mhurhangee/ep-ind-claims huggingface dataset:
A pain management system, comprising: a memory; at least one sampling electrode configured to be applied to a skin surface; a waveform generator (1410, 1412) coupled to the at least one sampling electrode; at least one return electrode configured to be applied to a skin surface; characterized by: a controller coupled to the memory, the waveform generator, and the at least one return electrode, wherein the controller is configured to perform operations comprising: detecting a location of a nerve; determining a resonant frequency for neuronal cell membranes of a target nerve; and generating a peripheral nerve blockade using the determined resonant frequency, wherein the resonant frequency comprises a frequency at which impedance of a nerve approaches a maximum. a memory; at least one sampling electrode configured to be applied to a skin surface; a waveform generator (1410, 1412) coupled to the at least one sampling electrode; at least one return electrode configured to be applied to a skin surface; characterized by: a controller coupled to the memory, the waveform generator, and the at least one return electrode, wherein the controller is configured to perform operations comprising: detecting a location of a nerve; determining a resonant frequency for neuronal cell membranes of a target nerve; and generating a peripheral nerve blockade using the determined resonant frequency, wherein the resonant frequency comprises a frequency at which impedance of a nerve approaches a maximum. a controller coupled to the memory, the waveform generator, and the at least one return electrode, wherein the controller is configured to perform operations comprising: detecting a location of a nerve; determining a resonant frequency for neuronal cell membranes of a target nerve; and generating a peripheral nerve blockade using the determined resonant frequency, wherein the resonant frequency comprises a frequency at which impedance of a nerve approaches a maximum.
Series hybrid propulsion unit including a gas turbine driving a mechanical shaft of an electric generator having n output phases and supplying an AC busbar, and a system for monitoring the speed of the gas turbine, said AC busbar supplying a plurality of AC distribution channels each composed of an electric rectifier and of a battery sharing the power required to supply a DC bus, said DC bus in turn supplying a plurality of propulsion sub-channels composed of electric inverters supplying, under the monitoring of a control module, motors driving thrusters, which unit being characterized in that it further includes:. a battery charger for charging said battery from said DC bus,. a power management module delivering a power reference for said electric generator,. a hybridization rate management module for managing the power sharing between said electric generator and said battery by monitoring the voltage of said DC bus, and in that said battery is directly connected on said DC bus via a passive component and said electric rectifier is a passive converter.. a battery charger for charging said battery from said DC bus,. a power management module delivering a power reference for said electric generator,. a hybridization rate management module for managing the power sharing between said electric generator and said battery by monitoring the voltage of said DC bus,
A method for managing a shut down of a boiler, wherein the boiler includes: a duct, at least a heat exchanging component, wherein the at least a heat exchanging component includes: tubed heat exchanging surfaces within the duct, headers (17, 18) outside the duct, the headers (17, 18) being connected to the tubed heat exchanging surfaces, the headers (17, 18) and the tubed heat exchanging surfaces containing steam, the method comprising the step of regulating the temperature of the headers (17, 18) during shut down to a target temperature that is a function of the expected temperature for the steam moving from the tubed heat exchanging surfaces into the headers (17, 18) at a starting up following the shut down, wherein regulating the temperature of the headers (17, 18) includes maintaining a steam flow through the headers (17, 18) after shut down of the firing system by maintaining a steam circulation from the tubed heat exchange surfaces connected to the respective headers and through said headers. a duct, at least a heat exchanging component, wherein the at least a heat exchanging component includes: tubed heat exchanging surfaces within the duct, headers (17, 18) outside the duct, the headers (17, 18) being connected to the tubed heat exchanging surfaces, the headers (17, 18) and the tubed heat exchanging surfaces containing steam, the method comprising the step of regulating the temperature of the headers (17, 18) during shut down to a target temperature that is a function of the expected temperature for the steam moving from the tubed heat exchanging surfaces into the headers (17, 18) at a starting up following the shut down, wherein regulating the temperature of the headers (17, 18) includes maintaining a steam flow through the headers (17, 18) after shut down of the firing system by maintaining a steam circulation from the tubed heat exchange surfaces connected to the respective headers and through said headers. tubed heat exchanging surfaces within the duct, headers (17, 18) outside the duct, the headers (17, 18) being connected to the tubed heat exchanging surfaces, the headers (17, 18) and the tubed heat exchanging surfaces containing steam, the method comprising the step of regulating the temperature of the headers (17, 18) during shut down to a target temperature that is a function of the expected temperature for the steam moving from the tubed heat exchanging surfaces into the headers (17, 18) at a starting up following the shut down, wherein regulating the temperature of the headers (17, 18) includes maintaining a steam flow through the headers (17, 18) after shut down of the firing system by maintaining a steam circulation from the tubed heat exchange surfaces connected to the respective headers and through said headers.
