mhurhangee/ep-ind-claims huggingface dataset:
Control device for controlling a pulse-controlled inverter of an electric drive system, comprising: an open-loop/closed-loop control circuit which is configured in a microprocessor and is designed to generate pulse-width-modulated control signals for complementary switching devices of the pulse-controlled inverter and to dynamically set protection times for the control of the complementary switching devices in bridge branches of the pulse-controlled inverter; a fault logic circuit, which can detect fault states in the drive system and which is designed to select a switching state or a sequence of switching states for the switching devices of the pulse-controlled inverter which are assigned to the corresponding fault state; and a protection circuit, which is embodied in hardware and which comprises a signal delay device, which is designed to delay the control signals in order to implement a minimum protection time, such that, firstly, a setting of the protection times via control software is effected and, secondly, a downstream setting of the protection times is effected in a hardware circuit connected downstream of the control software, and a latching device (16a, 16b), which is designed to latch two complementary switching devices of a bridge branch of the pulse-controlled inverter with respect to one another. an open-loop/closed-loop control circuit which is configured in a microprocessor and is designed to generate pulse-width-modulated control signals for complementary switching devices of the pulse-controlled inverter and to dynamically set protection times for the control of the complementary switching devices in bridge branches of the pulse-controlled inverter; a fault logic circuit, which can detect fault states in the drive system and which is designed to select a switching state or a sequence of switching states for the switching devices of the pulse-controlled inverter which are assigned to the corresponding fault state; and a protection circuit, which is embodied in hardware and which comprises a signal delay device, which is designed to delay the control signals in order to implement a minimum protection time, such that, firstly, a setting of the protection times via control software is effected and, secondly, a downstream setting of the protection times is effected in a hardware circuit connected downstream of the control software, and a latching device (16a, 16b), which is designed to latch two complementary switching devices of a bridge branch of the pulse-controlled inverter with respect to one another.
An evacuation slide, comprising: a slide lane; an extension; a hinge portion coupled between the extension and a head end of the evacuation slide configured to buckle in response to bearing a weight of at least 22,68 kg (50 lbs) and in response to a door sill height being less than or equal to a predetermined height; and a lane diverter coupled to the evacuation slide, wherein, in response to the buckling, the lane diverter contacts an exit surface to deform a portion of the evacuation slide and redirect the slide lane to a side exit of the evacuation slide, and wherein when the hinge is in an unbuckled position, the lane diverter is suspended below the evacuation slide. a slide lane; an extension; a hinge portion coupled between the extension and a head end of the evacuation slide configured to buckle in response to bearing a weight of at least 22,68 kg (50 lbs) and in response to a door sill height being less than or equal to a predetermined height; and a lane diverter coupled to the evacuation slide, wherein, in response to the buckling, the lane diverter contacts an exit surface to deform a portion of the evacuation slide and redirect the slide lane to a side exit of the evacuation slide, and wherein when the hinge is in an unbuckled position, the lane diverter is suspended below the evacuation slide.
A pressure cooker lid with a lid handle, a lid body, a cooking pressure control device and a functional element and a rotatable machine element, by means of which both a target cooking pressure p z of the cooking pressure control device and a parameter influencing a function of the function element can be set mechanically via a rotary movement about its axis of rotation, wherein the cooking pressure control device and the functional element are arranged at the same height as seen in the direction of the axis of rotation, characterized in that, when a connecting straight line connecting the cooking pressure control device to the functional element and the axis of rotation are projected onto a plane which is perpendicular to a connecting line connecting the connecting straight line and the axis of rotation at a minimum distance, the following applies to the angle α between the projection of the connecting straight line onto this plane and the projection of the axis of rotation onto this plane: α ≥45°. a lid handle, a lid body, a cooking pressure control device and a functional element and a rotatable machine element, by means of which both a target cooking pressure p z of the cooking pressure control device and a parameter influencing a function of the function element can be set mechanically via a rotary movement about its axis of rotation, wherein the cooking pressure control device and the functional element are arranged at the same height as seen in the direction of the axis of rotation, characterized in that, when a connecting straight line connecting the cooking pressure control device to the functional element and the axis of rotation are projected onto a plane which is perpendicular to a connecting line connecting the connecting straight line and the axis of rotation at a minimum distance, the following applies to the angle α between the projection of the connecting straight line onto this plane and the projection of the axis of rotation onto this plane: α ≥45°.
