mhurhangee/patent-ind-claim-en huggingface dataset:
A work machine, comprising: an implement coupled to the work machine ; a first sensor coupled to the implement ; a second sensor coupled to the work machine , wherein the orientation of the implement is identified by comparing the values of the first sensor with the values of the second sensor ; a controller ; and an implement position system that couples the implement to the work machine , wherein, the first sensor identifies the orientation of the implement along more than one axis ; wherein the controller manipulates the implement position system to reposition the implement relative to the work machine by comparing orientation date from the first sensor to orientation data from the second sensor ; characterized in that the controller manipulates the implement position system to follow a contour of an underlying surface when the first sensor identifies a prolonged movement of the implement and the second sensor does not identify a corresponding prolonged movement of the work machine the implement comprising a draper head or a rotary head. an implement coupled to the work machine ; a first sensor coupled to the implement ; a second sensor coupled to the work machine , wherein the orientation of the implement is identified by comparing the values of the first sensor with the values of the second sensor ; a controller ; and an implement position system that couples the implement to the work machine , wherein, the first sensor identifies the orientation of the implement along more than one axis ; wherein the controller manipulates the implement position system to reposition the implement relative to the work machine by comparing orientation date from the first sensor to orientation data from the second sensor ; characterized in that the controller manipulates the implement position system to follow a contour of an underlying surface when the first sensor identifies a prolonged movement of the implement and the second sensor does not identify a corresponding prolonged movement of the work machine the implement comprising a draper head or a rotary head.
A molten salt nuclear fission reactor comprising: - a reactor core through which a fuel salt, comprising heavy nuclei likely to fission, flows, - a primary enclosure containing the reactor core, which primary enclosure is impervious to liquid salts, - a sarcophagus in which the primary enclosure is housed, - the reactor core comprising a parallelepiped matrix (10; 10') comprising alternating layers (11; 11') of fuel salt channels, in which the fuel salt circulates, and layers (12; 12') of heat transfer salt channels, in which a heat transfer salt circulates, - heat transfer salt circulation means for circulating the heat transfer salt within the primary enclosure between a heat transfer salt inlet orifice of the primary enclosure, the heat transfer salt channels (120; 120') of the matrix, then a heat transfer salt outlet orifice of the primary enclosure, - fuel salt circulation means for circulating the fuel salt in the fuel salt channels (110; 110') of the matrix, characterised in that the fuel salt circulation means are configured to extract the fuel salt from a portion of the fuel salt channels via one face (13; 13') of the matrix and to propel the fuel salt into the other portion of the fuel salt channels via this same face of the matrix. - a reactor core through which a fuel salt, comprising heavy nuclei likely to fission, flows, - a primary enclosure containing the reactor core, which primary enclosure is impervious to liquid salts, - a sarcophagus in which the primary enclosure is housed, - the reactor core comprising a parallelepiped matrix (10; 10') comprising alternating layers (11; 11') of fuel salt channels, in which the fuel salt circulates, and layers (12; 12') of heat transfer salt channels, in which a heat transfer salt circulates, - heat transfer salt circulation means for circulating the heat transfer salt within the primary enclosure between a heat transfer salt inlet orifice of the primary enclosure, the heat transfer salt channels (120; 120') of the matrix, then a heat transfer salt outlet orifice of the primary enclosure, - fuel salt circulation means for circulating the fuel salt in the fuel salt channels (110; 110') of the matrix,
Heat exchanger for allowing an indirect exchange of heat between a first and a second fluid (B, C) to be cooled and at least one third fluid (A) to be heated, the exchanger being made up of a stack of spaced rectangular plates, the stack having a length, a width and a height, the plates having a length and a width which are respectively the length and the width of the stack, the plates being parallel to one another so as to define, between said plates, a plurality of passages including a first series of passages for the flow of at least the first and the second fluid, a second series of passages for the flow of the third fluid to be placed in a heat exchange relationship with the first and second fluids, said passages being delimited by peripheral edges, the exchanger comprising three sections each defined by the height and the width of the stack and a fraction of the length of the stack, the three sections comprising a first section (SB) comprising one end of the stack, a second section (SBC) and a third section (SC) comprising the other end of the stack, means (B1) for introducing the first fluid into the passages of the first series at a free end of the first section, means (R1) for letting the first fluid out of the passages of the first series of the first section, means (B2) for letting the first fluid out of the portion of the passages of the first series, means (C1) for introducing the second fluid into another portion, or even the rest of the passages of the first series in the second section, means (R2) for letting the second fluid out of the other portion, or even the rest of the passages of the first series of the second section, means (R2) for introducing the second fluid into the passages of the first series in the third section, means (C2) for letting the second fluid out of the passages of the first series at the free end of the third section, means for introducing the third fluid into the third section, means for making the third fluid flow successively in the third, second and first sections and means for withdrawing the third fluid from the first section, characterized in that the second section is between the first and third sections and at least two of the first, second and third sections are juxtaposed, means (P) that block the first series of passages where the first and the second section are juxtaposed and/or where the second and the third section are juxtaposed, and means (R1) for introducing the first fluid into only a portion of the passages of the first series in the second section.
