mhurhangee/patent-ind-claim-en huggingface dataset:
An X-ray fluoroscopic imaging system, characterized in that , comprising: an inspection passage through which an inspected object is passed; an electron accelerator comprising an electron accelerating unit , an electron emitting unit and a target , the electron beam (E) coming from the electron emitting unit and accelerated by the electron accelerating unit bombarding the target to generate X-rays at a target point (O) (page 11, I 33 - page 12, line 9); a shielding collimator apparatus comprising a shielding structure , and a first collimator for extracting a lower energy planar sector X-ray beam and a second collimator for extracting a higher energy planar sector X-ray beam which are disposed within the shielding structure; a lower energy detector array for receiving the X-ray beam from the first collimator; a higher energy detector array for receiving the X-ray beam from the second collimator; wherein the shielding structure surrounds the target; wherein the first collimator, the lower energy detector array and the target point (O) bombarded by the electron beam are located in a first plane; and wherein the second collimator, the higher energy detector array and the target point (O) bombarded by the electron beam are located in a second plane. an inspection passage through which an inspected object is passed; an electron accelerator comprising an electron accelerating unit , an electron emitting unit and a target , the electron beam (E) coming from the electron emitting unit and accelerated by the electron accelerating unit bombarding the target to generate X-rays at a target point (O) (page 11, I 33 - page 12, line 9); a shielding collimator apparatus comprising a shielding structure , and a first collimator for extracting a lower energy planar sector X-ray beam and a second collimator for extracting a higher energy planar sector X-ray beam which are disposed within the shielding structure; a lower energy detector array for receiving the X-ray beam from the first collimator; a higher energy detector array for receiving the X-ray beam from the second collimator; wherein the shielding structure surrounds the target; wherein the first collimator, the lower energy detector array and the target point (O) bombarded by the electron beam are located in a first plane; and wherein the second collimator, the higher energy detector array and the target point (O) bombarded by the electron beam are located in a second plane.
A method comprising: receiving a request for content selection data; and in response to the request, selecting an active graph corresponding to the request, in which the active graph is preloaded into an in-memory content selection graph data store and contains information corresponding to the content selection data; accessing the information in the active graph; and returning a response comprising the information, characterised in the method further comprises preloading the active graph into the in-memory content selection graph data store in association with a start time at which the active graph becomes active, wherein the active graph comprises a graph of a plurality of graphs preloaded into the in-memory content selection graph data store, and wherein the selecting the active graph comprises identifying the active graph from among the plurality of graphs based on a current time. receiving a request for content selection data; and in response to the request, selecting an active graph corresponding to the request, in which the active graph is preloaded into an in-memory content selection graph data store and contains information corresponding to the content selection data; accessing the information in the active graph; and returning a response comprising the information, characterised in the method further comprises preloading the active graph into the in-memory selecting an active graph corresponding to the request, in which the active graph is preloaded into an in-memory content selection graph data store and contains information corresponding to the content selection data; accessing the information in the active graph; and returning a response comprising the information, characterised in the method further comprises preloading the active graph into the in-memory content selection graph data store in association with a start time at which the active graph becomes active, wherein the active graph comprises a graph of a plurality of graphs preloaded into the in-memory content selection graph data store, and wherein the selecting the active graph comprises identifying the active graph from among the plurality of graphs based on a current time.
Machine for the processing of volumetric objects in an assembled state by thermal cutting, consisting of a frame /1/, whereupon to the lower part of the frame /1/ is mounted a work table /3/, including manipulator having the possibility of movement in a coordinate system with two mutually perpendicular axes X and Y where is provided a laser cutting head/13/ wherein in the end parts of the frame /1/, on the horizontally oriented beams /5/ are fixed linear guide ways, on which are placed two vertical oriented carriages /6/, parallel one to another, wherein at their upper end the carriages /6/ are connected with a cross beam /7/, oriented toward axis X and perpendicular to axis Y, and wherein on the cross beam /7/ are mounted at least two linear guide ways to which a horizontally oriented carriage /8/ is connected, with the possibility of movement along the axis X, wherein to the carriage / 8 / is mounted a ram /9/ with attached guide ways on it, which move in the carriage /8/ with the possibility of movement in the vertical direction along axis Z, wherein at the bottom end of the ram /9/ are mounted two rotary axes, oriented perpendicular one to another, respectively the vertical axis "C" /10/ and axis "B" which can rotate in horizontal plane /11/, the machine characterised in that : to the rotary unit of the axis "B" is mounted a driving mechanism of a translational axis "LH" /12/, on which translational axis is mounted said laser cutting head /13/ and a secondary work head, which can be a drilling or a threading head powered with a separate driving mechanism.
