mhurhangee/ep-ind-claims huggingface dataset:
A FET-based sensor for detecting an ionic material, characterized in that the sensor comprises: a sensing chamber including a reference electrode and a plurality of sensing FETs; and a reference chamber including a reference electrode and a plurality of reference FETs; the reference electrode of the sensing chamber and the reference electrode of the reference chamber being a common reference electrode; wherein each of said sensing and reference chambers (10,11) is defined by a lower substrate, sidewalls (15,17) and an upper substrate, and the upper substrate is functioning as said common reference electrode. a sensing chamber including a reference electrode and a plurality of sensing FETs; and a reference chamber including a reference electrode and a plurality of reference FETs;
A conductive paste for a solar cell element front surface electrode that is used to form a front surface electrode of a solar cell element that is provided with a semiconductor substrate, an antireflective film disposed in a first region on one main surface of the semiconductor substrate, and a front surface electrode disposed in a second region on the one main surface of the semiconductor substrate, characterized in that the conductive paste comprises a conductive powder, a mixed glass frit, and an organic vehicle in which the mixed glass frit contains, in the form of mixture, a tellurium-based glass frit containing tellurium, tungsten, and bismuth and a lead-bismuth-based glass frit that contains lead and bismuth and that does not contain more than 1,000 ppm tellurium; wherein the mixed glass frit contains the tellurium-based glass frit and the lead-bismuth-based glass frit at a blending ratio of 4: 6 to 8: 2 as a mass ratio; wherein the tellurium-based glass frit contains, as the oxide, 30 to 80 mol% of tellurium, 10 to 50 mol% of tungsten, and 5 to 25 mol% of bismuth; wherein the lead-bismuth-based glass frit contains, as the oxide, 30 to 70 mol% of lead, 10 to 40 mol% of bismuth, not more than 30 mol% of zinc (including 0 mol%), and 5 to 30 mol% of silicon or the lead-bismuth-based glass frit contains, as the oxide, 30 to 70 mol% of lead, 10 to 40 mol% of bismuth, not more than 30 mol% of zinc (including 0 mol%), and 1 to 25 mol% of boron; wherein the content of the mixed glass frit in the conductive paste is 0.1 to 10 mass parts per 100 mass parts of the conductive powder, wherein the tellurium-based glass frit and the lead-bismuth-based glass frit are contained in a total at more than 50 mass parts per 100 mass parts of the overall mixed glass frit; and wherein the conductive powder contains more than 50 mass% silver.
A method for modifying, by a central unit, CU, of a base station, BS, a QoS flow to DRB mapping rule in a wireless communication system, the method comprising: modifying the QoS flow to DRB mapping rule; determining whether or not the modified QoS flow to DRB mapping rule is related to reflective mapping; and based on the determination that the modified QoS flow to DRB mapping rule is not related to the reflective mapping, transmitting the modified QoS flow to DRB mapping rule to a user equipment, UE, wherein the CU includes a central unit-control plane, CU-CP, and at least one central unit-user plane, CU-UP, wherein the modified QoS flow to DRB mapping rule is transmitted from the CU-CP to the at least one CU-UP, and wherein based on the determination that the modified QoS flow to DRB mapping rule is related to the reflective mapping, the modified QoS flow to DRB mapping rule is not transmitted to the UE. modifying the QoS flow to DRB mapping rule; determining whether or not the modified QoS flow to DRB mapping rule is related to reflective mapping; and based on the determination that the modified QoS flow to DRB mapping rule is not related to the reflective mapping, transmitting the modified QoS flow to DRB mapping rule to a user equipment, UE, wherein the CU includes a central unit-control plane, CU-CP, and at least one central unit-user plane, CU-UP, wherein the modified QoS flow to DRB mapping rule is transmitted from the CU-CP to the at least one CU-UP, and
A fan blade for a gas turbine engine comprising: an airfoil defining a pressure and suction side; and a neck supporting the airfoil and interconnected to a dovetail by opposing radii, the dovetail including a bearing surface tangent to one of the radii at a tangent point, wherein the dovetail has a dovetail width and a vertical bearing surface height from the tangent point to a bottom of the dovetail opposite the neck, and a first ratio of the dovetail width to the vertical bearing surface height is in a range of between 2.32 and 2.90; wherein the neck includes a neck width, characterized in that a second ratio of the neck width to the vertical bearing surface height is in a range of 0.95 to 1.18. an airfoil defining a pressure and suction side; and a neck supporting the airfoil and interconnected to a dovetail by opposing radii, the dovetail including a bearing surface tangent to one of the radii at a tangent point, wherein the dovetail has a dovetail width and a vertical bearing surface height from the tangent point to a bottom of the dovetail opposite the neck, and a first ratio of the dovetail width to the vertical bearing surface height is in a range of between 2.32 and 2.90; wherein the neck includes a neck width, characterized in that a second ratio of the neck width to the vertical bearing surface height is in a range of 0.95 to 1.18.
