mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for treating a tumor in a subject's body and facilitating delivery of a substance across cell membranes in the subject's body, the apparatus comprising: an AC voltage generator capable of generating an alternating electric field at a first frequency between 50 kHz and 500 kHz and a second frequency between 50 kHz and 500 kHz, and having a control input, the second frequency being different from the first frequency, wherein the AC voltage generator is configured to output the alternating electric field at the first frequency when the control input is in a first state and at the second frequency when the control input is in a second state; and a controller programmed to (a) place the control input in the second state so that the AC voltage generator outputs the alternating electric field at the second frequency, (b) accept a request to switch the alternating electric field to the first frequency, (c) upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the alternating electric field at the first frequency for an interval of time, and (d) after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the alternating electric field at the second frequency; characterized in that the alternating electric field has a field strength of between 1 V/cm RMS and 4 V/cm RMS. an AC voltage generator capable of generating an alternating electric field at a first frequency between 50 kHz and 500 kHz and a second frequency between 50 kHz and 500 kHz, and having a control input, the second frequency being different from the first frequency, wherein the AC voltage generator is configured to output the alternating electric field at the first frequency when the control input is in a first state and at the second frequency when the control input is in a second state; and a controller programmed to (a) place the control input in the second state so that the AC voltage generator outputs the alternating electric field at the second frequency, (b) accept a request to switch the alternating electric field to the first frequency, (c) upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the alternating electric field at the first frequency for an interval of time, and (d) after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the alternating electric field at the second frequency; characterized in that the alternating electric field has a field strength of between 1 V/cm RMS and 4 V/cm RMS.
Internal combustion engine for a motor vehicle, having at least one cylinder , a cylinder head and a piston which is mounted movably in the cylinder and has a combustion chamber side which delimits a combustion chamber with the cylinder head and the cylinder , the cylinder head having a combustion chamber roof , in which at least two valve seats for at least one inlet valve and at least one outlet valve are provided, and the combustion chamber roof having two domed cylinder head sections which are arranged between in each case a valve seat for an inlet valve and a valve seat for an outlet valve and are directed away from the combustion chamber , the cylinder head having squish faces in the form of circular face sections merely on two edge sections which lie opposite one another, characterized in that the squish faces are delimited in each case by way of one of two transitions in the cylinder head which run parallel to one another, the squish faces being assigned to an inlet side and an outlet side of the cylinder head , the squish face which is assigned to the inlet side having a greater area than the squish face which is assigned to the outlet side.
Circuit arrangement for transmitting uplink and downlink signals between at least one terminal and at least one antenna , wherein the circuit arrangement comprises at least one signal coupler for providing a decoupled uplink or downlink signal, characterized in that the circuit arrangement comprises at least one apparatus for providing a reference signal comprising at least two or more adjustable frequencies, wherein the circuit arrangement comprises at least one mixer for mixing the decoupled signal and the reference signal, and at least one filter apparatus for low-pass or bandpass filtering of the mixed signal, wherein the circuit arrangement comprises at least one evaluation apparatus for evaluating the filtered signal, which evaluation apparatus is designed, when a signal power of the filtered signal for one of the adjusted frequencies of the reference signal is greater than a threshold value, to identify the frequency band in which the transmitted signal is transmitted as the frequency band with which the one of the adjusted frequencies of the reference signal is associated.
A guide RNA (gRNA) for use in treating a patient with Duchenne Muscular Dystrophy, wherein the gRNA comprises a spacer sequence comprising an RNA version of the sequence set forth in SEQ ID NO: 186215.
A filtration assembly for an opening of a building , the filtration assembly comprising: - a compartment intended to be fixed against the opening , the compartment delimiting a storage space for a shading device for the opening ; - a ventilation duct passing through the compartment , the ventilation duct fluidly connecting the storage space and one end of the ventilation duct outside the compartment ; - a filtration casing formed integrally with the compartment , the end of the ventilation duct opening into the filtration casing ; - a filtration system housed in the filtration casing , the filtration system being configured to filter particles present in an air flow exiting the ventilation duct , the filtration system being of the electrostatic filtration system type; characterized in that the filtration system comprises: - an ionization stage of particles present in an air stream passing through the filtration system ; - a collection stage located downstream of the ionization stage , relative to the direction of flow of the air stream passing through the filtration system ; - a polarization stage configured to selectively polarize the ionization stage and the collection stage . - a compartment intended to be fixed against the opening , the compartment delimiting a storage space for a shading device for the opening ; - a ventilation duct passing through the compartment , the ventilation duct fluidly connecting the storage space and one end of the ventilation duct outside the compartment ; - a filtration casing formed integrally with the compartment , the end of the ventilation duct opening into the filtration casing ; - a filtration system housed in the filtration casing , the filtration system being configured to filter particles present in an air flow exiting the ventilation duct , the filtration system being of the electrostatic filtration system type; - an ionization stage of particles present in an air stream passing through the filtration system ; - a collection stage located downstream of the ionization stage , relative to the direction of flow of the air stream passing through the filtration system ; - a polarization stage configured to selectively polarize the ionization stage and the collection stage .
