mhurhangee/ep-ind-claims huggingface dataset:
A method of fabrication of a non-planar transistor comprising: forming a non-planar transistor fin on a substrate; forming a non-planar transistor gate over the non-planar transistor fin; conformally depositing a dielectric material layer over the non-planar transistor gate and the non-planar transistor fin; and forming a capping material layer over the dielectric material layer; forming a sacrificial layer on the capping material layer; recessing the sacrificial layer to expose a portion of the capping material layer; altering the etching characteristics of the exposed portion of the capping material layer; removing the sacrificial layer, and removing the unaltered portion of the capping material layer, thereby forming a capping structure on a portion of the dielectric material layer proximate an upper portion of the non-planar transistor gate; directionally etching the dielectric material layer in a direction toward the substrate 102, wherein the capping structure 164 protects the dielectric material layer 142 adjacent the non-planar transistor gate 122 while the dielectric material layer 142 adjacent the substrate 102 and the non-planar transistor fin 112 is removed, thereby simultaneously forming non-planar transistor gate spacers from a portion of the dielectric material layer adjacent sidewalls of the non-planar transistor gate, and removing the dielectric material layer adjacent the non-planar transistor fin. forming a non-planar transistor fin on a substrate; forming a non-planar transistor gate over the non-planar transistor fin; conformally depositing a dielectric material layer over the non-planar transistor gate and the non-planar transistor fin; and forming a capping material layer over the dielectric material layer; forming a sacrificial layer on the capping material layer; recessing the sacrificial layer to expose a portion of the capping material layer; altering the etching characteristics of the exposed portion of the capping material layer; removing the sacrificial layer, and removing the unaltered portion of the capping material layer, thereby forming a capping structure on a portion of the dielectric material layer proximate an upper portion of the non-planar transistor gate; directionally etching the dielectric material layer in a direction toward the substrate 102, wherein the capping structure 164 protects the dielectric material layer 142 adjacent the non-planar transistor gate 122 while the dielectric material layer 142 adjacent the substrate 102 and the non-planar transistor fin 112 is removed, thereby simultaneously forming non-planar transistor gate spacers from a portion of the dielectric material layer adjacent sidewalls of the non-planar transistor gate, and removing the dielectric material layer adjacent the non-planar transistor fin.
A coil spring having a spring wire formed into a helical shape axially extending from one side to the other side so as to include a first end coil part having a first bearing surface that is arranged on one side in the axial direction of the coil spring and faces one side in the axial direction of the coil spring, a second end coil part having a second bearing surface that is arranged on the other side in the axial direction of the coil spring and faces the other side in the axial direction of the coil spring and a central coil part between the first and second end coil parts (10, 20), wherein the first end coil part includes a first end coil part edge region that extends from a first end on one side in the axial direction of the coil spring to a part forming a first reference point on one side in the axial direction where a space between coils that are adjacent to each other in an axial direction is zero in the natural length state, and a first end coil part transitional region that extends from the first end coil edge region to the central coil part, the first end coil part edge region is bent toward one side in the axial direction of the coil spring as compared with the first end coil part transitional region; the coil spring being characterized in that, the first bearing surface extends from the first end coil part edge region to the first end coil part transitional region across a border between the first end coil part edge region and the first end coil part transitional region. the first end coil part edge region is bent toward one side in the axial direction of the coil spring as compared with the first end coil part transitional region; the coil spring being characterized in that, the first bearing surface extends from the first end coil part edge region to the first end coil part transitional region across a border between the first end coil part edge region and the first end coil part transitional region.