An injection apparatus for making an injection at a predetermined depth in skin comprising: a first skin positioning member (26;4) having a lower surface for positioning on a first patch of skin (96;98) to hold the first patch of skin (96;98) in a defined position; a second skin positioning member (3;54) having a lower surface for positioning on a second patch of skin to hold the second patch of skin in a defined position, wherein the first and second skin positioning members (26;4;3;54) lie or are moveable to lie in an injection arrangement; an injection needle having a discharge opening; and means (86;72;68;58) guiding the injection needle for movement from a parking position above the skin, through the lower surface of the second skin positioning member (3;54) to enter the second patch of skin and to slide beneath the first skin positioning member (26;4) to an injection position in which the discharge opening of the needle lies at a predetermined distance below the lower surface of the first skin positioning member (26;4). a first skin positioning member (26;4) having a lower surface for positioning on a first patch of skin (96;98) to hold the first patch of skin (96;98) in a defined position; a second skin positioning member (3;54) having a lower surface for positioning on a second patch of skin to hold the second patch of skin in a defined position, wherein the first and second skin positioning members (26;4;3;54) lie or are moveable to lie in an injection arrangement; an injection needle having a discharge opening; and
A preparation method of graphene, the preparation method comprising: applying a physical force to dispersion of a carbon-based material including graphite or a derivative thereof, and a dispersant, wherein the dispersant includes a mixture of plural kinds of polyaromatic hydrocarbon oxides, containing the polyaromatic hydrocarbon oxides having a molecular weight of 300 to 1000 in a content of 60% by weight or more, and wherein the dispersant is prepared by a method including an oxidation process of the mixture containing the polyaromatic hydrocarbon having a molecular weight of 200 to 1,500, and the oxidation process is proceeded at 20°C to 80°C, for 1 to 12 hours in the presence of an oxidant, wherein the applying of the physical force proceeds by a method using a high pressure homogenizer, a ball mill, or a bead mill, the graphite or the derivative thereof is formed into a graphene flake having a thickness in nanoscale under application of the physical force. applying a physical force to dispersion of a carbon-based material including graphite or a derivative thereof, and a dispersant, wherein the dispersant includes a mixture of plural kinds of polyaromatic hydrocarbon oxides, containing the polyaromatic hydrocarbon oxides having a molecular weight of 300 to 1000 in a content of 60% by weight or more, and wherein the dispersant is prepared by a method including an oxidation process of the mixture containing the polyaromatic hydrocarbon having a molecular weight of 200 to 1,500, and the oxidation process is proceeded at 20°C to 80°C, for 1 to 12 hours in the presence of an oxidant, wherein the applying of the physical force proceeds by a method using a high pressure homogenizer, a ball mill, or a bead mill, the graphite or the derivative thereof is formed into a graphene flake having a thickness in nanoscale under application of the physical force.
A replaceable battery unit for a surgical power tool, the replaceable battery unit comprising a housing containing: one or more battery cells; a motion sensor unit; and a controller operable to: determine, from an output of the motion sensor unit, a sudden movement of the replaceable battery unit indicative of a kickback event of the surgical power tool; and in response to said determination, disconnect power from the replaceable battery unit to the surgical power tool. one or more battery cells; a motion sensor unit; and a controller operable to: determine, from an output of the motion sensor unit, a sudden movement of the replaceable battery unit indicative of a kickback event of the surgical power tool; and in response to said determination, disconnect power from the replaceable battery unit to the surgical power tool. determine, from an output of the motion sensor unit, a sudden movement of the replaceable battery unit indicative of a kickback event of the surgical power tool; and in response to said determination, disconnect power from the replaceable battery unit to the surgical power tool.
