective impeller blade.
Isochronous timepiece oscillator mechanism of the tuning fork type, comprising a fixed support and a crosspiece carrying a plurality of primary resonators each including at least one weight carried by a flexible elastic strip constituting an elastic return means and that is arranged such that it can flex and that is embedded in said crosspiece, where said primary resonators have at least one identical resonance mode, and are arranged such that they vibrate according to a phase shift therebetween of the value 2π/n, where n is the number of said primary resonators, and are arranged according to a spatial symmetry such that the resultant of the forces and torques applied by said primary resonators on said crosspiece is zero, and where said crosspiece is fixed to said fixed support by a resilient main connection, whose stiffness is greater than the stiffness of each said flexible elastic strip, and wherein said primary resonators are spatially arranged such that the resultant of the working errors thereof caused by gravitation is zero, wherein said flexible elastic strips that it includes are straight strips (61, 62) that extend substantially in a longitudinal direction along which the centres of mass of said primary resonators are capable of moving, and characterized in that said flexible elastic strips are short strips (61, 62), the length of which is less than the smallest value of either four times the height thereof or thirty times the thickness thereof.
A user equipment for wireless communication, comprising: a memory; and one or more processors coupled to the memory, the memory and the one or more processors configured to: determine an automatic gain control parameter, for a group of downlink symbols received via a signal transmitted by a base station, based at least in part on an automatic gain control resource included in the group of downlink symbols; and perform, based at least in part on the automatic gain control parameter, automatic gain control for one or more data symbols included in the group of downlink symbols to enable regulation of the signal strength of the signal, wherein the group of downlink symbols is included in at least one of: a full-duplex resource associated with the base station, or a non-full-duplex resource associated with the base station. a memory; and one or more processors coupled to the memory, the memory and the one or more processors configured to: determine an automatic gain control parameter, for a group of downlink symbols received via a signal transmitted by a base station, based at least in part on an automatic gain control resource included in the group of downlink symbols; and perform, based at least in part on the automatic gain control parameter, automatic gain control for one or more data symbols included in the group of downlink symbols to enable regulation of the signal strength of the signal, wherein the group of downlink symbols is included in at least one of: determine an automatic gain control parameter, for a group of downlink symbols received via a signal transmitted by a base station, based at least in part on an automatic gain control resource included in the group of downlink symbols; and perform, based at least in part on the automatic gain control parameter, automatic gain control for one or more data symbols included in the group of downlink symbols to enable regulation of the signal strength of the signal, wherein the group of downlink symbols is included in at least one of: a full-duplex resource associated with the base station, or a non-full-duplex resource associated with the base station.
A paging indication transmission method, comprising: sending, by a network device, a first paging indication to a terminal device; and sending, by the network device, a second paging indication to the terminal device, wherein the first paging indication and the second paging indication form a complete paging indication of the terminal device, wherein the first paging indication is transmitted by using a first physical broadcast channel PBCH resource block, and the second paging indication is transmitted by using a second PBCH resource block; or the first paging indication is transmitted by using first remaining minimum system information RMSI, and the second paging indication is transmitted by using second RMSI; or the first paging indication is transmitted through a PBCH, and the second paging indication is transmitted by using RMSI or a physical downlink control channel PDCCH; or the first paging indication is transmitted by using RMSI or a PDCCH, and the second paging indication is transmitted through a PBCH; or the first paging indication is transmitted through a PDCCH, and the second paging indication is transmitted by using RMSI; or the first paging indication is transmitted by using RMSI, and the second paging indication is transmitted through a PDCCH. sending, by a network device, a first paging indication to a terminal device; and sending, by the network device, a second paging indication to the terminal device, wherein the first paging indication and the second paging indication form a complete paging indication of the terminal device, wherein the first paging indication is transmitted by using a first physical broadcast channel PBCH resource block, and the second paging indication is transmitted by using a second PBCH resource block; or the first paging indication is transmitted by using first remaining minimum system information RMSI, and the second paging indication is transmitted by using second RMSI; or the first paging indication is transmitted through a PBCH, and the second paging indication is transmitted by using RMSI or a physical downlink control channel PDCCH; or the first paging indication is transmitted by using RMSI or a PDCCH, and the second paging indication is transmitted through a PBCH; or the first paging indication is transmitted through a PDCCH, and the second paging indication is transmitted by using RMSI; or the first paging indication is transmitted by using RMSI, and the second paging indication is transmitted through a PDCCH.
