mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor switch device comprising: a semiconductor substrate having a major surface; a first semiconductor region located in the substrate beneath the major surface, the first semiconductor region having a first conductivity type; an elongate gate located on the major surface, wherein the gate has a gate length and a gate width; a source region having a second conductivity type, wherein the source region is located in the first semiconductor region adjacent a first elongate edge of the gate; a drain region having the second conductivity type, wherein the drain region is located in the first semiconductor region adjacent a second elongate edge of the gate; electrical contacts (44, 46) for forming electrical connections to the source region and the drain region, wherein the electrical contacts include at least two contacts located on either the source region or the drain region, wherein said at least two contacts are spaced apart along a direction parallel to the gate width, and an isolation region (20, 22) located between said at least two contacts when viewed from above the major surface of the substrate, wherein the isolation region extends through the source/drain region from the major surface to the first semiconductor region, cha racterised in that the edge of each contact located closest the gate is located a distance L c from the gate, the edge of the isolation region located closest the gate is located a distance D ir from the gate, and L c ≤ D ir. a semiconductor substrate having a major surface; a first semiconductor region located in the substrate beneath the major surface, the first semiconductor region having a first conductivity type; an elongate gate located on the major surface, wherein the gate has a gate length and a gate width; a source region having a second conductivity type, wherein the source region is located in the first semiconductor region adjacent a first elongate edge of the gate; a drain region having the second conductivity type, wherein the drain region is located in the first semiconductor region adjacent a second elongate edge of the gate; electrical contacts (44, 46) for forming electrical connections to the source region and the drain region, wherein the electrical contacts include at least two contacts located on either the source region or the drain region, wherein said at least two contacts are spaced apart along a direction parallel to the gate width, and an isolation region (20, 22) located between said at least two contacts when viewed from above the major surface of the substrate, wherein the isolation region extends through the source/drain region from the major surface to the first semiconductor region, cha racterised in that the edge of each contact located closest the gate is located a distance L c from the gate, the edge of the isolation region located closest the gate is located a distance D ir from the gate, and L c ≤ D ir.
An instrument for locating a femoral mechanical axis and identifying the locations of at least three points in space in relation to the center of a femoral head, wherein the instrument comprises: a base member (2, 102); an extension arm clamp (6, 106); an extension arm (3, 103) translationally attached to the extension arm clamp; a swiveling arm (4, 104) pivotally attached to a distal end of the extension arm, the swiveling arm comprising a lateral locator member (32, 132) at a proximal end and a medial locator member (33, 133) at a distal end; and a bracket (18, 119) pivotally attached to the swiveling arm; characterised in that the extension arm clamp is translationally and pivotally attached to the base member and that the extension arm is also pivotally attached to the extension arm clamp, wherein the instrument further comprises a locating arm (5, 105) removably attached to the bracket, the locating arm comprising a middle locator member (34, 134). a base member (2, 102); an extension arm clamp (6, 106); an extension arm (3, 103) translationally attached to the extension arm clamp; a swiveling arm (4, 104) pivotally attached to a distal end of the extension arm, the swiveling arm comprising a lateral locator member (32, 132) at a proximal end and a medial locator member (33, 133) at a distal end; and a bracket (18, 119) pivotally attached to the swiveling arm; characterised in that the extension arm clamp is translationally and pivotally attached to the base member and that the extension arm is also pivotally attached to the extension arm clamp, wherein the instrument further comprises a locating arm (5, 105) removably attached to the bracket, the locating arm comprising a middle locator member (34, 134).
A vacuum pump with a housing, two shafts arranged in the housing and rotatably driven by a drive and with a gearing coupled to the shaft, in which there is arranged between a piston (14, 15) arranged on the shaft (6, 7) or a screw member arranged on the shaft and an inner side of the housing or a stator - at least one sensor and at least one stop element (31, 33) or - at least one sensor and an abrasion element (31, 33), characterised in that there is provided at least one acceleration sensor or at least one vibration sensor, which is formed as an acceleration sensor or a vibration sensor which, upon a contact between the piston or the screw member and the stop element (31, 33) or the abrasion element (31, 33), detects a signal which is characteristic of the contact, and in that the at least one stop element (31, 33) or the at least one abrasion element (31, 33) has a lower height than the gap height specified during normal operation between piston or screw member and inner side of the housing or stator. - at least one sensor and at least one stop element (31, 33) or - at least one sensor and an abrasion element (31, 33), characterised in that there is provided at least one acceleration sensor or at least one vibration sensor, which is formed as an acceleration sensor or a vibration sensor which, upon a contact between the piston or the screw member and the stop element (31, 33) or the abrasion element (31, 33), detects a signal which is characteristic of the contact, and in that the at least one stop element (31, 33) or the at least one abrasion element (31, 33) has a lower height than the gap height specified during normal operation between piston or screw member and inner side of the housing or stator.