A toner composition comprising toner particles formed by an emulsion/aggregation process, wherein the toner particles comprise: one or more resins; a fluorescent nanoparticle composition comprising a nanoscale fluorescent pigment particle; an optional colorant; an optional wax and an optional coagulant particle, characterized in that the toner particles have a core portion and a shell portion, wherein the core portion comprises an amorphous polyester, a crystalline polyester, and optionally a wax, wherein the crystalline polyester has a melting point of from 50°C to 100°C, and wherein the shell portion comprises an amorphous polyester and is free of crystalline polyester, and wherein the amorphous polyester is a linear amorphous polyester resin; the crystalline polyester resin comprises from 3 weight percent to 20 weight percent of the toner; the amorphous polyester resin comprises from 35 weight percent to 90 weight percent of the toner; the toner composition further comprises at least one colorant comprising from 2 weight percent to 15 weight percent of the toner; or the wax comprises from 3 weight percent to 20 weight percent of the toner. one or more resins; a fluorescent nanoparticle composition comprising a nanoscale fluorescent pigment particle; an optional colorant; an optional wax and an optional coagulant particle, characterized in that the toner particles have a core portion and a shell portion, wherein the core portion comprises an amorphous polyester, a crystalline polyester, and optionally a wax, wherein the crystalline polyester has a melting point of from 50°C to 100°C, and wherein the shell portion comprises an amorphous polyester and is free of crystalline polyester, and wherein the amorphous polyester is a linear amorphous polyester resin; the crystalline polyester resin comprises from 3 weight percent to 20 weight percent of the toner; the amorphous polyester resin comprises from 35 weight percent to 90 weight percent of the toner; the toner composition further comprises at least one colorant comprising from 2 weight percent to 15 weight percent of the toner; or the wax comprises from 3 weight percent to 20 weight percent of the toner.
A bottom-pouring-type melt ladle comprising a melt-pouring nozzle, and a vertically movable stopper rod for opening and closing an upper opening of said nozzle; said upper opening of said nozzle having a reverse-conically tapered surface or a spherically tapered surface providing an inward projecting fan-shaped cross section; a lower end portion (41a, 141a) of said stopper rod having a reverse-conically tapered surface or a spherical surface, provided that it has a spherical surface when the upper opening of said nozzle has a reverse-conically tapered surface; characterized in that a center axis O 2 of said stopper rod is horizontally separate from a center axis O 1 of said nozzle, in a state where said stopper rod is upward separate from said nozzle; when the lower end portion (41a, 141a) of said stopper rod moving downward comes into contact with the tapered surface (3a, 13a) of said nozzle, the horizontal distance between the center axis O 2 of said stopper rod and the center axis O 1 of said nozzle is 2 mm or more; when said stopper rod further moves downward, the lower end portion (41a, 141a) of said stopper rod slides downward along the tapered surface (3a, 13a) of said nozzle, thereby closing the upper opening of said nozzle, wherein said stopper rod has a mechanism for absorbing a horizontal movement of the center axis O 2 of said stopper rod; and when said stopper rod is lifted, said stopper rod moves upward along the tapered surface (3a, 13a) of said nozzle from a position where the upper opening of said nozzle is closed, such that the center axis O 2 of said stopper rod is horizontally separated by 2 mm or more from the center axis O 1 of said nozzle.
