mhurhangee/ep-ind-claims huggingface dataset:
A vane or blade for a gas turbine engine comprising: an airfoil having a leading edge portion (60, 66) and a trailing edge portion, the airfoil further including an aerodynamic surface extending between the leading and trailing edge portions (60, 66, 68); wherein the airfoil transitions into a hub positioned radially inward from the airfoil, the hub includes a first portion (54, 56), a second portion (54, 56), and an axially extending portion extending between the first and second portions (54, 56); and wherein in an intersection of the airfoil at the hub includes a fillet (74, 76, 78) extending axially from the leading edge portion (60, 66) of the airfoil to the trailing edge portion of the airfoil, the fillet (74, 76, 78) including a constant radius fillet having a first radius and a compound radius fillet having the first radius and a second radius, characterised in that the constant radius fillet begins at the leading edge portion (60, 66) of the airfoil and extends until a transition zone, and the compound radius fillet begins axially downstream of the constant radius fillet at the transition zone and continues towards the trailing edge portion of the airfoil. an airfoil having a leading edge portion (60, 66) and a trailing edge portion, the airfoil further including an aerodynamic surface extending between the leading and trailing edge portions (60, 66, 68); wherein the airfoil transitions into a hub positioned radially inward from the airfoil, the hub includes a first portion (54, 56), a second portion (54, 56), and an axially extending portion extending between the first and second portions (54, 56); and wherein in an intersection of the airfoil at the hub includes a fillet (74, 76, 78) extending axially from the leading edge portion (60, 66) of the airfoil to the trailing edge portion of the airfoil, the fillet (74, 76, 78) including a constant radius fillet having a first radius and a compound radius fillet having the first radius and a second radius, characterised in that the constant radius fillet begins at the leading edge portion (60, 66) of the airfoil and extends until a transition zone, and the compound radius fillet begins axially downstream of the constant radius fillet at the transition zone and continues towards the trailing edge portion of the airfoil.
A method for transmission of a data signal from a transmitting device to at least one receiving device using a LINC amplifier (LINC1, LINC2) for signal amplification, characterized in, that • the data signal is represented by two phase modulated signal components of constant amplitude in a first part of the LINC amplifier (LINC1, LINC2) located in the transmitting device, • at least one of the two phase modulated signal components of constant amplitude is converted from an electrical signal into an optical signal in at least one electro-optical converter (EO1, E02) located in the transmitting device, • both phase modulated signal components of constant amplitude are transmitted from the transmitting device to the at least one receiving device, with the at least one of the two phase modulated signal components of constant amplitude being transmitted over at least one optical connection (OF1, OF2, OF4) or at least one optical connectors and at least one electrical connection from the transmitting device to the at least one receiving device, • the at least one of the two phase modulated signal components of constant amplitude is converted from an optical signal into an electrical signal in at least one opto-electrical converter (OE1, OE2) located in said at least one receiving device, • and the two phase modulated signal components of constant amplitude are amplified and combined in a second part of the LINC amplifier (LINC1, LINC2) that is located in said at least one receiving device. • the data signal is represented by two phase modulated signal components of constant amplitude in a first part of the LINC amplifier (LINC1, LINC2) located in the transmitting device, • at least one of the two phase modulated signal components of constant amplitude is converted from an electrical signal into an optical signal in at least one electro-optical converter (EO1, E02) located in the transmitting device, • both phase modulated signal components of constant amplitude are transmitted from the transmitting device to the at least one receiving device, with the at least one of the two phase modulated signal components of constant amplitude being transmitted over at least one optical connection (OF1, OF2, OF4) or at least one optical connectors and at least one electrical connection from the transmitting device to the at least one receiving device, • the at least one of the two phase modulated signal components of constant amplitude is converted from an optical signal into an electrical signal in at least one opto-electrical converter (OE1, OE2) located in said at least one receiving device, • and the two phase modulated signal components of constant amplitude are amplified and combined in a second part of the LINC amplifier (LINC1, LINC2) that is located in said at least one receiving device.