A resin card medium comprising: a substrate having one electronic component or two or more electronic components installed on one side of the substrate, a plant fiber-containing resin layer being laminated on a surface of the substrate on a side on which the electronic component or electronic components are installed and containing plant fibers and plastic fibers constituted of copolymerized polyester resin; and a first finishing layer being laminated on a surface of the substrate on a side opposite to the side on which the electronic component or electronic components are installed, the first finishing layer is a plant fiber-non-containing resin layer containing no plant fibers, wherein the plant-fiber-containing resin layer absorbs the thickness or thicknesses of the electronic component or electronic components so as to keep flatness of the card medium, and a percentage of a total of a thickness of the substrate and a thickness or thicknesses of the electronic component or electronic components to a thickness of the card medium is 80% or less, characterised in that the thickness of the electronic component(s) is 0.15 mm to 0.60 mm, and the thickness of the substrate is approximately 0.1 mm. a substrate having one electronic component or two or more electronic components installed on one side of the substrate, a plant fiber-containing resin layer being laminated on a surface of the substrate on a side on which the electronic component or electronic components are installed and containing plant fibers and plastic fibers constituted of copolymerized polyester resin; and a first finishing layer being laminated on a surface of the substrate on a side opposite to the side on which the electronic component or electronic components are installed, the first finishing layer is a plant fiber-non-containing resin layer containing no plant fibers, the plant-fiber-containing resin layer absorbs the thickness or thicknesses of the electronic component or electronic components so as to keep flatness of the card medium, and a percentage of a total of a thickness of the substrate and a thickness or thicknesses of the electronic component or electronic components to a thickness of the card medium is 80% or less, characterised in that the thickness of the electronic component(s) is 0.15 mm to 0.60 mm, and the thickness of the substrate is approximately 0.1 mm.
An apparatus for treating waste of a nuclear reactor pressure vessel when decommissioning a nuclear facility, comprising: a suction unit suitable to be inserted into the nuclear reactor pressure vessel through a plurality of through-pipes passing through a lower portion of the nuclear reactor pressure vessel to suck waste inside the nuclear reactor pressure vessel a waste treatment part connected to the suction unit to treat the waste: and a lower collection part connected to the waste treatment part the lower collection part to be positioned under the nuclear reactor pressure vessel with the suction unit therebetween. a suction unit suitable to be inserted into the nuclear reactor pressure vessel through a plurality of through-pipes passing through a lower portion of the nuclear reactor pressure vessel to suck waste inside the nuclear reactor pressure vessel a waste treatment part connected to the suction unit to treat the waste: and a lower collection part connected to the waste treatment part the lower collection part to be positioned under the nuclear reactor pressure vessel with the suction unit therebetween.
An open source power quad flat no-lead (PQFN) leadframe comprising: U-phase, V-phase, and W-phase power switches (204b; 206b; 208b) situated on said PQFN leadframe; a drain of said U-phase power switch being connected to a U-phase output strip of said open source PQFN leadframe; a source of said U-phase power switch being connected to a U-phase current sense terminal; said V-phase, and said W-phase power switches (206b; 208b) are respectively connected to a V-phase output strip, and a W-phase output pad of said open source PQFN leadframe; said V-phase output strip, and said W-phase output pad are respectively connected to drains of said V-phase, and said W-phase power switches (206b; 208b); sources (238b; 238a) of said V-phase, and said W-phase power switches (206b; 208b) being respectively connected to V-phase, and W-phase current sense terminals (212u; 212v). U-phase, V-phase, and W-phase power switches (204b; 206b; 208b) situated on said PQFN leadframe; a drain of said U-phase power switch being connected to a U-phase output strip of said open source PQFN leadframe; a source of said U-phase power switch being connected to a U-phase current sense terminal; said V-phase, and said W-phase power switches (206b; 208b) are respectively connected to a V-phase output strip, and a W-phase output pad of said open source PQFN leadframe; said V-phase output strip, and said W-phase output pad are respectively connected to drains of said V-phase, and said W-phase power switches (206b; 208b); sources (238b; 238a) of said V-phase, and said W-phase power switches (206b; 208b) being respectively connected to V-phase, and W-phase current sense terminals (212u; 212v).