A method for increasing the temperature of a sodium-sulfur battery, the method being characterized by: three or more rates of temperature increase when increasing a temperature of the battery from ordinary temperature to an operating temperature in the range 250°C to 360°C; and at least inflection points of 90±5°C and 150±5°C at which the rate of temperature increase changes, wherein the rate of temperature increase in a section from 90±5°C to 150±5°C is in the range 0.1°C/h to 5°C/h and the rate of temperature increase in the section excluding the section from 90±5°C to 150±5°C exceeds 5°C/h. three or more rates of temperature increase when increasing a temperature of the battery from ordinary temperature to an operating temperature in the range 250°C to 360°C; and at least inflection points of 90±5°C and 150±5°C at which the rate of temperature increase changes, wherein the rate of temperature increase in a section from 90±5°C to 150±5°C is in the range 0.1°C/h to 5°C/h and the rate of temperature increase in the section excluding the section from 90±5°C to 150±5°C exceeds 5°C/h.
A vent for extracting or blowing air including a duct (1, 10) intended to be placed in an orifice of the wall and provided with a radial flange (1A, 10A) bearing on said wall, a faceplate secured to said duct (1, 10) and an element for modulating the air flow rate (3, 30) movable from an open position to a closed position of the air flow leaving or entering the vent between said radial bearing flange (1A, 10A) of the duct and said faceplate (2, 20), by axial movement along the longitudinal axis of said duct, the vent including a driving actuator (4, 40, 40') of said modulating element (3, 30) kept between the rear face of said faceplate (2, 20) and said modulating element (3, 30) and said modulating element (3, 30) being tubular with the same longitudinal axis as said duct, said modulating element (3, 30) including a tubular support part (3D, 30D) with the same longitudinal axis as said duct, having a straight generatrix in translation on the inner face of the duct, the vent being characterized in that said support part bears at least one guide part for the air flow, tubular with a longitudinal axis parallel to the longitudinal axis of said duct, said support part including orifices (3D2) able to ensure the passage of the air flow leaving or entering the vent between said radial bearing flange of the duct and said faceplate toward said guide part, in the open position.
A solid-state cooking apparatus, comprising: a cooking cavity; a power amplifier system (110; 110A, 110B) for generating a radiofrequency 'RF' signal; a field applicator (100; 200; 200A, 200B; 300) configured to provide an electromagnetic wave into the cooking cavity based on the generated RF signal, said field applicator comprising: a splitting element for splitting the generated radiofrequency signal into a first signal and a second signal; a first antenna element for emitting a first wave based on the first signal into the cooking cavity; a second antenna element for emitting a second wave based on the second signal into the cooking cavity; characterized in that the splitting element comprises a quadrature coupler (120; 161; 261) having an input port connected to the power amplifier system, an isolated port connected to a predefined load, a first output port connected to the first antenna element, and a second output port connected to the second antenna element; and in that the solid-state cooking apparatus is operable in at least one of a first mode and second mode, wherein, in the first mode, the predefined load equals an RF short or an RF open, and, in the second mode, the predefined load equals a dummy load (143; 143A, 143B) configured to dissipate the signal received at the isolated port of the quadrature coupler. a cooking cavity; a power amplifier system (110; 110A, 110B) for generating a radiofrequency 'RF' signal; a field applicator (100; 200; 200A, 200B; 300) configured to provide an electromagnetic wave into the cooking cavity based on the generated RF signal, said field applicator comprising: a splitting element for splitting the generated radiofrequency signal into a first signal and a second signal; a first antenna element for emitting a first wave based on the first signal into the cooking cavity; a second antenna element for emitting a second wave based on the second signal into the cooking cavity; a splitting element for splitting the generated radiofrequency signal into a first signal and a second signal; a first antenna element for emitting a first wave based on the first signal into the cooking cavity; a second antenna element for emitting a second wave based on the second signal into the cooking cavity; characterized in that the splitting element comprises a quadrature coupler (120; 161; 261) having an input port connected to the power amplifier system, an isolated port connected to a predefined load, a first output port connected to the first antenna element, and a second output port connected to the second antenna element; and in that the solid-state cooking apparatus is operable in at least one of a first mode and second mode, wherein, in the first mode, the predefined load equals an RF short or an RF open, and, in the second mode, the predefined load equals a dummy load (143; 143A, 143B) configured to dissipate the signal received at the isolated port of the quadrature coupler.