A user equipment, UE, device comprising: a memory storing computer readable instructions; and processing circuitry configured to execute the computer readable instructions to cause the UE device to, determine a plurality of physical downlink control channel, PDCCH, candidates from a control resource set, CORESET, monitor a PDCCH from the plurality of PDCCH candidates, determine reduced capability, REDCAP, scheduling information from a downlink control information, DCI, received on the PDCCH, and receive REDCAP system information based on the determined REDCAP scheduling information. a memory storing computer readable instructions; and processing circuitry configured to execute the computer readable instructions to cause the UE device to, determine a plurality of physical downlink control channel, PDCCH, candidates from a control resource set, CORESET, monitor a PDCCH from the plurality of PDCCH candidates, determine reduced capability, REDCAP, scheduling information from a downlink control information, DCI, received on the PDCCH, and receive REDCAP system information based on the determined REDCAP scheduling information. determine a plurality of physical downlink control channel, PDCCH, candidates from a control resource set, CORESET, monitor a PDCCH from the plurality of PDCCH candidates, determine reduced capability, REDCAP, scheduling information from a downlink control information, DCI, received on the PDCCH, and receive REDCAP system information based on the determined REDCAP scheduling information.
A process for preparing a compound of Formula (I): or a salt thereof, comprising: (a) treating an isolated compound of Formula 13: or a salt thereof with a compound of Formula 14: or a salt thereof to form a compound of Formula (I); and (b) optionally forming a salt of the compound of Formula (I); wherein X is halogen, C 1 -C 6 alkoxy, C 6 -C 10 aryloxy or a 5-membered heteroaryl containing at least one nitrogen directly bonded to the C=O of the compound of formula 13, each optionally substituted with one or more substituents independently selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, halogen, CN, OH, C 1 -C 6 alkoxy, and NR 1 R 2 , where R 1 and R 2 are each independently selected from hydrogen and C 1 -C 6 alkyl. (a) treating an isolated compound of Formula 13: or a salt thereof with a compound of Formula 14: or a salt thereof to form a compound of Formula (I); and (b) optionally forming a salt of the compound of Formula (I);
Method for feeding a gas flow to an additive manufacturing space during a powder bed additive manufacturing process, providing a metal powder on a built platform, melting the metal powder with a heat source, and repeating the aforementioned steps, wherein the gas flow is established by a pump connected to the manufacturing space wherein the pump is controlled by a set differential pressure, characterized in that , the set differential pressure is 0.08 mbar to 0.16 mbar or is 0.1 mbar to 0.14 mbar and preferably 0.12 mbar when the gas flow consists of Helium and is 0.26 mbar to 0.34 mbar or is 0.28 mbar to 0.32 mbar and preferably 0.30 mbar when the gas flow consists of a gas comprising 5 Vol.-% to 40 Vol.-% Argon, preferably 30 Vol.-% Argon, and 95 Vol.-% to 60 Vol.-% Helium, preferably 70 Vol.-% Helium, and is 0.37 mbar to 0.45 mbar or is 0.39 mbar to 0.43 mbar and preferably 0.41 mbar when the gas flow consists of a gas mixture comprising 41 Vol.-% to 60 Vol.-% Argon, preferably 50 Vol.-% Argon, and 59 Vol.-% to 40 Vol.-% Helium, preferably 50 Vol.-% Helium, and is 0.55 mbar to 0.63 mbar or is 0.57 mbar to 0.61 mbar and preferably 0.59 mbar when the gas flow mainly consists of a gas mixture comprising 61 Vol.-% to 95 Vol.-% Argon, preferably 70 Vol.-% Argon, and comprising 39 Vol.-% to 5 Vol.-% Helium, preferably 30 Vol.-% Helium. providing a metal powder on a built platform, melting the metal powder with a heat source, and repeating the aforementioned steps, wherein the gas flow is established by a pump connected to the manufacturing space wherein the pump is controlled by a set differential pressure, characterized in that , the set differential pressure is 0.08 mbar to 0.16 mbar or is 0.1 mbar to 0.14 mbar and preferably 0.12 mbar when the gas flow consists of Helium and is 0.26 mbar to 0.34 mbar or is 0.28 mbar to 0.32 mbar and preferably 0.30 mbar when the gas flow consists of a gas comprising 5 Vol.