A method comprising: a) providing a Tele folded camera that includes an optical path folding element (OPFE) and an image sensor ; characterized in further comprising b) tilting the OPFE in one or more directions to perform optical image stabilization (OIS); c) while performing OIS, capturing a stream of Tele images, wherein each Tele image has a respective point of view (POV) aberration; and d) digitally correcting the respective POV aberration. a) providing a Tele folded camera that includes an optical path folding element (OPFE) and an image sensor ; characterized in further comprising b) tilting the OPFE in one or more directions to perform optical image stabilization (OIS); c) while performing OIS, capturing a stream of Tele images, wherein each Tele image has a respective point of view (POV) aberration; and d) digitally correcting the respective POV aberration.
A device comprising a housing , at least one electrical conductor , and at least one support , the electrical conductor being configured to carry an electrical current, the housing delimiting a chamber receiving the electrical conductor , the support being configured to fix the electrical conductor to the housing , the housing being made in particular of a metallic material, the support being made of a ceramic, the support being in contact jointly with the electrical conductor and with the housing , the device being characterised in that the support comprises a first portion bearing against an internal face of the housing and a second portion , the first portion being interposed between the electrical conductor and the housing in a first direction (Y), the second portion extending from the first portion in a second direction (Y), the electrical conductor bearing against the second portion , the first direction (Y) being in particular in a direction perpendicular to the internal face of the housing , in which the second portion has a first face and a second face opposite to the first face , the first face and the second face delimiting the second portion in a second direction (X), perpendicular to the first direction (Y), the electrical conductor bearing against the first face , the device further comprising, for each support , at least one first clamp , in particular metal, configured to bear against the second face to press the electrical conductor against the first face .
Dental suction device to be coupled to a dental instrument , the dental instrument being provided with a drill or laser tip and injection means for injecting under pressure a jet of fluid comprising a mixture of air and water, wherein said dental suction device comprises: - suction means for suctioning inside the oral cavity deflections of said fluid and aerosols produced by the effect of the drill or laser tip of the dental instrument , and - attaching means for removably attaching said dental suction device to the dental instrument wherein said suction means comprise a tubular fluid suction body forming a first outer housing designed to receive a working head of the dental instrument at the outside of the tubular fluid suction body , wherein a distal tubular portion ("B") of said tubular suction body surrounds at least partially the perimeter of the first outer housing for receiving the working head of the dental instrument , and - wherein a wall of the distal tubular portion ("B") incorporates at least one suction orifice arranged so as to determine a peripheral fluid suction area in an upward direction that at least partially surrounds the first outer housing for receiving the working head , the distal tubular portion ("B") of the tubular suction body being sized so that it can be introduced in the patient's mouth while the working head of the dental instrument is operating in the first outer housing of the tubular suction body - suction means for suctioning inside the oral cavity deflections of said fluid and aerosols produced by the effect of the drill or laser tip of the dental instrument , and - attaching means for removably attaching said dental suction device to the dental instrument wherein said suction means comprise a tubular fluid suction body forming a first outer housing designed to receive a working head of the dental instrument at the outside of the tubular fluid suction body , wherein a distal tubular portion ("B") of said tubular suction body surrounds at least partially the perimeter of the first outer housing for receiving the working head of the dental instrument , and wherein said suction means comprise a tubular fluid suction body forming a first outer housing designed to receive a working head of the dental instrument at the outside of the tubular fluid suction body , wherein a distal tubular portion ("B") of said tubular suction body surrounds at least partially the perimeter of the first outer housing for receiving the working head of the dental instrument , and - wherein a wall of the distal tubular portion ("B") incorporates at least one suction orifice arranged so as to determine a peripheral fluid suction area in an upward direction that at least partially surrounds the first outer housing for receiving the working head , the distal tubular portion ("B") of the tubular suction body being sized so that it can be introduced in the patient's mouth while the working head of the dental instrument is operating in the first outer housing of the tubular suction body