An intraocular surgery instrument holder comprising a translational driving unit that is a driving mechanism configured to be capable of movement with multiple degrees of freedom; an arm unit that is a passive motion mechanism coupled with the translational driving unit and is configured to be capable of movement with multiple degrees of freedom; and a surgical instrument holding unit that is a passive gimbal mechanism coupled with one end of the arm unit, and is configured to hold an intraocular surgery instrument and to be capable of movement with two degrees of rotational freedom with an opening part of a hole being a fixed point, the hole being formed in an eyeball for insertion of the intraocular surgery instrument, wherein a brake mechanism (61, 62, 63) for inhibiting movement of the arm unit is provided to the arm unit, wherein when the translational driving unit is driven, the brake mechanism (61, 62, 63) is actuated inter-connectedly. a translational driving unit that is a driving mechanism configured to be capable of movement with multiple degrees of freedom; an arm unit that is a passive motion mechanism coupled with the translational driving unit and is configured to be capable of movement with multiple degrees of freedom; and a surgical instrument holding unit that is a passive gimbal mechanism coupled with one end of the arm unit, and is configured to hold an intraocular surgery instrument and to be capable of movement with two degrees of rotational freedom with an opening part of a hole being a fixed point, the hole being formed in an eyeball for insertion of the intraocular surgery instrument, wherein a brake mechanism (61, 62, 63) for inhibiting movement of the arm unit is provided to the arm unit, wherein when the translational driving unit is driven, the brake mechanism (61, 62, 63) is actuated inter-connectedly.
A method for quality of service, QoS, parameter configuration in a wireless local area network, WLAN, comprising: after a network device receives an association request frame sent by a terminal, sending, by the network device to the terminal, an association response frame carrying a first QoS parameter set, wherein the first QoS parameter set is a default QoS parameter set, the first QoS parameter set comprises multiple QoS parameters, for different access categories of access channels, of the terminal, and the network device is an access point, AP, or a wireless controller managing the AP; and sending, by the network device, a QoS parameter set modification message to the terminal, wherein the QoS parameter set modification message comprises a second QoS parameter set, the second QoS parameter set is different from the first QoS parameter set, and the QoS parameter set modification message is a first beacon frame or an active probe response frame, characterized by, setting by the network device, the recipient address of the first beacon frame to the medium access control, MAC, address of the terminal, the MAC address of the terminal being a unicast address; or the active probe response frame is a probe response frame actively sent by the network device to the terminal without relying on a probe request frame sent by the terminal. after a network device receives an association request frame sent by a terminal, sending, by the network device to the terminal, an association response frame carrying a first QoS parameter set, wherein the first QoS parameter set is a default QoS parameter set, the first QoS parameter set comprises multiple QoS parameters, for different access categories of access channels, of the terminal, and the network device is an access point, AP, or a wireless controller managing the AP; and sending, by the network device, a QoS parameter set modification message to the terminal, wherein the QoS parameter set modification message comprises a second QoS parameter set, the second QoS parameter set is different from the first QoS parameter set, and the QoS parameter set modification message is a first beacon frame or an active probe response frame, characterized by, setting by the network device, the recipient address of the first beacon frame to the medium access control, MAC, address of the terminal, the MAC address of the terminal being a unicast address; or the active probe response frame is a probe response frame actively sent by the network device to the terminal without relying on a probe request frame sent by the terminal.
Voltage converter arrangement having - a first converter element, comprising at least one converter element phase of the first converter element, which phase extends between a first and a second high-voltage-side DC voltage pole (5, 6) and has a first and a second phase branch (14, 15) of the first converter element, wherein an AC voltage terminal of the first converter element is arranged at a potential point between the two phase branches (14, 15) of the first converter element and - a second converter element, comprising at least one converter element phase of the second converter element, which phase extends between a first and a second low-voltage-side DC voltage pole (10, 11) and has a first and a second phase branch (20, 21) of the second converter element, wherein an AC voltage terminal of the second converter element is arranged at a potential point between the two phase branches (20, 21) of the second converter element, wherein the two converter elements (2, 3) can be connected to one another on the AC voltage side by means of a coupling device to form a converter element parallel circuit, which, including the phase branches (14, 15, 20, 21) of the two converter elements, forms at least one closed current path for a circulating alternating current (iAC1, iAC2) through the converter elements (2, 3), characterized in that the coupling device provides capacitive coupling of the converter elements (2, 3). - a first converter element, comprising at least one converter element phase of the first converter element, which phase extends between a first and a second high-voltage-side DC voltage pole (5, 6) and has a first and a second phase branch (14, 15) of the first converter element, wherein an AC voltage terminal of the first converter element is arranged at a potential point between the two phase branches (14, 15) of the first converter element and - a second converter element, comprising at least one converter element phase of the second converter element, which phase extends between a first and a second low-voltage-side DC voltage pole (10, 11) and has a first and a second phase branch (20, 21) of the second converter element, wherein an AC voltage terminal of the second converter element is arranged at a potential point between the two phase branches (20, 21) of the second converter element, wherein
A substrate having at least one main surface comprising at least one non-noble metallic bonding landing pad either fully covered by a capping layer thereby shielding the non-noble metallic bonding landing pad from the environment, or partially covered by a capping layer thereby shielding the covered part of the non-noble metallic bonding landing pad from the environment; wherein the capping layer is an alloy; characterized in that the alloy has a thickness greater than 9nm and smaller than 50nm, the alloy being NiB or CoB and containing an atomic concentration percentage of boron in the range of 10% to 50%.