A pharmaceutical composition comprising a synergistic combination of trazodone or a salt thereof in an amount of from 0.01 mg/kg to 1 mg/kg and gabapentin or a salt or prodrug thereof in an amount of from 0.1 mg/kg to 15 mg/kg, wherein the weight ratio between trazodone and gabapentin is of from 1:20 to 1:5 and said gabapentin prodrug is gabapentin enacarbil.
A method of estimating a time calibration value for a user equipment, UE , at a given entity , comprising: obtaining a location of at least one terrestrial transmit station of a first Synchronized Wireless Transmission Network, SWTN ; determining transmit station calibration information associated with the at least one terrestrial transmit station ; determining a location of the UE that is in wireless communication range with the at least one terrestrial transmit station; and estimating the time calibration value for the UE based on the obtained transmit station location, the determined transmit station calibration information and the determined location of the UE, wherein the time calibration value is a time offset in time of arrival due to radio frequency (RF) processing in a receiver of the UE . obtaining a location of at least one terrestrial transmit station of a first Synchronized Wireless Transmission Network, SWTN ; determining transmit station calibration information associated with the at least one terrestrial transmit station ; determining a location of the UE that is in wireless communication range with the at least one terrestrial transmit station; and estimating the time calibration value for the UE based on the obtained transmit station location, the determined transmit station calibration information and the determined location of the UE, wherein the time calibration value is a time offset in time of arrival due to radio frequency (RF) processing in a receiver of the UE .
Moulded brick , in particular made of concrete, for creating a ground cover, comprising a base body with an upper side and a lower side and four side faces parallel to a brick height , with studs arranged on at least one side face , wherein the studs are arranged in a grid unit , wherein the studs are arranged so that, when moulded bricks are laid adjacent to one another as intended, studs of the one moulded brick engage in the gaps between studs of the other moulded brick , wherein the grid unit begins with one stud at one edge of the side face and the same grid unit or a further grid unit ends at the opposite edge of the same side face with a stud spaced apart from the edge by a gap, characterised in that the grid unit has space for a number of n=4 studs arranged equidistant from one another, from which a lower number of n-1 studs is formed and the difference between the number and the lower number is formed by an empty position in place of a stud, wherein the outer studs are completed and the empty position replaces one of the inner studs , wherein the outer studs in the grid unit have a smaller depth than the inner studs . wherein the studs are arranged in a grid unit , wherein the studs are arranged so that, when moulded bricks are laid adjacent to one another as intended, studs of the one moulded brick engage in the gaps between studs of the other moulded brick , wherein the grid unit begins with one stud at one edge of the side face and the same grid unit or a further grid unit ends at the opposite edge of the same side face with a stud spaced apart from the edge by a gap, characterised in that the grid unit has space for a number of n=4 studs arranged equidistant from one another, from which a lower number of n-1 studs is formed and the difference between the number and the lower number is formed by an empty position in place of a stud, wherein the outer studs are completed and the empty position replaces one of the inner studs , wherein the outer studs in the grid unit have a smaller depth than the inner studs .
A buoyancy generator for assisting an occupant of a vehicle to escape when an inundation accident occurs, the buoyancy generator comprising: a housing configured to be detachably mounted in the vehicle; a buoyancy generating unit mounted in the housing and including: a tube to be inflated and deployed to an outside of the housing when inflated; and a gas supply connected to the tube and configured to supply an inflation gas to the tube during operation thereof; and a handle unit provided in the housing to be operated to deploy the tube so that the tube floats to a water surface due to buoyancy of the tube to allow an occupant gripping the handle unit to float to the water surface with the tube ; characterized in that a connection line configured to be detachably connected between the housing and a vehicle body such that the connection line is disconnected from the housing when the tube is deployed. a housing configured to be detachably mounted in the vehicle; a buoyancy generating unit mounted in the housing and including: a tube to be inflated and deployed to an outside of the housing when inflated; and a gas supply connected to the tube and configured to supply an inflation gas to the tube during operation thereof; and a tube to be inflated and deployed to an outside of the housing when inflated; and a gas supply connected to the tube and configured to supply an inflation gas to the tube during operation thereof; and a handle unit provided in the housing to be operated to deploy the tube so that the tube floats to a water surface due to buoyancy of the tube to allow an occupant gripping the handle unit to float to the water surface with the tube ; characterized in that a connection line configured to be detachably connected between the housing and a vehicle body such that the connection line is disconnected from the housing when the tube is deployed.