A spray head for supplying at least one die of a forming machine comprising a lower die and an upper die with lubricating coolant, which spray head can be introduced between two working strokes into a working chamber between the lower and upper die and carries at least one two-substance nozzle , which can atomise a mixture of spray medium and spray air onto the die for the supply of lubricating coolant and is connected to at least one feed channel , via which a control fluid, the mixture, spray medium or spray air can be fed to each two-substance nozzle and which reaches up to a spray head foot , which carries at least one supply connection , wherein each supply connection is connected to a feed channel , characterised in that each two-substance nozzle comprises a valve cover , that a spray medium outlet can be closed by means of the valve cover when control fluid with a sufficient pressure is provided via a control channel , and that the valve cover can be raised against the pressure, which is present in the control channel , by means of the spray medium from the spray medium channel , when the valve cover is relieved of pressure, so that the valve cover can be opened and spray medium can leave the two-substance nozzle through the spray medium outlet , wherein each two-substance nozzle comprises a nozzle body formed in one piece with a housing and is formed in one piece apart from mobile modules, wherein the nozzle body of each two-substance nozzle and a channel wall of each feed channel are formed in one piece with one another and/or wherein the channel wall of each feed channel and the spray head foot are formed in one piece with one another.
A signal processing system , comprising n paths of load modulation modules and a combination module , wherein the n paths of load modulation modules are connected in parallel, an output end of each path of load modulation module is connected to an input end of the combination module , n is an integer greater than 1, and the combination module receives, by using the input end, n paths of signals output by the n paths of load modulation modules and combines the n paths of signals; the n paths of load modulation modules comprise one path of main power amplification module and n-1 paths of auxiliary power amplification modules , and the auxiliary power amplification modules are turned on when power values of signals received by input ends of the load modulation modules are greater than a first threshold; and the main power amplification module comprises two outphasing (outphasing) power amplification units, and each path of auxiliary power amplification module comprises one digital polar (digital polar) power amplifier array. the n paths of load modulation modules are connected in parallel, an output end of each path of load modulation module is connected to an input end of the combination module , n is an integer greater than 1, and the combination module receives, by using the input end, n paths of signals output by the n paths of load modulation modules and combines the n paths of signals; the n paths of load modulation modules comprise one path of main power amplification module and n-1 paths of auxiliary power amplification modules , and the auxiliary power amplification modules are turned on when power values of signals received by input ends of the load modulation modules are greater than a first threshold; and the main power amplification module comprises two outphasing (outphasing) power amplification units, and each path of auxiliary power amplification module comprises one digital polar (digital polar) power amplifier array.
A user equipment, UE, comprising: a communication interface configured to communicate with a wireless access network node ; and at least one processor configured to execute machine-readable instructions which, when executed by the processor, cause the processor to: perform a handover procedure to address in-device coexistence, IDC, interference at the UE; after the handover procedure, in response to determining that a transmission component is active, withhold sending of an IDC over indication to the wireless access network node , wherein the IDC over indication is to indicate that the IDC interference is over at the UE ; and in response to determining that the transmission component is inactive, send the IDC over indication to the wireless access network node . perform a handover procedure to address in-device coexistence, IDC, interference at the UE; after the handover procedure, in response to determining that a transmission component is active, withhold sending of an IDC over indication to the wireless access network node , wherein the IDC over indication is to indicate that the IDC interference is over at the UE ; and in response to determining that the transmission component is inactive, send the IDC over indication to the wireless access network node .
A wakeup method of a voice control system, comprising: a collecting step: collecting voice information; a processing step: processing the voice information to determine whether the voice information comprises a human voice, and separating a voice information segment comprising the human voice when the voice information comprises the human voice; and the process entering a recognition step; the recognition step: performing wakeup word recognition on the voice information segment comprising the human voice; the process entering a wakeup step when the wakeup word is recognized; and the process returning to the collecting step when the wakeup word is not recognized; and the wakeup step: waking up a voice recognition processor wherein the voice information comprises a plurality of voice information segments collected from different time periods, characterized in that all the time periods are spliced into a complete and continuous time chain. a collecting step: collecting voice information; a processing step: processing the voice information to determine whether the voice information comprises a human voice, and separating a voice information segment comprising the human voice when the voice information comprises the human voice; and the process entering a recognition step; the recognition step: performing wakeup word recognition on the voice information segment comprising the human voice; the process entering a wakeup step when the wakeup word is recognized; and the process returning to the collecting step when the wakeup word is not recognized; and the wakeup step: waking up a voice recognition processor wherein the voice information comprises a plurality of voice information segments collected from different time periods, characterized in that all the time periods are spliced into a complete and continuous time chain.