A motor of spring charging device in air circuit breaker comprising: a first frame formed with a bearing insertion hole and a pair of brush holder insertion holes; a second frame formed with a bearing insertion hole and a shaft through hole; bearings each inserted into the bearing insertion holes formed at the first and second frames (210, 220); a shaft rotatably coupled to the first and second frames (210, 220) via the bearings by passing through the shaft through hole of the second frame; a commutator coupled to the shaft; a rotor winding rotating the shaft; a brush holder inserted into the brush holder insertion hole, said rotor winding being connected to an electric line via said brush holder and said commutator; and a brush inserted into the brush holder in a state of being elastically supported by a spring urging the brush into contact with the commutator, characterized in that the brush holder is of a rectangular shape and includes a bottom blocking plate mounted thereunder for blocking a bottom opened by being bent through bending operation, and an electric line fixation piece is provided at an external wall of the brush holder for connectively fixing the electric line for electrical connection with the rotor winding by being bent through bending operation, and in that the first and second frames (210, 220) are formed with glass fiber-added plastic material. a first frame formed with a bearing insertion hole and a pair of brush holder insertion holes; a second frame formed with a bearing insertion hole and a shaft through hole; bearings each inserted into the bearing insertion holes formed at the first and second frames (210, 220); a shaft rotatably coupled to the first and second frames (210, 220) via the bearings by passing through the shaft through hole of the second frame; a commutator coupled to the shaft; a rotor winding rotating the shaft; a brush holder inserted into the brush holder insertion hole, said rotor winding being connected to an electric line via said brush holder and said commutator; and a brush inserted into the brush holder in a state of being elastically supported by a spring urging the brush into contact with the commutator, characterized in that the brush holder is of a rectangular shape and includes a bottom blocking plate mounted thereunder for blocking a bottom opened by being bent through bending operation, and an electric line fixation piece is provided at an external wall of the brush holder for connectively fixing the electric line for electrical connection with the rotor winding by being bent through bending operation, and in that the first and second frames (210, 220) are formed with glass fiber-added plastic material.
A vibrating flow meter, comprising: a flow conduit including a first end portion and a second end portion; a case surrounding at least a portion of the flow conduit; a first case connect including: a first portion coupled to the first end portion of the flow conduit; and characterized by: one or more deformable members (292, 293, 294) extending radially from the first portion and coupled to the case such that the one or more deformable members (292, 293, 294) limit motion of the flow conduit in a direction parallel to a plane of the deformable members (292, 293, 294) and in a direction parallel to an axis of rotation of the flow conduit but allow the flow conduit to rotate about the axis of rotation. a flow conduit including a first end portion and a second end portion; a case surrounding at least a portion of the flow conduit; a first case connect including: a first portion coupled to the first end portion of the flow conduit; and characterized by: one or more deformable members (292, 293, 294) extending radially from the first portion and coupled to the case such that the one or more deformable members (292, 293, 294) limit motion of the flow conduit in a direction parallel to a plane of the deformable members (292, 293, 294) and in a direction parallel to an axis of rotation of the flow conduit but allow the flow conduit to rotate about the axis of rotation. a first portion coupled to the first end portion of the flow conduit; and characterized by: one or more deformable members (292, 293, 294) extending radially from the first portion and coupled to the case such that the one or more deformable members (292, 293, 294) limit motion of the flow conduit in a direction parallel to a plane of the deformable members (292, 293, 294) and in a direction parallel to an axis of rotation of the flow conduit but allow the flow conduit to rotate about the axis of rotation.
Method for calibrating an amperometric measuring electrode, which is used to determine the concentration of disinfecting agents in water, characterized in that (a) water from a water line, which shall be tested, is branched off and passed past the amperometric measuring electrode, this passing being carried out in a circuit, (b) a measured value of the amperometric measuring electrode is determined, (c) the concentration of disinfecting agents of the branched water is determined by means of a further method, and (d) the concentration of disinfecting agents that is determined in step (c) is used as a standard for the calibration of the amperometric measuring electrode. (a) water from a water line, which shall be tested, is branched off and passed past the amperometric measuring electrode, this passing being carried out in a circuit, (b) a measured value of the amperometric measuring electrode is determined, (c) the concentration of disinfecting agents of the branched water is determined by means of a further method, and (d) the concentration of disinfecting agents that is determined in step (c) is used as a standard for the calibration of the amperometric measuring electrode.
A light-emitting device comprising: a plurality of partially drivable light sources, and a color conversion component configured to convert at least part of incident light from at least part of the light sources and emit outgoing light falling in a different wavelength region from the incident light, wherein the color conversion component comprises: partition walls disposed to form a pattern of recesses corresponding to the light sources, and color conversion layers disposed in the recesses, wherein the color conversion layers comprise two or more kinds of color conversion layers configured to emit outgoing lights falling in different wavelength regions from one another, wherein each of the color conversion layers comprises a pyrromethene derivative, wherein the pyrromethene derivative is a compound represented by the general formula below: where in the general formula, X is C-R 7 or N, and R 1, R 3, R 4, and R 6 to R 9 are the same as or different from one another and are each selected from hydrogen, alkyl group, cycloalkyl group, heterocyclic group, alkenyl group, cycloalkenyl group, alkynyl group, hydroxy group, thiol group, alkoxy group, alkylthio group, aryl ether group, aryl thioether group, aryl group, heteroaryl group, halogen, cyano group, aldehyde group, carbonyl group, carboxy group, ester group, carbamoyl group, amino group, nitro group, silyl group, siloxanyl group, boryl group, sulfo group, phosphine oxide group, and fused ring and aliphatic ring formed with an adjacent substituent, wherein R 2 and R 5 each are a fluorine-containing ester group, wherein the color conversion component comprises a resin, and wherein the resin has an oxygen permeability of not less than 0.1 cc/m 2 ·day·atm. a plurality of partially drivable light sources, and a color conversion component configured to convert at least part of incident light from at least part of the light sources and emit outgoing light falling in a different wavelength region from the incident light, partition walls disposed to form a pattern of recesses corresponding to the light sources, and color conversion layers disposed in the recesses, wherein R 2 and R 5 each are a fluorine-containing ester group, wherein the color conversion component comprises a resin, and wherein the resin has an oxygen permeability of not less than 0.1 cc/m 2 ·day·atm.