Draft control assembly for a work vehicle; said work vehicle being adapted to move, in use, with respect to the ground in at least an advancement direction and a reverse direction and to be coupled to one or more implements; said work vehicle comprising drive means adapted to raise and lower said implements coupled to the work vehicle with respect to the ground; said draft control assembly comprising: - selection means adapted to select whether said work vehicle moves, in use, in said advancement direction or in said reverse direction; - detection means adapted to detect a draft force exerted, in use, by said work vehicle; and - a control unit operatively and electrically connected to said selection means and said detection means and connectable to said drive means; characterized in that when said work vehicle moves, in use, in said advancement direction, said control unit is programmed to control said drive means to raise said implements if said draft force is greater than a first threshold value and to lower said implements if said draft force is lower than said first threshold value but greater than a second threshold value; wherein, when said work vehicle moves, in use, in said reverse direction, said control unit is programmed to control said drive means to lower said implements if said draft force is greater than said second threshold value but lower than said first threshold value and to raise said implements if said draft force is lower than said second threshold value; said second threshold value being lower than said first threshold value. said draft control assembly comprising: - selection means adapted to select whether said work vehicle moves, in use, in said advancement direction or in said reverse direction; - detection means adapted to detect a draft force exerted, in use, by said work vehicle; and - a control unit operatively and electrically connected to said selection means and said detection means and connectable to said drive means; - selection means adapted to select whether said work vehicle moves, in use, in said advancement direction or in said reverse direction; - detection means adapted to detect a draft force exerted, in use, by said work vehicle; and - a control unit operatively and electrically connected to said selection means and said detection means and connectable to said drive means; characterized in that when said work vehicle moves, in use, in said advancement direction, said control unit is programmed to control said drive means to raise said implements if said draft force is greater than a first threshold value and to lower said implements if said draft force is lower than said first threshold value but greater than a second threshold value; wherein, when said work vehicle moves, in use, in said reverse direction, said control unit is programmed to control said drive means to lower said implements if said draft force is greater than said second threshold value but lower than said first threshold value and to raise said implements if said draft force is lower than said second threshold value; said second threshold value being lower than said first threshold value.
A method of identifying a candidate for adenomatous polyp removal comprising: measuring N-myristoylatransferase 1, N-myristoylatransferase 2 and Methionine Aminopeptidase 2 (MetAP2) expression levels in a peripheral blood or peripheral blood mononuclear cell sample from a patient, wherein NMT1, NMT2 and MetAP2 expression levels above a threshold level indicates that the patient is a candidate for polyp removal.
A wafer shape and flatness measurement apparatus comprising: a large aperture interferometer, characterized by a reflective air bearing chuck (200, 200', 300, 404, 504, 604) configured for holding a wafer on an air cushion, the reflective air bearing chuck comprising alternating vacuum (404, 804, 804') and pressure nozzles (402, 806, 806') arranged in a plurality of concentric rings and a distance between adjacent vacuum nozzle (404, 804, 804') and pressure nozzle (402, 806, 806') is substantially uniform for vacuum nozzles and pressure nozzles on each concentric nozzle ring. a large aperture interferometer, characterized by a reflective air bearing chuck (200, 200', 300, 404, 504, 604) configured for holding a wafer on an air cushion, the reflective air bearing chuck comprising alternating vacuum (404, 804, 804') and pressure nozzles (402, 806, 806') arranged in a plurality of concentric rings and a distance between adjacent vacuum nozzle (404, 804, 804') and pressure nozzle (402, 806, 806') is substantially uniform for vacuum nozzles and pressure nozzles on each concentric nozzle ring.
An integrated circuit comprising: a first configuration terminal; a second configuration terminal; and an auto addressing circuit coupled to the first and second configuration terminals, and responsive to a data pattern received at the first configuration terminal to assign a node address to an operational circuit, and subsequently to couple the first configuration terminal to the second configuration terminal, characterised in that the auto addressing circuit comprises: a comparator including a first input coupled to the first configuration terminal, a second input for receiving a reference voltage, and an output; a repeater including an input coupled to the first configuration terminal, a control input, and an output coupled to the second configuration terminal; and an address assignment circuit including an input coupled to the output of the comparator and a control output coupled to the control input of the repeater, the address assignment circuit configured to disable the repeater in response to receiving the data pattern and to activate the repeater after assigning the node address, wherein the integrated circuit is subsequently responsive to the node address when the node address is received. a first configuration terminal; a second configuration terminal; and an auto addressing circuit coupled to the first and second configuration terminals, and responsive to a data pattern received at the first configuration terminal to assign a node address to an operational circuit, and subsequently to couple the first configuration terminal to the second configuration terminal, a comparator including a first input coupled to the first configuration terminal, a second input for receiving a reference voltage, and an output; a repeater including an input coupled to the first configuration terminal, a control input, and an output coupled to the second configuration terminal; and an address assignment circuit including an input coupled to the output of the comparator and a control output coupled to the control input of the repeater, the address assignment circuit configured to disable the repeater in response to receiving the data pattern and to activate the repeater after assigning the node address,