A connection device for connecting a cheek rest to a rifle stock with at least one internal space being open at the rear and wherein the rifle stock is made of composite material, which cheek rest includes at least one first connection bracket and at least one second connection bracket with which the cheek rest may be adjustably connected to at least one first attachment element of the connection device which during use is inserted into the internal space of a rifle stock via the rear opening of the rifle stock and via a screw through a hole in the rifle stock's top side is connected to the rifle stock's top side, whereby the connection device further comprises a locking block that comprises the at least one first attachment element, and whereby the cheek rest's connection brackets (7, 9) are configured to be connected to the at least one first attachment element in the locking block by means of holes (37, 39) in the rifle stock' s top side and configured to be temporarily locked to the at least one first attachment element with at least one adjusting screw of the connection device inserted through a hole in the rifle stock' s side, wherein the connection device includes at least one adjusting block, which is connected to the locking block, with which the form of the locking block's contact surface, or contact surfaces, is configured to be adjusted to the internal space in the stock.
A ram blowout preventer for bidirectionally sealing a well, the ram blowout preventer comprising: a body having a cavity with a recess; a ram block configured to move inside the cavity; a top seat disposed in the recess and configured to seal the well when in contact with the ram block; a movable lock ring extending inside a groove of the body and a corresponding groove of the top seat and configured to move inside the groove of the body, along a direction substantially parallel to the well between a first seat position and a second seat position; a first seal extending inside a groove of the top seat and configured to contact the body and the top seat; and a second seal extending inside a groove of the ram block and configured to contact the ram block and the top seat, wherein a width of the groove of the body is larger than a width of the lock ring by a predetermined value, and a distance from a centerline of the well to the first seal is larger than a distance from the centerline of the well to the second seal. a body having a cavity with a recess; a ram block configured to move inside the cavity; a top seat disposed in the recess and configured to seal the well when in contact with the ram block; a movable lock ring extending inside a groove of the body and a corresponding groove of the top seat and configured to move inside the groove of the body, along a direction substantially parallel to the well between a first seat position and a second seat position; a first seal extending inside a groove of the top seat and configured to contact the body and the top seat; and a second seal extending inside a groove of the ram block and configured to contact the ram block and the top seat, wherein a width of the groove of the body is larger than a width of the lock ring by a predetermined value, and a distance from a centerline of the well to the first seal is larger than a distance from the centerline of the well to the second seal.
A measurement method, performed by a terminal, comprising: in a non-connected state, triggering an unsolicited measurement when a predetermined condition is met; characterized in that, the predetermined condition comprises a condition where a predetermined uplink service has arrived at the terminal; wherein the predetermined uplink service is an enhanced Mobile Broadband, eMBB, type service, or a service whose 5 th generation, 5G, Quality-of-Service Identifier, 5QI, satisfies a predetermined value. in a non-connected state, triggering an unsolicited measurement when a predetermined condition is met; characterized in that, the predetermined condition comprises a condition where a predetermined uplink service has arrived at the terminal; wherein the predetermined uplink service is an enhanced Mobile Broadband, eMBB, type service, or a service whose 5 th generation, 5G, Quality-of-Service Identifier, 5QI, satisfies a predetermined value.
A method of wireless communication performed by a user equipment (104; 302), comprising: detecting an overlap between an allocation of a first set of resources of a wireless communication link for transmission of a lower priority channel and an allocation of a second set of resources of the wireless communication link for transmission of a higher priority channel; removing a subset of resources from the allocation of the first set of resources to generate a removed subset of resources of the first set of resources and a remaining subset of resources of the first set of resources; and transmitting, to a cell of a base station (102; 304), the lower priority channel on the remaining subset of resources, wherein the higher priority channel is transmitted on at least a portion of the removed subset of resources, wherein the lower priority channel is a positioning reference signal and comprises a sounding reference signal, SRS, and the higher priority channel comprises a PUSCH. detecting an overlap between an allocation of a first set of resources of a wireless communication link for transmission of a lower priority channel and an allocation of a second set of resources of the wireless communication link for transmission of a higher priority channel; removing a subset of resources from the allocation of the first set of resources to generate a removed subset of resources of the first set of resources and a remaining subset of resources of the first set of resources; and transmitting, to a cell of a base station (102; 304), the lower priority channel on the remaining subset of resources, wherein the higher priority channel is transmitted on at least a portion of the removed subset of resources, wherein the lower priority channel is a positioning reference signal and comprises a sounding reference signal, SRS, and the higher priority channel comprises a PUSCH.