-% to 40 Vol.-% Argon, preferably 30 Vol.-% Argon, and 95 Vol.-% to 60 Vol.-% Helium, preferably 70 Vol.-% Helium, and is 0.37 mbar to 0.45 mbar or is 0.39 mbar to 0.43 mbar and preferably 0.41 mbar when the gas flow consists of a gas mixture comprising 41 Vol.-% to 60 Vol.-% Argon, preferably 50 Vol.-% Argon, and 59 Vol.-% to 40 Vol.-% Helium, preferably 50 Vol.-% Helium, and is 0.55 mbar to 0.63 mbar or is 0.57 mbar to 0.61 mbar and preferably 0.59 mbar when the gas flow mainly consists of a gas mixture comprising 61 Vol.-% to 95 Vol.-% Argon, preferably 70 Vol.-% Argon, and comprising 39 Vol.-% to 5 Vol.-% Helium, preferably 30 Vol.-% Helium.
An oven comprising an oven cavity wherein the foodstuffs to be cooked are placed, that has two parallel walls; two rack supports that are oppositely disposed on the walls and each rack support has at least two guide wires arranged at different heights predetermined by the producer and extending parallel to each other horizontally on the same vertical plane and at least one upright element enabling the guide wires to be fixed to each other and extending perpendicular to the guide wires ; and at least two telescopic rails that are seated onto the rack supports and that support trays placed into the oven cavity, characterized by • at least two connection wires that are fixed to the rack supports and each connection wire is positioned on a plane other than the plane where the guide wires are provided and extends horizontally on a plane that is parallel to the plane on which the two guide wires are positioned, and • at least two connection elements that are fixed to the telescopic rails and each connection element has at least one first retainer onto which the connection wire is seated and at least one second retainer onto which one of the guide wires is seated. • at least two connection wires that are fixed to the rack supports and each connection wire is positioned on a plane other than the plane where the guide wires are provided and extends horizontally on a plane that is parallel to the plane on which the two guide wires are positioned, and • at least two connection elements that are fixed to the telescopic rails and each connection element has at least one first retainer onto which the connection wire is seated and at least one second retainer onto which one of the guide wires is seated.
A recycled poly (ethylene terephthalate) (rPET) blend processing method, comprising steps: adding a compatibilizer to an rPET blend, mixing the compatibilizer and the rPET blend homogeneously to form a compatibilizer-rPET blend mixture, and granulating the compatibilizer-rPET blend mixture to obtain a plurality of compatibilizer-rPET blend mixture granules, wherein the rPET blend includes at least one of PET/PE blend plastic materials and PET/PP blend plastic materials; the compatibilizer has a porous carbon structure; the porous carbon structure has a diameter ranging from 300nm to 10μm and a specific surface area of 300-1500 square meters per gram; and performing a pre-crystallization process and a solid-state polymerization process of the compatibilizer-rPET blend mixture granules to generate a plurality of solid-state polymerized PET blend pellets having an intrinsic viscosity value of 0.6 and above. adding a compatibilizer to an rPET blend, mixing the compatibilizer and the rPET blend homogeneously to form a compatibilizer-rPET blend mixture, and granulating the compatibilizer-rPET blend mixture to obtain a plurality of compatibilizer-rPET blend mixture granules, wherein the rPET blend includes at least one of PET/PE blend plastic materials and PET/PP blend plastic materials; the compatibilizer has a porous carbon structure; the porous carbon structure has a diameter ranging from 300nm to 10μm and a specific surface area of 300-1500 square meters per gram; and performing a pre-crystallization process and a solid-state polymerization process of the compatibilizer-rPET blend mixture granules to generate a plurality of solid-state polymerized PET blend pellets having an intrinsic viscosity value of 0.6 and above.