A base station (100, 200) for a mobile cleaner, the base station (100, 200) comprising: a dock (102, 202) configured to accommodate the mobile cleaner; a cleaning unit (104, 404) configured to clean the mobile cleaner accommodated in the dock (102, 202); and a water supply assembly (106, 306, 406, 406', 506) configured to supply water to the cleaning unit (104, 404) from a water source; characterized in that, the base station (100, 200) further comprises: a self-checking module configured to detect a malfunction regarding conveyance of water from the water source to the cleaning unit (104, 404). a dock (102, 202) configured to accommodate the mobile cleaner; a cleaning unit (104, 404) configured to clean the mobile cleaner accommodated in the dock (102, 202); and a water supply assembly (106, 306, 406, 406', 506) configured to supply water to the cleaning unit (104, 404) from a water source; characterized in that, the base station (100, 200) further comprises: a self-checking module configured to detect a malfunction regarding conveyance of water from the water source to the cleaning unit (104, 404).
A data processing system (145, 800) comprising: a speaker disposed in a sealed enclosure; a processor; and a computer-readable medium storing executable instructions for causing the processor to perform operations comprising: obtaining a first input signal to be output by the speaker; determining a first volume level associated with the first input signal; selecting a first Linkwitz Transform and a first Multiband Compressor, MBDRC, from volume-dependent configuration data based on the first volume level; generating a first intermediate signal by applying the first Linkwitz Transform to the first input signal to increase a low-frequency response of the speaker; generating a first output signal by applying the first MBDRC to the first intermediate signal by compressing at least a portion of the first intermediate signal that exceeds a signal threshold of the speaker; and driving the speaker to produce first audio output using the first output signal. a speaker disposed in a sealed enclosure; a processor; and a computer-readable medium storing executable instructions for causing the processor to perform operations comprising: obtaining a first input signal to be output by the speaker; determining a first volume level associated with the first input signal; selecting a first Linkwitz Transform and a first Multiband Compressor, MBDRC, from volume-dependent configuration data based on the first volume level; generating a first intermediate signal by applying the first Linkwitz Transform to the first input signal to increase a low-frequency response of the speaker; generating a first output signal by applying the first MBDRC to the first intermediate signal by compressing at least a portion of the first intermediate signal that exceeds a signal threshold of the speaker; and driving the speaker to produce first audio output using the first output signal. obtaining a first input signal to be output by the speaker; determining a first volume level associated with the first input signal; selecting a first Linkwitz Transform and a first Multiband Compressor, MBDRC, from volume-dependent configuration data based on the first volume level; generating a first intermediate signal by applying the first Linkwitz Transform to the first input signal to increase a low-frequency response of the speaker; generating a first output signal by applying the first MBDRC to the first intermediate signal by compressing at least a portion of the first intermediate signal that exceeds a signal threshold of the speaker; and driving the speaker to produce first audio output using the first output signal.
A piezoelectric device comprising: a substrate; a first electrode (12, 22, 32, 42); a piezoelectric layer; and a second electrode (14, 24, 34, 44), wherein the first electrode (12, 22, 32, 42), the piezoelectric layer, and the second electrode (14, 24, 34, 44) are stacked in this order on the substrate, wherein the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44) are arranged so as not to overlap each other in a stacking direction, characterized in that the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44) have complementary planar electrode patterns such that one of the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44) has a shape of a cutaway of the other one of the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44). a substrate; a first electrode (12, 22, 32, 42); a piezoelectric layer; and a second electrode (14, 24, 34, 44), wherein the first electrode (12, 22, 32, 42), the piezoelectric layer, and the second electrode (14, 24, 34, 44) are stacked in this order on the substrate, wherein the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44) are arranged so as not to overlap each other in a stacking direction, characterized in that the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44) have complementary planar electrode patterns such that one of the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44) has a shape of a cutaway of the other one of the first electrode (12, 22, 32, 42) and the second electrode (14, 24, 34, 44).