Method for producing a multi-pane insulating glass element, in which at least two individual glass elements (2, 3) are arranged to one another under formation of an intermediate space and at least one plastic film is inserted into the intermediate space, and the intermediate space is at least partially filled with a gas different from air in a gas filling device and sealed with the two individual glass elements (2, 3) under formation of an edge seal, characterized in that the plastic film is inserted into the intermediate space in the gas filling device.
A motor bogie for a railway vehicle, comprising at least a wheel axle and a bogie frame for rotationally guiding the wheel axle, the wheel axle comprising a brake disk, wherein the motor bogie comprises a measurement system for measuring a temperature of the brake disk, the measurement system comprising a temperature sensor, characterized in that the measurement system comprises a positioning device for positioning the temperature sensor with respect to the brake disk, the positioning device being secured in a working position to the bogie frame, wherein - the positioning device comprises a first spring blade and a second spring blade, both spring blades (40, 45) being made of steel, - the first spring blade has a first extremity and a second extremity, - the second spring blade has a third extremity fixed to the second extremity, - the first extremity is fixed to the bogie frame, - at least a portion of the second spring blade is pressed by the first spring blade against the brake disk when the positioning device is in the working position, and - the temperature sensor is secured to the second spring blade. - the positioning device comprises a first spring blade and a second spring blade, both spring blades (40, 45) being made of steel, - the first spring blade has a first extremity and a second extremity, - the second spring blade has a third extremity fixed to the second extremity, - the first extremity is fixed to the bogie frame, - at least a portion of the second spring blade is pressed by the first spring blade against the brake disk when the positioning device is in the working position, and - the temperature sensor is secured to the second spring blade.
A device for sliding door leaves (2a, 2b) with co-planar closure, particularly for furniture, comprising means (19a, 19b, 24, 25, 26) adapted to force the closure positioning of at least one of said door leaves (2a, 2b), wherein said means adapted to force the closure positioning of at least one of said door leaves (2a, 2b) are constituted by at least one element which can be elastically elongated, at least one unidirectional brake or actuator and at least one linkage, which is V-shaped and which has a vertex, a first end and a second end, said second end interacting with said at least one element which can be elastically elongated, said linkage interacting with said at least one unidirectional brake or actuator, the device further comprising a bracket system composed of a flat plate with which a pair of L-shaped joints (5a, 5b) are associated at a longitudinal side thereof, the wings of said joints being connected respectively to said plate and to the inner lateral surface of each one of said door leaves (2a, 2b), a first pair of wheels (10a, 10b) being associated rotatably and in a lower region with said plate, said at least one linkage having said first end which is pivoted to a third pair of wheels (19a, 19b), which are similar to said first pair of wheels (10a, 10b) and are slideably engaged with an underlying first guide, which is arc-shaped in plan view and protrudes from the top of said piece of furniture, said vertex of said at least one linkage being directed away from said third pair of wheels (19a, 19b) and being pivoted to said plate, the second end of said linkage being engaged with said at least one element which can be elastically elongated, such as a spring, whose other end is coupled to said plate, said spring being unloaded in the condition in which the door leaf is closed.
An impact device for an electric nail gun, the electric nail gun including a supporting bracket and a flywheel that is rotatably disposed on the supporting bracket and that is capable of being electrically driven to rotate, said impact device including a swing arm unit adapted to be pivotally disposed on the supporting bracket, and an impact unit including an impact member that is adapted to be disposed between the flywheel and said swing arm unit, wherein said swing arm unit is movable between a pre-firing position, where said impact member is not in contact with the flywheel, and a firing position, where said impact member is in contact with the flywheel such that rotation of the flywheel drives said impact unit to move on said swing arm unit in a nail-striking direction for performing a nail striking operation, said impact device being characterized in that: said swing arm unit including a magnetically conductive component that is magnetically conductive; said impact unit further including a magnetic element set that is mounted to said impact member, that is spaced apart from said swing arm unit to form a gap therebetween, and that provides a magnetic force which magnetically attracts said magnetically conductive component so that said impact unit is in contact with said swing arm unit. said swing arm unit including a magnetically conductive component that is magnetically conductive; said impact unit further including a magnetic element set that is mounted to said impact member, that is spaced apart from said swing arm unit to form a gap therebetween, and that provides a magnetic force which magnetically attracts said magnetically conductive component so that said impact unit is in contact with said swing arm unit.