A method of manufacturing a component for a gas turbine engine, the method including the step of: forming a metallic body of a component by: depositing successive layers of a metal powder on a bed; progressively forming the shape of the metallic body within the layers of powder by selectively fusing particles of the metal powder after each layer has been deposited, exposing the body to a heat treatment to fuse the particles of the powder within the pocket together, wherein forming the shape of the metallic body includes creating an enclosed pocket of unfused particles within the successive layers, the pocket being defined by walls of fused particles so that the metallic body has a first density outside of the pocket and a second density which is lower than the first density within the pocket. forming a metallic body of a component by: depositing successive layers of a metal powder on a bed; progressively forming the shape of the metallic body within the layers of powder by selectively fusing particles of the metal powder after each layer has been deposited, depositing successive layers of a metal powder on a bed; progressively forming the shape of the metallic body within the layers of powder by selectively fusing particles of the metal powder after each layer has been deposited, exposing the body to a heat treatment to fuse the particles of the powder within the pocket together, wherein forming the shape of the metallic body includes creating an enclosed pocket of unfused particles within the successive layers, the pocket being defined by walls of fused particles so that the metallic body has a first density outside of the pocket and a second density which is lower than the first density within the pocket.
A method for manufacturing an aluminum alloy member using an aluminum alloy casting material (W1) that contains 2.0 to 5.5 mass% of Cu, and 4.0 to 7.0 mass% of Si, wherein a content of Mg is 0.5 mass% or less, a content of Zn is 1.0 mass% or less, a content of Fe is 1.0 mass% or less, a content of Mn is 0.5 mass% or less, and the balance is made of Al and inevitable impurities, and the method for manufacturing an aluminum alloy member comprising: a heating and holding step (ST2) of heating and holding the aluminum alloy casting material (W1) within a solid-liquid coexisting temperature region (T S to T L ); and a quenching step (ST4) of rapidly cooling the aluminum ally casting material (W1) after performing the heating and holding step (ST2), wherein in a quenching preparation step (ST3) between the heating and holding step (ST2) and the quenching step (ST4), the aluminum alloy casting material (W1) is rapidly cooled at a cooling rate of 3°C/min or higher from the solid-liquid coexisting temperature region (T S to T L ) to a predetermined temperature (T S -ΔT) lower than a liquid phase appearance temperature (T S ), wherein in the heating and holding step (ST2) and the quenching preparation step (ST3), the aluminum alloy casting material (W1) is placed inside a pressurized furnace so as to be under a pressurized environment of 0.6 MPa or higher, and in the quenching step (ST4) the aluminum alloy casting material (W1) is cooled to a normal temperature T R after the pressure inside the pressurized furnace where the aluminum alloy casting material is placed is removed to reach the normal pressure (atmospheric pressure). a heating and holding step (ST2) of heating and holding the aluminum alloy casting material (W1) within a solid-liquid coexisting temperature region (T S to T L ); and a quenching step (ST4) of rapidly cooling the aluminum ally casting material (W1) after performing the heating and holding step (ST2), wherein in a quenching preparation step (ST3) between the heating and holding step (ST2) and the quenching step (ST4), the aluminum alloy casting material (W1) is rapidly cooled at a cooling rate of 3°C/min or higher from the solid-liquid coexisting temperature region (T S to T L ) to a predetermined temperature (T S -ΔT) lower than a liquid phase appearance temperature (T S ), wherein in the heating and holding step (ST2) and the quenching preparation step (ST3), the aluminum alloy casting material (W1) is placed inside a pressurized furnace so as to be under a pressurized environment of 0.6 MPa or higher, and in the quenching step (ST4) the aluminum alloy casting material (W1) is cooled to a normal temperature T R after the pressure inside the pressurized furnace where the aluminum alloy casting material is placed is removed to reach the normal pressure (atmospheric pressure).