Mortice lock having a lock cylinder that comprises a lock bit and actuates a locking bar and can be coupled by way of a thrust rod that is loaded against an end position to a spring-loaded latch that can be actuated by means of a lock nut and a handle, wherein a retaining mechanism is provided that in its activated position retains the latch in the withdrawn position in the case of a withdrawn locking bar, characterized in that the retaining mechanism comprises a latch slider that is retained in the locking bar and can be displaced in the movement direction of the thrust rod against the force of a resilient element, said latch slider comprising two receiving arrangements (19, 20) that are spaced from one another in the movement direction of said latch slider and are used to selectively support a projection of a latch lever that is connected in an articulated manner to the thrust rod, and that the projection is arranged in the deactivated position of the retaining mechanism in a first receiving arrangement, wherein in this position the thrust rod can be displaced together with the latch lever and the latch slider, and that the projection of the latch lever is supported in the activated position of the retaining mechanism in a second receiving arrangement in which the thrust rod is blocked in the upper position with a withdrawn latch.
Electronically commutated electric motor, having a stator and a, in particular permanentmagnet, rotor, and having a rotor position sensor (10, 12) which is designed to detect at least one rotor position of the rotor and to generate a rotor position signal which represents the rotor position, and having a control unit (14, 16) which is connected to the stator and is designed to supply current to the stator in order to generate a rotating magnetic field depending on the rotor position signal, wherein the electric motor has a transmitter magnet for the rotor position sensor (10, 12), wherein the transmitter magnet is rotationally connected to the rotor and is designed as a multi-pole permanent magnet, wherein a number of the magnet poles of the transmitter magnet form an integer fraction of a number of rotor magnet poles of the rotor, the electric motor has a shielding cup (40, 41) and the transmitter magnet is arranged in the shielding cup (40, 41), wherein the shielding cup (40, 41) has a base and a wall, wherein the shielding cup (40, 41) is rotationally connected to the rotor, characterized in that the rotor and the shielding cup (40, 41) are separated from one another in each case along the motor shaft longitudinal axis by a spacer, wherein the rotor and the shielding cup (40, 41) engage into the spacer, so that the rotor and the shielding cup (40, 41) are connected to one another in an interlocking and rotationally fixed manner along a rotor rotation direction around the motor shaft longitudinal axis by means of the spacer.
A transport device comprising one or more modular units as well as a driverless transport vehicle for receiving and transporting the one or more modular units to a machine tool set up on a base surface, wherein the one or more received modular units each include a machine tool accessory device usable with said machine tool, and wherein said driverless transport vehicle is movable on the base surface for positioning the one or more handling devices relative to said machine tool, in particular within a region in front of and/or next to said machine tool and/or in front of and/or next to a work space of said machine tool, characterized in that said driverless transport vehicle is configured to be moved freely on the base surface independently of a type of rail system or the like for guiding said driverless transport vehicle, and said transport device comprises, as a received modular unit, a coolant supply module unit with a coolant supply device or a coolant exchange module unit with a coolant exchange device or a coolant suction module unit with a suction device, wherein said coolant supply device is configured to supply coolant to said machine tool, said coolant exchange device is configured to exchange coolant at said machine tool, and said suction device is configured to suction used coolant from said machine tool. wherein the one or more received modular units each include a machine tool accessory device usable with said machine tool, and wherein said driverless transport vehicle is movable on the base surface for positioning the one or more handling devices relative to said machine tool, in particular within a region in front of and/or next to said machine tool and/or in front of and/or next to a work space of said machine tool, characterized in that said driverless transport vehicle is configured to be moved freely on the base surface independently of a type of rail system or the like for guiding said driverless transport vehicle, and said transport device comprises, as a received modular unit, a coolant supply module unit with a coolant supply device or a coolant exchange module unit with a coolant exchange device or a coolant suction module unit with a suction device, wherein said coolant supply device is configured to supply coolant to said machine tool, said coolant exchange device is configured to exchange coolant at said machine tool, and said suction device is configured to suction used coolant from said machine tool.
A control entity (102, 103) for a network element that comprises one or more controllable entities, the control entity comprising: - a communication mechanism for transmitting and receiving data to and from the one or more controllable entities, and - a configuration mechanism for maintaining a configuration data-set in accordance with configuration information received from one or more of the controllable entities and at least partly based on data received at the one or more of the controllable entities from a data transfer network, and for controlling the communication mechanism to transmit the configuration data-set to at least one of the controllable entities, wherein the configuration data-set expresses allocation of at least one of the following resources for implementing forwarding functionalities of the at least one of the controllable entities: hardware "HW" resources of the at least one of the controllable entities, software "SW" implemented resources of the at least one of the controllable entities, characterized in that the configuration mechanism is adapted to apply a configuration rule on the configuration information and to update the configuration data-set at least partly on the basis of a result of the configuration rule so as to maintain the configuration data-set, the configuration rule being stateless so that the result of the configuration rule is independent of earlier results of the configuration rule and of earlier configuration information. - a communication mechanism for transmitting and receiving data to and from the one or more controllable entities, and - a configuration mechanism for maintaining a configuration data-set in accordance with configuration information received from one or more of the controllable entities and at least partly based on data received at the one or more of the controllable entities from a data transfer network, and for controlling the communication mechanism to transmit the configuration data-set to at least one of the controllable entities,