An electronic device comprising a first USB Type-C connector for receiving a second USB Type-C connector of an external device, the first USB Type-C connector including first Sideband Use, SBU, Differential Positive, D+, Differential Negative, D-, and Configuration Channel, CC, pins arranged in a first order on a first side of the first USB Type-C connector and second SBU, D+, D-, and CC pins arranged in a second order on an opposing second side of the first USB Type-C connector, wherein the first order is the reverse of the second order and the first SBU pin is connected to a first microphone detection input of the electronic device and the second SBU pin is connected to a second microphone detection input of the electronic device, and wherein the electronic device is configured to determine a connection state of the first USB Type-C connector through the first or second CC pins; detect an impedance on the first SBU pin through the first microphone detection input and an impedance on the second SBU pin through the second microphone detection input; and based on the connection state of the first USB Type-C connector and the impedance on the first SBU pin and the second SBU pin, output an audio output signal to the first or second D+ and D- pins and receive an analogue audio input signal from the first or second SBU pins, wherein the electronic device further comprises an audio codec, and the first microphone detection input and the second microphone detection input are included in the audio codec or detection circuitry external to the audio codec, and wherein the analogue audio input signal is a microphone signal received from a microphone of a passive audio headset, and the stereo audio output signal is an analog stereo audio signal for outputting via left and right speakers of the passive audio headset. determine a connection state of the first USB Type-C connector through the first or second CC pins; detect an impedance on the first SBU pin through the first microphone detection input and an impedance on the second SBU pin through the second microphone detection input; and based on the connection state of the first USB Type-C connector and the impedance on the first SBU pin and the second SBU pin, output an audio output signal to the first or second D+ and D- pins and receive an analogue audio input signal from the first or second SBU pins, wherein the electronic device further comprises an audio codec, and the first microphone detection input and the second microphone detection input are included in the audio codec or detection circuitry external to the audio codec, and wherein the analogue audio input signal is a microphone signal received from a microphone of a passive audio headset, and the stereo audio output signal is an analog stereo audio signal for outputting via left and right speakers of the passive audio headset.
A pump assembly with an electric drive motor and with at least one impeller which is driven by this, wherein the impeller is movable in the axial direction between at least one first and a second position, wherein the impeller in its first axial position is situated in a first flow path through the pump assembly and delivers fluid through this first flow path, the impeller in its second position is situated in a second flow path through the pump assembly and delivers a fluid through this second flow path, and the pump assembly is designed in a manner such that a movement of the impeller between the first and the second position at least on one direction is effected by a hydraulic force which acts on the impeller and is produced by the delivered fluid, characterised in that the pump assembly is designed in a manner such that the hydraulic force can be produced by differently great accelerations of the drive motor.
A method for determining the accurate positioning of a medical device in a patient, the method comprising: providing a medical device; providing a body fluid sample from the area of the body where the medical device is positioned; characterized by providing a pH indicator device impregnated with an enzyme substrate; screening the body fluid sample with the pH indicator device at a point of care to determine accurate positioning of the medical device based on the catalytic action of an enzyme in the body fluid sample on the enzyme substrate, wherein the catalytic action of the enzyme yields a pH less than the pH detected by a standard pH test. providing a medical device; providing a body fluid sample from the area of the body where the medical device is positioned; characterized by
A system, comprising: a first structure configured to be coupled to a tubular string (44, 46) extending to a seafloor, wherein the first structure comprises: a drill floor as a bottom portion of the first structure, wherein the drill floor comprises floor slips configured to support a tubular segment; one or more beams coupled to and disposed about the drill floor and extending vertically away from the drill floor; one or more upper beams coupled to the one or more beams and extending perpendicular to the one or more beams; and a derrick of an offshore vessel disposed on the one or more upper beams; and a second structure circumscribing at least one of the drill floor and the derrick of the offshore vessel and slidingly coupled to the first structure via at least one guide (112, 114) and configured to restrict lateral movement of the first structure while allowing for vertical movement between the first structure as well as the derrick and inclusive of the drill floor and the second structure relative to the seafloor. a first structure configured to be coupled to a tubular string (44, 46) extending to a seafloor, wherein the first structure comprises: a drill floor as a bottom portion of the first structure, wherein the drill floor comprises floor slips configured to support a tubular segment; one or more beams coupled to and disposed about the drill floor and extending vertically away from the drill floor; one or more upper beams coupled to the one or more beams and extending perpendicular to the one or more beams; and a derrick of an offshore vessel disposed on the one or more upper beams; and a drill floor as a bottom portion of the first structure, wherein the drill floor comprises floor slips configured to support a tubular segment; one or more beams coupled to and disposed about the drill floor and extending vertically away from the drill floor; one or more upper beams coupled to the one or more beams and extending perpendicular to the one or more beams; and a derrick of an offshore vessel disposed on the one or more upper beams; and a second structure circumscribing at least one of the drill floor and the derrick of the offshore vessel and slidingly coupled to the first structure via at least one guide (112, 114) and configured to restrict lateral movement of the first structure while allowing for vertical movement between the first structure as well as the derrick and inclusive of the drill floor and the second structure relative to the seafloor.