A display device comprising: a display panel, DP, comprising a plurality of emission areas and a non-emission area defined between the plurality of emission areas; a first insulating layer, OL1, which is disposed on the display panel and has a first refractive index and in which a plurality of first openings, OP1G, OP1R, OP1B, are defined in an area overlapping the plurality of emission areas, PXA-G, PXA-R, PXA-B; a second insulating layer, OL2, which has a second refractive index and in which a plurality of second openings, OP2G, OP2R, OP2B, are defined in an area corresponding to the plurality of first openings; and a high refractive index insulating layer, HRL, which is disposed on the first and second insulating layers to overlap the plurality of emission areas and has a third refractive index greater than each of the first and second refractive indexes, wherein the first insulating layer comprises a first inclined surface, OL1-S, that defines the plurality of first openings, and the second insulating layer comprises a second inclined surface, OL2-S, that defines the plurality of second openings, and the first inclined surface and the second inclined surface are disposed to be spaced apart from each other on a plane. a display panel, DP, comprising a plurality of emission areas and a non-emission area defined between the plurality of emission areas; a first insulating layer, OL1, which is disposed on the display panel and has a first refractive index and in which a plurality of first openings, OP1G, OP1R, OP1B, are defined in an area overlapping the plurality of emission areas, PXA-G, PXA-R, PXA-B; a second insulating layer, OL2, which has a second refractive index and in which a plurality of second openings, OP2G, OP2R, OP2B, are defined in an area corresponding to the plurality of first openings; and a high refractive index insulating layer, HRL, which is disposed on the first and second insulating layers to overlap the plurality of emission areas and has a third refractive index greater than each of the first and second refractive indexes, wherein the first insulating layer comprises a first inclined surface, OL1-S, that defines the plurality of first openings, and the second insulating layer comprises a second inclined surface, OL2-S, that defines the plurality of second openings, and the first inclined surface and the second inclined surface are disposed to be spaced apart from each other on a plane.
A non-contact voltage measurement device including a probe, and an electric circuit, wherein said non-contact voltage measurement device is configured to, when placing said probe close to and in non-contact with a conductive wire (w) to produce a coupling capacitance (C L) between the probe and the conductive wire (w), measure a measurement target voltage (V L) applied to the conductive wire (w) based on a voltage signal input to said electric circuit via the probe, wherein the electric circuit includes a first impedance unit and a second impedance unit, said first impedance unit having an impedance value being higher than an impedance value of said second impedance unit, wherein the first impedance unit in the electric circuit is arranged at a position closer to the probe than the second impedance unit is, and wherein the non-contact voltage measurement device further comprises: a first electric field shield configured to block an electric field from entering the first impedance unit by coating at least part of the first impedance unit; a voltage signal applying unit configured to generate an equivoltage signal equal to a voltage signal of the first impedance unit from a voltage signal of the second impedance unit, and configured to apply the generated equivoltage signal to the first electric field shield; the non-contact voltage measurement device characterized in that it includes a second electric field shield coating at least part of the second impedance unit and insulated from the first electric field shield; and a second voltage signal applying unit configured to apply to the second electric field shield an equivoltage signal equal to the voltage signal of the second impedance unit. a first impedance unit and a second impedance unit, said first impedance unit having an impedance value being higher than an impedance value of said second impedance unit, a first electric field shield configured to block an electric field from entering the first impedance unit by coating at least part of the first impedance unit; a voltage signal applying unit configured to generate an equivoltage signal equal to a voltage signal of the first impedance unit from a voltage signal of the second impedance unit, and configured to apply the generated equivoltage signal to the first electric field shield; the non-contact voltage measurement device characterized in that it includes a second electric field shield coating at least part of the second impedance unit and insulated from the first electric field shield; and a second voltage signal applying unit configured to apply to the second electric field shield an equivoltage signal equal to the voltage signal of the second impedance unit.