Medicinal product or dietary supplement comprising rosemary (Rosmarinus officinalis/Rosmarini folium), lovage (Levisticum officinale/Levistici radix) and lesser centaury (Centaurium erythraea/Centaurii herba) for use in the prophylaxis and treatment of inflammatory diseases of the prostate.
A humidity measurement device comprising a processor of diagnosis for performing a self-diagnosis by using a gas temperature and a gas humidity before heating control of circumstances gas, and a gas temperature and a gas humidity that have been heating-controlled, wherein the processor of diagnosis comprises a determination part of diagnosis-start performing diagnosis-start determination processing for determining whether the self-diagnosis can be started or not, based on an exchange state of the circumstances, and the gas temperature and the gas humidity before heating control of circumstances gas, and a diagnosis part performing self-diagnosis processing, characterized in that, the processor of diagnosis further comprises a determination part of diagnosis-continuation performing diagnosis-continuation determination processing for determining whether the self-diagnosis can be continued or not, during the self-diagnosis, based on the gas temperature and the gas humidity that have been heating-controlled, wherein processing proceeds from diagnosis-start determination processing to self-diagnosis and diagnosis-continuation determination processing when the determination part of diagnosis determines that the self-diagnosis can be started. a determination part of diagnosis-start performing diagnosis-start determination processing for determining whether the self-diagnosis can be started or not, based on an exchange state of the circumstances, and the gas temperature and the gas humidity before heating control of circumstances gas, and a diagnosis part performing self-diagnosis processing,
An LED lighting circuit, comprising an input (Vbus, GND) adapted to receive an input voltage, a plurality of LED segments (LED1, LED2, LED3, LED4) connected in a series string, whereby said series string is connected to the input; a buffer component connected to an anode and a cathode of the series string; a current source circuit in series connection with a parallel connection of the buffer component and the at least two LED segments; characterized in that the LED lighting circuit further comprises a further buffer component across the current source circuit, wherein said buffer component and the further buffer component are in series connection. an input (Vbus, GND) adapted to receive an input voltage, a plurality of LED segments (LED1, LED2, LED3, LED4) connected in a series string, whereby said series string is connected to the input; a buffer component connected to an anode and a cathode of the series string; a current source circuit in series connection with a parallel connection of the buffer component and the at least two LED segments; characterized in that the LED lighting circuit further comprises a further buffer component across the current source circuit, wherein said buffer component and the further buffer component are in series connection.
A glass-based solar panel comprising a soda-lime-silica-based planar glass substrate comprising the following components: SiO 2 between 70 wt% and 75 wt% CaO between 9 wt% and 10.65 wt% MgO between 4.4 wt% and 5.85 wt% CaO + MgO between 13.5 wt% and 15.8 wt% Na 2 O between 10.9 wt% and 13.6 wt% wherein the planar glass substrate is substantially free of one or more of Zr, Li, Sr, Ba, Sb, B, P, Ge and Ce, and wherein the planar glass substrate exhibits an annealing point greater than 575 degrees Celsius.
A chemical-electromagnetic hybrid propulsion system with variable specific impulse, comprising: a chemical propulsion system having an outlet tube for ejecting fuel gas resulting from the chemical propulsion, first and second magnetic mirror tubes, an ionization chamber, and an ion cyclotron wave heating chamber; wherein the first magnetic mirror tube is sealingly connected on the rear end of the outlet tube of the chemical propulsion system, and the other end of the first magnetic mirror tube is sealingly connected to the ion cyclotron wave heating chamber by the ionization chamber; and wherein the other end of the ion cyclotron wave heating chamber is sealingly connected with the second magnetic tube; whereby fuel gas ejected from the outlet tube of the chemical propulsion system enters the ionization chamber through the first magnetic mirror tube for ionization, the fuel gas after ionization is heated up by radio-frequency ion cyclotron waves in the ion cyclotron wave heating chamber for improving kinetic energy, the second magnetic mirror tube causes ions in the fuel gas after the ionization to be heated up many times in a reciprocating manner between the magnetic mirror tubes, and a plasma jet flame is ejected to generate forward propulsion force; and wherein the first magnetic mirror tube is a permanent magnet, and the second magnetic mirror tube is a solenoid coil.