A light emitting element (1, 10, 20, 30) comprising a semiconductor layer which is in a planar shape of a hexagon, a second electrode (6, 16) provided on the semiconductor layer, and a first electrode (7, 97) provided on the semiconductor layer and having a first electrode-pad portion (7a, 97a), a first electrode-extension portion (7b, 97b) that extends from the first electrode-pad portion (7a, 97a) on an imaginary circle or is tangent to the imaginary circle to which the first electrode-pad portion (7a, 97a) is tangent on the inside and whose center is at the same location as center of gravity of the hexagonal shape, and a second electrode-extension portion (7c, 97c) that extends on the imaginary circle or is tangent to the inside of the imaginary circle from the first electrode-pad portion (7a, 97a) on the opposite side from the first electrode-extension portion (7b, 97b) the imaginary circle is a circle that surrounds about 55% to 80% of total surface area of the semiconductor layer, and the second electrode (6,16) is disposed more to the inside than the imaginary circle. a first electrode-pad portion (7a, 97a), a first electrode-extension portion (7b, 97b) that extends from the first electrode-pad portion (7a, 97a) on an imaginary circle or is tangent to the imaginary circle to which the first electrode-pad portion (7a, 97a) is tangent on the inside and whose center is at the same location as center of gravity of the hexagonal shape, and a second electrode-extension portion (7c, 97c) that extends on the imaginary circle or is tangent to the inside of the imaginary circle from the first electrode-pad portion (7a, 97a) on the opposite side from the first electrode-extension portion (7b, 97b) the imaginary circle is a circle that surrounds about 55% to 80% of total surface area of the semiconductor layer, and the second electrode (6,16) is disposed more to the inside than the imaginary circle.