A turbocharger cartridge and engine cylinder head assembly, comprising: a center housing rotating assembly comprising a center housing, bearings housed in the center housing, a shaft rotatably supported in the bearings, and compressor and turbine wheels (50, 60) affixed to opposite ends of the shaft; an engine cylinder head and a housing member formed together as a one-piece integral structure, wherein the housing member defines at least a turbine volute for receiving exhaust gas from the engine, a turbine nozzle for directing exhaust gas from the turbine volute into the turbine wheel, and a turbine contour; and a compressor contour plug that defines an axial inlet for the compressor and a compressor contour, wherein the compressor contour plug is separately formed from the center housing and the engine cylinder head; wherein the housing member defines a receptacle for receiving the center housing rotating assembly, and the receptacle and the center housing rotating assembly are configured such that the center housing rotating assembly slides axially, turbine wheel first, into the receptacle, the compressor contour plug then being affixed to the housing member of the engine cylinder head, characterised in that, the housing member defines also a compressor volute that receives compressed air from the compressor wheel. a center housing rotating assembly comprising a center housing, bearings housed in the center housing, a shaft rotatably supported in the bearings, and compressor and turbine wheels (50, 60) affixed to opposite ends of the shaft; an engine cylinder head and a housing member formed together as a one-piece integral structure, wherein the housing member defines at least a turbine volute for receiving exhaust gas from the engine, a turbine nozzle for directing exhaust gas from the turbine volute into the turbine wheel, and a turbine contour; and a compressor contour plug that defines an axial inlet for the compressor and a compressor contour, wherein the compressor contour plug is separately formed from the center housing and the engine cylinder head; wherein the housing member defines a receptacle for receiving the center housing rotating assembly, and the receptacle and the center housing rotating assembly are configured such that the center housing rotating assembly slides axially, turbine wheel first, into the receptacle, the compressor contour plug then being affixed to the housing member of the engine cylinder head, characterised in that,
A guidewire managing assembly for determining the location of a medical device in a subject during a procedure, the assembly comprising a medical positioning system sensor enabled guidewire having a tip and an entire length, a means (4, 32) for attaching the guidewire managing assembly to an instrument, an entry port for the guidewire, a means for measuring (i) a first distance between the means for measuring and the tip of the guidewire when the tip of the guidewire is aligned with a distal end of a catheter shaft and (ii) a second distance between the tip of the guidewire and the distal end of the catheter shaft when the entire length of the guidewire has passed the means for measuring, a means for calculating the entire length of the guidewire by summing the first and second distances, and a means for transmitting the calculated entire length of the guidewire to a separate component.
A hydraulic system for an implement, the hydraulic system comprising: a supply line connection configured to removably couple a hydraulic fluid supply line to a source hydraulic system associated with a support machine; a return line connection (214; 220; 226) configured to removably couple a hydraulic fluid return line (210; 216; 222) to the source hydraulic system associated with the support machine, the hydraulic fluid return line (210; 216; 222) comprising an implement connector (214, 220, 226) configured to connect to a corresponding support machine connector (212, 218, 224) on the support machine; a hydraulic fluid reservoir (228; 600; 700; 800); and a hydraulic fluid recovery component (230; 232; 234; 236) configured to convey hydraulic fluid from the hydraulic fluid return line (210; 216; 222) to the hydraulic fluid reservoir (228; 600; 700; 800) while the hydraulic fluid return line (210; 216; 222) is decoupled from the source hydraulic system associated with the support machine, and when fluid pressure in the hydraulic fluid return line (210; 216; 222) reaches a first pressure threshold, wherein: the implement connector (214, 220, 226) comprises a flow control mechanism configured to allow fluid flow through the implement connector (214, 220, 226) when the fluid pressure reaches a second pressure threshold, and the first pressure threshold is less than the second pressure threshold. a supply line connection configured to removably couple a hydraulic fluid supply line to a source hydraulic system associated with a support machine; a return line connection (214; 220; 226) configured to removably couple a hydraulic fluid return line (210; 216; 222) to the source hydraulic system associated with the support machine, the hydraulic fluid return line (210; 216; 222) comprising an implement connector (214, 220, 226) configured to connect to a corresponding support machine connector (212, 218, 224) on the support machine; a hydraulic fluid reservoir (228; 600; 700; 800); and a hydraulic fluid recovery component (230; 232; 234; 236) configured to convey hydraulic fluid from the hydraulic fluid return line (210; 216; 222) to the hydraulic fluid reservoir (228; 600; 700; 800) while the hydraulic fluid return line (210; 216; 222) is decoupled from the source hydraulic system associated with the support machine, and when fluid pressure in the hydraulic fluid return line (210; 216; 222) reaches a first pressure threshold, wherein: the implement connector (214, 220, 226) comprises a flow control mechanism configured to allow fluid flow through the implement connector (214, 220, 226) when the fluid pressure reaches a second pressure threshold, and the first pressure threshold is less than the second pressure threshold.