A terminal comprising: a base including a circuit board provided therein, and upper and lower housings; a display main body ; a support unit comprising an outer tube , an inner tube , a cover member and a head part for combination with the display main body , wherein the outer tube is configured to surround at least part of the inner tube , wherein the inner tube is combined with a combining part on the lower housing , wherein the cover member is combined with the head part and is inserted into the inner tube to be moved in a downward or upward direction, wherein the cover member comprises a gas cylinder that is compressed when the cover member slides along the inner tube in the downward direction; a first hole located on the upper housing at a position that corresponds to the combining part ; and a second hole located on the circuit board at a position that corresponds to the combining part ; and a locking unit combined with one side of the support unit ; wherein the inner tube comprises a movable part formed by cutting a portion of the surface of the inner tube and contacting the locking unit to fix the height of the support unit by pressing the cover member . a base including a circuit board provided therein, and upper and lower housings; a display main body ; a support unit comprising an outer tube , an inner tube , a cover member and a head part for combination with the display main body , wherein the outer tube is configured to surround at least part of the inner tube , wherein the inner tube is combined with a combining part on the lower housing , wherein the cover member is combined with the head part and is inserted into the inner tube to be moved in a downward or upward direction, wherein the cover member comprises a gas cylinder that is compressed when the cover member slides along the inner tube in the downward direction; a first hole located on the upper housing at a position that corresponds to the combining part ; and a second hole located on the circuit board at a position that corresponds to the combining part ; and a locking unit combined with one side of the support unit ; wherein the inner tube comprises a movable part formed by cutting a portion of the surface of the inner tube and contacting the locking unit to fix the height of the support unit by pressing the cover member .
System for reducing delays in road traffic, comprising a number of controllable traffic lights , at least one computer system for controlling the traffic lights , and at least one navigation system located in a vehicle and communicatively linked to the at least one computer system , wherein the at least one navigation system is designed to transmit route data of driving routes to the at least one computer system , which is designed to calculate arrival times of the vehicle at the controllable traffic lights , wherein the at least one computer system is additionally designed to transmit request data based on the arrival times to the controllable traffic lights and wherein the controllable traffic lights are switched under consideration of the request data, characterized in that the computer system is designed to calculate request data under consideration of a priority of a majority of vehicles, and that the controllable traffic lights are designed to switch under consideration of the calculated request data for the purpose of an optimized throughput of vehicles along driving routes, and to calculate new route data of the vehicles under consideration of the switching signals of the controllable traffic lights along the driving routes of the vehicles corresponding to the route data, which vehicles correspond to the multiplicity of navigation systems , and to transmit the new route data of the vehicles to the multiplicity of navigation systems as a proposal of updated driving routes.
A restraint system for a ride vehicle , comprising: a soft restraint configured to extend across a passenger to secure the passenger within a seat of the ride vehicle , wherein the soft restraint comprises a pliable material configured to conform to a substantial portion of a torso of the passenger ; a sensory stimulation system integrated with the soft restraint , wherein the sensory stimulation system is configured to generate sensory effects and impart the sensory effects to the torso of the passenger ; and an inflatable bladder system integrated with the soft restraint , wherein the inflatable bladder system is configured to inflate with a gas to increase contact between the soft restraint and the torso of the passenger . a soft restraint configured to extend across a passenger to secure the passenger within a seat of the ride vehicle , wherein the soft restraint comprises a pliable material configured to conform to a substantial portion of a torso of the passenger ; a sensory stimulation system integrated with the soft restraint , wherein the sensory stimulation system is configured to generate sensory effects and impart the sensory effects to the torso of the passenger ; and an inflatable bladder system integrated with the soft restraint , wherein the inflatable bladder system is configured to inflate with a gas to increase contact between the soft restraint and the torso of the passenger .
A respiratory therapy system comprising a respiratory therapy device having at least one therapy administration device , wherein the respiratory therapy device is configured to receive an input usable by the therapy administration device to administer a therapy session, wherein the input comprises a total number of therapy cycles to be performed during the therapy session and a plurality of therapy parameters for each of the therapy cycles that are adjusted in real-time by a user during the therapy session, characterized in that the respiratory therapy device is configured to save the therapy cycles and the therapy parameters of the therapy session as a preset of the respiratory therapy device , wherein the preset is capable of initiating the administration of the therapy session at a future point in time based on the saved therapy cycles and the saved therapy parameters as adjusted by the user during the previous therapy session.