A molded photosensitive assembly (10, 10'), for a camera module, comprising: at least one circuit board (11, 11'); at least one photosensitive element (13, 13'); at least one molded base (12, 12') integrally packaged and molded on said circuit board (11, 11') and said photosensitive element (13, 13') through a molding process, wherein said molded base (12, 12') has at least one light window formed to communicate with said photosensitive element (13, 13'), wherein said molded base (12, 12') has an inner side surface, wherein at least one portion of said inner side surface is integrally and inclinedly extended from said photosensitive element (13, 13'), wherein said inner side surface of said molded base (12, 12') and an axis parallel to a longitudinal line direction of an optical axis of said photosensitive element (13, 13') define a first inclination angle α for facilitating demoulding and avoiding stray lights, the angular range of the first angle α is 10°~80°, wherein said molded base (12, 12') is also formed with one or more lens actuator pin grooves at an outer side surface of said molded base (12, 12') to expose an electrical connection area of said circuit board (11, 11'), wherein a pin groove wall defining each of said lens actuator pin grooves and an axis parallel to the longitudinal line direction of the optical axis of the photosensitive element (13, 13') define a fourth inclination angle δ therebetween, the angular range of the fourth angle δ is 3°~30°. at least one circuit board (11, 11'); at least one photosensitive element (13, 13'); at least one molded base (12, 12') integrally packaged and molded on said circuit board (11, 11') and said photosensitive element (13, 13') through a molding process, wherein said molded base (12, 12') has at least one light window formed to communicate with said photosensitive element (13, 13'), wherein said molded base (12, 12') has an inner side surface, wherein at least one portion of said inner side surface is integrally and inclinedly extended from said photosensitive element (13, 13'), wherein said inner side surface of said molded base (12, 12') and an axis parallel to a longitudinal line direction of an optical axis of said photosensitive element (13, 13') define a first inclination angle α for facilitating demoulding and avoiding stray lights, the angular range of the first angle α is 10°~80°, wherein said molded base (12, 12') is also formed with one or more lens actuator pin grooves at an outer side surface of said molded base (12, 12') to expose an electrical connection area of said circuit board (11, 11'), wherein a pin groove wall defining each of said lens actuator pin grooves and an axis parallel to the longitudinal line direction of the optical axis of the photosensitive element (13, 13') define a fourth inclination angle δ therebetween, the angular range of the fourth angle δ is 3°~30°.
A liquid concentrate formulation, which comprises a) 0.5 to 30 wt%, based on the total weight of the formulation, of a compound of formula I; b) 3 to 50 wt%, based on the total weight of the formulation, of propylene glycol, c) 20 to 85 wt%, based on the total weight of the formulation, of at least one alkoxylated aliphatic alcohol of formula R a -O-(C m H 2m O) x -(C n H 2n O) y -(C p H 2p O) z -R b in which R a represents C 8 -C 36 -alkyl, C 8 -C 36 -alkenyl or a mixture thereof; R b represents H or C 1 -C 12 -alkyl; m, n, p represent, independently of one another, an integer from 2 to 16; x, y, z represent, independently of one another, a number from 0 to 50; and x+y+z corresponds to a value from 2 to 50, d) 1 to 50 wt%, based on the total weight of the formulation, of at least one C 2 -C 4 -alkylene carbonate, and e) 0.5 to 20 wt%, based on the total weight of the formulation, of at least one non-ionic surfactant S that is different from the alkoxylated aliphatic alcohol A, wherein the combined amounts of the components a), b), c), d) and e) add up to at least 90 wt% of the total amount of the formulation. a) 0.5 to 30 wt%, based on the total weight of the formulation, of a compound of formula I; b) 3 to 50 wt%, based on the total weight of the formulation, of propylene glycol, c) 20 to 85 wt%, based on the total weight of the formulation, of at least one alkoxylated aliphatic alcohol of formula R a -O-(C m H 2m O) x -(C n H 2n O) y -(C p H 2p O) z -R b in which R a represents C 8 -C 36 -alkyl, C 8 -C 36 -alkenyl or a mixture thereof; R b represents H or C 1 -C 12 -alkyl; m, n, p represent, independently of one another, an integer from 2 to 16; x, y, z represent, independently of one another, a number from 0 to 50; and x+y+z corresponds to a value from 2 to 50, R a represents C 8 -C 36 -alkyl, C 8 -C 36 -alkenyl or a mixture thereof; R b represents H or C 1 -C 12 -alkyl; m, n, p represent, independently of one another, an integer from 2 to 16; x, y, z represent, independently of one another, a number from 0 to 50; and x+y+z corresponds to a value from 2 to 50, d) 1 to 50 wt%, based on the total weight of the formulation, of at least one C 2 -C 4 -alkylene carbonate, and e) 0.5 to 20 wt%, based on the total weight of the formulation, of at least one non-ionic surfactant S that is different from the alkoxylated aliphatic alcohol A, wherein the combined amounts of the components a), b), c), d) and e) add up to at least 90 wt% of the total amount of the formulation.