An infusion device comprising: a plunger situated within a vessel so as to define a chamber within which a volume of fluid can be accommodated between a downstream surface of the plunger and the vessel; an outflow path through which the fluid in the chamber can be dispensed upon displacement of the plunger by a force acting thereon; and a variable flow resistor being situated within the outflow path, and being configured to include a permeable member and a solid member that is attached to the plunger such that displacement of the plunger acts to move the solid member relative to the permeable member to vary resistance to fluid flow from the chamber, so as to maintain a substantially constant fluid flow rate from the vessel by increasing an area across the permeable member through which fluid within the outflow path can flow as the force acting on the plunger decreases. a plunger situated within a vessel so as to define a chamber within which a volume of fluid can be accommodated between a downstream surface of the plunger and the vessel; an outflow path through which the fluid in the chamber can be dispensed upon displacement of the plunger by a force acting thereon; and a variable flow resistor being situated within the outflow path, and being configured to include a permeable member and a solid member that is attached to the plunger such that displacement of the plunger acts to move the solid member relative to the permeable member to vary resistance to fluid flow from the chamber, so as to maintain a substantially constant fluid flow rate from the vessel by increasing an area across the permeable member through which fluid within the outflow path can flow as the force acting on the plunger decreases.
An oscillating heat pipe comprising: at least one condenser region configured to be positioned in a first portion of a bendable electronic device ; at least one evaporator region configured to be positioned in a second portion of the bendable electronic device ; and at least one bendable region provided between the condenser region and the evaporator region and configured to extend across a hinge of the bendable electronic device characterised in that the at least one bendable region comprises a polymer tubing supported by a flexible helical support structure . at least one condenser region configured to be positioned in a first portion of a bendable electronic device ; at least one evaporator region configured to be positioned in a second portion of the bendable electronic device ; and at least one bendable region provided between the condenser region and the evaporator region and configured to extend across a hinge of the bendable electronic device characterised in that the at least one bendable region comprises a polymer tubing supported by a flexible helical support structure .
A three-dimensional molding machine comprising: a three-dimensional molding device configured to mold a three-dimensional object (Fr) on a molding pallet (Pm); a circuit forming device configured to form a circuit pattern on the molded object (Fr) during or after molding; a component mounting device configured to mount an electronic component on the circuit pattern formed on the molded object (Fr); a pallet conveyance device configured to convey the molded object (Fr) together with the molding pallet (Pm) between the three-dimensional molding device , the circuit forming device , and the component mounting device ; and a component conveyance device configured to convey the electronic components into the component mounting device from an outside of the machine characterized in that: the three-dimensional molding machine is configured by integrating a molding block and a mounting block on two different sides, wherein the pallet conveyance device is disposed in the molding block , wherein the component conveyance device is disposed at a position ahead of the pallet conveyance device in the mounting block so as to be parallel to it. a three-dimensional molding device configured to mold a three-dimensional object (Fr) on a molding pallet (Pm); a circuit forming device configured to form a circuit pattern on the molded object (Fr) during or after molding; a component mounting device configured to mount an electronic component on the circuit pattern formed on the molded object (Fr); a pallet conveyance device configured to convey the molded object (Fr) together with the molding pallet (Pm) between the three-dimensional molding device , the circuit forming device , and the component mounting device ; and a component conveyance device configured to convey the electronic components into the component mounting device from an outside of the machine characterized in that: the three-dimensional molding machine is configured by integrating a molding block and a mounting block on two different sides, wherein the pallet conveyance device is disposed in the molding block , wherein the component conveyance device is disposed at a position ahead of the pallet conveyance device in the mounting block so as to be parallel to it. the three-dimensional molding machine is configured by integrating a molding block and a mounting block on two different sides, wherein the pallet conveyance device is disposed in the molding block , wherein the component conveyance device is disposed at a position ahead of the pallet conveyance device in the mounting block so as to be parallel to it.