A method for moving between communications systems, wherein the method is performed by a user equipment, UE (300, 310, 600, 610), and comprises: receiving, from a first core network entity (400, 410, 700, 710) by the UE, a first message, wherein the first message is used to set up or modify a first evolved packet system, EPS, bearer for the UE (300, 310, 600, 610) in a first communications system, and the first message comprises first quality of service, QoS, flow information that is of a second communications system and that is corresponding to the first EPS bearer, wherein the first EPS bearer is a default bearer, and the first QoS flow information includes one or more of the following information: a session aggregation maximum bit rate, an SSC mode, a PDU session identifier, and a QoS rule; storing, by the UE, the first QoS flow information; moving the UE (300, 310, 600, 610) from the first communications system to the second communications system by using a handover process, comprising receiving a handover command from a base station in the first communications system, wherein the handover command comprises a QoS flow identifier and a session identifier; and determining, by the UE based on a first condition, second QoS flow information used by the UE (300, 310, 600, 610) in the second communications system, wherein the first condition comprises the first QoS flow information, the QoS flow identifier and the session identifier. receiving, from a first core network entity (400, 410, 700, 710) by the UE, a first message, wherein the first message is used to set up or modify a first evolved packet system, EPS, bearer for the UE (300, 310, 600, 610) in a first communications system, and the first message comprises first quality of service, QoS, flow information that is of a second communications system and that is corresponding to the first EPS bearer, wherein the first EPS bearer is a default bearer, and the first QoS flow information includes one or more of the following information: a session aggregation maximum bit rate, an SSC mode, a PDU session identifier, and a QoS rule; storing, by the UE, the first QoS flow information; moving the UE (300, 310, 600, 610) from the first communications system to the second communications system by using a handover process, comprising receiving a handover command from a base station in the first communications system, wherein the handover command comprises a QoS flow identifier and a session identifier; and determining, by the UE based on a first condition, second QoS flow information used by the UE (300, 310, 600, 610) in the second communications system, wherein the first condition comprises the first QoS flow information, the QoS flow identifier and the session identifier.
A resin composition comprising: an epoxy compound; a triphenylbenzene compound expressed by the following expression; an inorganic particle including one or both of a magnesium oxide (MgO) and an aluminum nitride (AlN); and phosphorus, a content (mass%) of the phosphorus expressed by the following mathematical expression being from 0.5 mass% to 4.3 mass%, the content mass % of the phosphorus = mass of the phosphorus / mass of nonvolatile content excluding the inorganic particle × 100 (R1 to R15 are each any of a hydrogen group (-H) and a reactive group, and the reactive group is any of a hydroxyl group (-OH) and an amino group (-NH 2), where at least one of the R1 to the R15 is the reactive group.) an epoxy compound; a triphenylbenzene compound expressed by the following expression; an inorganic particle including one or both of a magnesium oxide (MgO) and an aluminum nitride (AlN); and phosphorus, a content (mass%) of the phosphorus expressed by the following mathematical expression being from 0.5 mass% to 4.3 mass%, the content mass % of the phosphorus = mass of the phosphorus / mass of nonvolatile content excluding the inorganic particle × 100 (R1 to R15 are each any of a hydrogen group (-H) and a reactive group, and the reactive group is any of a hydroxyl group (-OH) and an amino group (-NH 2), where at least one of the R1 to the R15 is the reactive group.)
An operation apparatus comprising: a touch panel that can display a setting item window displaying a plurality of setting item keys and a setting condition input window accepting input of a setting condition for a setting item corresponding to each of the plurality of setting item keys and detect an input operation to the plurality of setting item keys, characterized by; a determination unit that determines whether an input operation on the plurality of setting item keys is detected within a predetermined time period by the touch panel; a shrinkage rate calculating unit that calculates, in a case in which the determination unit determines that an input operation on the plurality of setting item keys is detected within a predetermined time period, a shrinkage rate allowing equal allocation of space for a predetermined number, which is at least a setting item number, which is the number of setting item keys on which the input operation is detected, of setting condition input windows in a display region based on the setting item number, and a size of the display region; a window shrinking unit that shrinks a predetermined number of setting condition input windows among the setting condition input windows accepting the input of a setting condition for the setting item corresponding to the setting item keys on which the input operation is detected, based on the shrinkage rate calculated by the shrinkage rate calculating unit; and multi window display unit that displays in the display region in an arrangement corresponding to the order of acceptance of the input operation on the corresponding setting item keys, the predetermined number of setting condition input windows that are shrunk by the window shrinking unit.
A method for transferring fuel for a turbine liquid fuel system, the method comprising: flowing water to at least one nozzle of a main fuel circuit during a start-up of the liquid fuel system until a 50% to 60% load operating condition occurs; flowing oil to the at least one nozzle of the main fuel circuit during the start-up of the liquid fuel system; wherein flowing water to the at least one nozzle of the main fuel circuit occurs prior to flowing oil to the main fuel circuit; and flowing oil to at least one nozzle of a pilot fuel circuit prior to flowing water to the at least one nozzle of the main fuel circuit. flowing water to at least one nozzle of a main fuel circuit during a start-up of the liquid fuel system until a 50% to 60% load operating condition occurs; flowing oil to the at least one nozzle of the main fuel circuit during the start-up of the liquid fuel system; wherein flowing water to the at least one nozzle of the main fuel circuit occurs prior to flowing oil to the main fuel circuit; and flowing oil to at least one nozzle of a pilot fuel circuit prior to flowing water to the at least one nozzle of the main fuel circuit.