An auxiliary power unit compartment for an aircraft, comprising an auxiliary power unit placed in the auxiliary power unit compartment, the auxiliary power unit comprising a metallic housing having mounts for attaching the housing to the auxiliary power unit compartment the auxiliary power unit further comprising: - at least one temperature sensor suitable for detecting temperature under fire conditions, wherein said temperature sensor is coupled with said mounts for sensing temperature at the housing, said mounts further comprising a portion of the housing that is adjacent to said mounts, the adjacent portion being at a distance lower than one third of the longer dimension of the housing with respect to the mount, - a detector wiring routing along the auxiliary power unit and the auxiliary power unit compartment for detecting temperature, - an electrical signal transducer, - and a fire detection unit, - wherein the temperature sensor is in communication with the electrical signal transducer, which is configured to combine the electrical signals received from the temperature sensor and from the detector wiring to provide a common signal for feeding the fire detection unit, - and, wherein the fire detection unit is programmed for triggering a fire detection alarm when the temperature sensed exceeds a pre-established threshold. - at least one temperature sensor suitable for detecting temperature under fire conditions, wherein said temperature sensor is coupled with said mounts for sensing temperature at the housing, said mounts further comprising a portion of the housing that is adjacent to said mounts, the adjacent portion being at a distance lower than one third of the longer dimension of the housing with respect to the mount, - a detector wiring routing along the auxiliary power unit and the auxiliary power unit compartment for detecting temperature, - an electrical signal transducer, - and a fire detection unit, - wherein the temperature sensor is in communication with the electrical signal transducer, which is configured to combine the electrical signals received from the temperature sensor and from the detector wiring to provide a common signal for feeding the fire detection unit, - and, wherein the fire detection unit is programmed for triggering a fire detection alarm when the temperature sensed exceeds a pre-established threshold.
An encapsulation structure, comprising: a first substrate having a sealing region and a to-be-encapsulated region, the sealing region surrounding the to-be-encapsulated region; a metal pattern in the sealing region; a thermal conductive layer, enveloping the metal pattern and electrically insulated from the metal pattern; and a sealing structure on the thermal conductive layer, the sealing structure being disposed in the sealing region to encapsulate the to-be-encapsulated region, wherein the thermal conductive layer has a projected area which is projected on the metal pattern with a circumference to enclose an entire surface area of the metal pattern in the sealing region, the sealing structure in the sealing region has a first surface in direct physical contact with the thermal conductive layer, the thermal conductive layer is made of an electrically-insulating material including one or more of a thermal silicone, a thermal grease, and polyimide; and the thermal conductive layer in the sealing region has a width less than the sealing region and greater than the metal pattern. a first substrate having a sealing region and a to-be-encapsulated region, the sealing region surrounding the to-be-encapsulated region; a metal pattern in the sealing region; a thermal conductive layer, enveloping the metal pattern and electrically insulated from the metal pattern; and a sealing structure on the thermal conductive layer, the sealing structure being disposed in the sealing region to encapsulate the to-be-encapsulated region, wherein the thermal conductive layer has a projected area which is projected on the metal pattern with a circumference to enclose an entire surface area of the metal pattern in the sealing region, the sealing structure in the sealing region has a first surface in direct physical contact with the thermal conductive layer, the thermal conductive layer is made of an electrically-insulating material including one or more of a thermal silicone, a thermal grease, and polyimide; and the thermal conductive layer in the sealing region has a width less than the sealing region and greater than the metal pattern.
The combination of a cartridge case and a partitioned projectile designed to temporarily disable a target, said partitioned projectile comprising a base which is made from a harder polyethylene or polypropylene plastic and a nose (3,3') which is made from a softer polyurethane plastic, wherein the base is inserted into said cartridge case up to a first sealing ring arranged on the base and a second sealing ring arranged on the nose abuts the upper edge of the cartridge case.
A method of forming bone cement, comprising: forming a fluid phase including mixing methyl methacrylate monomer and a polymerising agent; adding a powder phase to the fluid phase; and adding N-methyl pyrrolidone to the fluid phase. forming a fluid phase including mixing methyl methacrylate monomer and a polymerising agent; adding a powder phase to the fluid phase; and adding N-methyl pyrrolidone to the fluid phase.