Process for weighing the harvested crop stored in at least one tank supported by a frame of a harvesting machine, said frame being mounted on a wheel set by means of a lifting device which is operable to move said frame upwardly and downwardly upon controlling a hydraulic system of said machine, said process comprising an acquisition procedure (C, D, E) wherein, upon controlling the hydraulic system for lowering and raising the frame on a displacement course, the process providing for: • determining at least one height position of the frame on said displacement course; characterized in that the process further provides for • measuring the lowering A1, B3 and the raising A2, B4 pressures in the hydraulic system at said position; • calculating, from said measured pressures, a balancing pressure P f , Pe for said frame; wherein: • said acquisition procedure is performed before unloading the stored crop in order to calculate a loaded balancing pressure P f and after said unloading in order to calculate an empty balancing pressure P e ; and • the weight W of the stored crop is calculated from a pressure variation ΔP between said balancing pressures. • determining at least one height position of the frame on said displacement course; characterized in that the process further provides for • measuring the lowering A1, B3 and the raising A2, B4 pressures in the hydraulic system at said position; • calculating, from said measured pressures, a balancing pressure P f , Pe for said frame; • said acquisition procedure is performed before unloading the stored crop in order to calculate a loaded balancing pressure P f and after said unloading in order to calculate an empty balancing pressure P e ; and • the weight W of the stored crop is calculated from a pressure variation ΔP between said balancing pressures.
A driving circuit configured to drive a memory array of a non-volatile memory , the driving circuit comprising a driving stage , the driving stage comprising: a first level shifter comprising a first input terminal, a first inverted input terminal, a first output terminal and a second output terminal, wherein the first input terminal receives a first control signal (Ctl1A), and the first inverted input terminal receives an inverted first control signal (Ctl1B); and a second level shifter comprising a second input terminal, a second inverted input terminal, a third output terminal and a fourth output terminal, wherein the second input terminal receives a second control signal (Ctl2A), the second inverted input terminal receives an inverted second control signal (Ctl2B), the first output terminal and the third output terminal are directly connected with each other to generate an output signal (OUT), and the second output terminal and the fourth output terminal are directly connected with each other to generate an inverted output signal (ZOUT), wherein according to an enabling signal set (EN1, EN2, EN3, EN3I, EN4), the first level shifter is enabled when the driving circuit is in a first operation mode and is disabled when the driving circuit is in a second operation mode, and the second level shifter , according to the enabling signal set (EN1, EN2, EN3, EN3I, EN4), is enabled when the driving circuit is in the second operation mode and is disabled when the driving circuit is in the first operation mode. a first level shifter comprising a first input terminal, a first inverted input terminal, a first output terminal and a second output terminal, wherein the first input terminal receives a first control signal (Ctl1A), and the first inverted input terminal receives an inverted first control signal (Ctl1B); and a second level shifter comprising a second input terminal, a second inverted input terminal, a third output terminal and a fourth output terminal, wherein the second input terminal receives a second control signal (Ctl2A), the second inverted input terminal receives an inverted second control signal (Ctl2B), the first output terminal and the third output terminal are directly connected with each other to generate an output signal (OUT), and the second output terminal and the fourth output terminal are directly connected with each other to generate an inverted output signal (ZOUT), wherein according to an enabling signal set (EN1, EN2, EN3, EN3I, EN4), the first level shifter is enabled when the driving circuit is in a first operation mode and is disabled when the driving circuit is in a second operation mode, and the second level shifter , according to the enabling signal set (EN1, EN2, EN3, EN3I, EN4), is enabled when the driving circuit is in the second operation mode and is disabled when the driving circuit is in the first operation mode.
A compressor system (100, 200; 100', 200') of a vehicle, in particular a utility vehicle, having at least one compressor that has at least one oil sump and at least one temperature monitoring device (66; 166, 266; 166', 266'), and having at least one heat exchanger , the compressor , the oil sump , the heat exchanger and the temperature monitoring device (66; 166, 266; 166', 266') being operatively connected, characterised in that , furthermore, the temperature monitoring device (66; 166, 266; 166', 266') has at least one compressor start-up switching state and at least one compressor low-temperature switching state, and that the compressor start-up switching state is assigned to at least one first temperature range of the oil and the compressor low-temperature switching state is assigned to at least one second temperature range of the oil , and that in the compressor start-up switching state the oil flowing out of the compressor can be recirculated back to it at least via the heat exchanger in order to heat the oil and that in the compressor low-temperature switching state the oil flowing out of the compressor cannot be recirculated back to it via the heat exchanger .