An isolated vertebrate cell suitable for recombinant expression of a polypeptide of interest, wherein the vertebrate cell is altered to impair the effect of matriptase, wherein the effect of matriptase is impaired because functional expression of the matriptase gene is reduced or eliminated in said cell by gene knock-out, gene mutation, gene deletion, gene silencing or a combination of any of the foregoing, and wherein the vertebrate cell comprises at least one heterologous polynucleotide encoding a polypeptide of interest, wherein the vertebrate cell secretes the polypeptide of interest.
A method comprising: controlling a vacuum pump to evacuate a vacuum chamber to a vacuum of less than 1.33kPa; controlling a plasma spray device to generate a plasma; introducing into the plasma a coating material comprising silicon metal; controlling the plasma spray device to deposit the coating material in a coating (18, 44) on a substrate in the vacuum chamber using plasma spray physical vapor deposition; and controlling a source of a reactive gaseous species comprising oxygen to introduce a controlled amount of the reactive gaseous species into the vacuum chamber at a location outside of a vapor plume generated by the plasma spray device during the plasma spray physical vapor deposition process, wherein the reactive gaseous species reacts with silicon metal of the coating material to form a dispersed silica phase (48A, 48B) in at least part of the coating (18, 44). controlling a vacuum pump to evacuate a vacuum chamber to a vacuum of less than 1.33kPa; controlling a plasma spray device to generate a plasma; introducing into the plasma a coating material comprising silicon metal; controlling the plasma spray device to deposit the coating material in a coating (18, 44) on a substrate in the vacuum chamber using plasma spray physical vapor deposition; and controlling a source of a reactive gaseous species comprising oxygen to introduce a controlled amount of the reactive gaseous species into the vacuum chamber at a location outside of a vapor plume generated by the plasma spray device during the plasma spray physical vapor deposition process, wherein the reactive gaseous species reacts with silicon metal of the coating material to form a dispersed silica phase (48A, 48B) in at least part of the coating (18, 44).
A ventricular assist device, comprising a housing assembly, an impeller, an electric motor, and a distance sensor; wherein, the housing assembly defines a pressurized inner chamber, the impeller is located in the pressurized inner chamber, and is capable of suspending and rotating in the pressurized inner chamber; the electric motor is located in the housing assembly; the electric motor comprises a controller, a stator, and a rotor; the controller is located in the housing assembly, and is located outside of the pressurized inner chamber; the stator is electrically coupled to the controller, the stator is located outside of the pressurized inner chamber; the rotor is located in the pressurized inner chamber and fixedly coupled to the impeller; the distance sensor is located in the housing assembly and is located outside of the pressurized inner chamber; the distance sensor is electrically coupled to the controller, and the distance sensor is configured to sense a distance value between the impeller and a cavity wall of the pressurized inner chamber, and can transmit the distance value to the controller; the stator can drive the rotor to suspend and rotate; the impeller can follow the rotor to suspend and rotate; the controller can control a magnetic force between the stator and the rotor according to the distance value, so as to control a rotating speed of the impeller, and a distance of the impeller relative to the cavity wall of the pressurized inner chamber; characterised in that the distance sensor is located between the stator and the impeller; the controller is a module independent of the stator, and the controller is fixed on one side of the stator away from the distance sensor, or the impeller is located between the controller and the distance sensor.
A tank (1, 10) for an aircraft turbojet, and in particular an oil tank for an aircraft turbojet, the tank comprising: - a cavity capable of containing a liquid; - an envelope delimiting the cavity; and - a device (4.1, 4.2, 4.3, 14.n, 20, 30) for measuring the volume of liquid contained in said cavity; characterised in that the measuring device (4.1, 4.2, 4.3, 14.n, 20, 30) comprises at least three liquid detection point sensors, said at least three point sensors being disposed on the envelope so as to describe a polygon (T, Tn); the measuring device (4.1, 4.2, 4.3, 14.n, 20, 30) is configured to estimate the total volume of liquid contained in the cavity by triangulation from the measurements of the at least three point sensors; and in that the at least three point sensors define a plane whose intersection with the envelope defines a section of the tank, the measuring device (4.1, 4.2, 4.3, 14.n, 20, 30) being configured to calculate the proportion of said section and/or the proportion of the area of said polygon that is occupied by the liquid to estimate the total volume of liquid. - a cavity capable of containing a liquid; - an envelope delimiting the cavity; and - a device (4.1, 4.2, 4.3, 14.n, 20, 30) for measuring the volume of liquid contained in said cavity;