mhurhangee/ep-ind-claims huggingface dataset:
An engine device comprising a first case for removing particulate matter in exhaust gas of an engine and a second case for removing nitrogen oxide in the exhaust gas of the engine, a cooling fan for supplying a cooling airflow to the engine, the first case and the second case being disposed on an upper surface side of the engine, and a machine frame for a machine body on which the engine is mounted, the machine frame supporting a cooling fan shroud for covering the cooling fan, characterized in that the first case and the second case are disposed at a position higher than an air flow path of a cooling airflow supplied by the cooling fan, and the second case is disposed at a position higher than the first case, the second case is supported by the machine frame and disposed at a position higher than the upper surface of the cooling fan shroud and above the cooling fan, and the first case is supported by a case bracket (81, 82) disposed to stand on a cylinder head of the engine, wherein a SCR support leg protrudes from the second case toward the lower surface side, and the lower end side of the SCR support leg is fastened to the machine frame with bolts in an attachable and detachable manner. the first case and the second case are disposed at a position higher than an air flow path of a cooling airflow supplied by the cooling fan, and the second case is disposed at a position higher than the first case, the second case is supported by the machine frame and disposed at a position higher than the upper surface of the cooling fan shroud and above the cooling fan, and the first case is supported by a case bracket (81, 82) disposed to stand on a cylinder head of the engine, wherein a SCR support leg protrudes from the second case toward the lower surface side, and the lower end side of the SCR support leg is fastened to the machine frame with bolts in an attachable and detachable manner.
Method for stitching video data from two image sensors arranged to each capture video data of overlapping camera views of a scene, each image sensor having a position in a three-dimensional coordinate system relative to an origin of the three-dimensional coordinate system, the method comprising: detecting motion in an area in the camera views corresponding to the overlapping camera views, determining an activity distance, being the distance from a position in the scene corresponding to the origin of the three-dimensional coordinate system to an activity position including the detected motion, wherein the determining of an activity distance includes accumulating motion data in the overlapping video data during a predetermined time period or for a predetermined number of motion detections and then selecting a position that have accumulated most motion as the activity position, positioning, in the three-dimensional coordinate system, a projection surface having a predetermined shape at a distance from the origin corresponding to the determined activity distance, such that the projection surface intersects a position in the three-dimensional coordinate system corresponding to the activity position, projecting the video data from each of the image sensors onto the projection surface that have been positioned at the activity distance, and outputting a two-dimensional video corresponding to the projection onto the projection surface. detecting motion in an area in the camera views corresponding to the overlapping camera views, determining an activity distance, being the distance from a position in the scene corresponding to the origin of the three-dimensional coordinate system to an activity position including the detected motion, wherein the determining of an activity distance includes accumulating motion data in the overlapping video data during a predetermined time period or for a predetermined number of motion detections and then selecting a position that have accumulated most motion as the activity position, positioning, in the three-dimensional coordinate system, a projection surface having a predetermined shape at a distance from the origin corresponding to the determined activity distance, such that the projection surface intersects a position in the three-dimensional coordinate system corresponding to the activity position, projecting the video data from each of the image sensors onto the projection surface that have been positioned at the activity distance, and outputting a two-dimensional video corresponding to the projection onto the projection surface.
An SCR catalyst section for fluidly connecting a first turbine (T L) and a second turbine (T H) of a two-stage turbocharged system of a turbocharged internal combustion engine, comprising: a housing extending in a longitudinal direction (z) with an L-shaped cross-section; an inlet formed in a first end of the housing in the longitudinal direction (z); an outlet formed in a second end of the housing in the longitudinal direction (z); a first chamber at least partially defined by the housing and fluidly connected to the inlet, the first chamber being formed in one of the end portions of the L-shape; a second chamber at least partially defined by the housing and fluidly connected to the outlet, the second chamber being formed in the other one of the end portions of the L-shape; a flow passage (122; 113) fluidly connecting the first chamber and the second chamber; a catalyst support; and an SCR catalyst supported by the catalyst support in the flow passage (122; 113), wherein the SCR catalyst comprises: a first end face; a second end face; and a plurality of channels, each of the plurality of channels extending from the first end face to the second end face and opening to the first end face and the second end face, wherein each of the plurality of channels extends from the first end face along a first longitudinal axis at a first angle (α) of around 40° to 70°. a housing extending in a longitudinal direction (z) with an L-shaped cross-section; an inlet formed in a first end of the housing in the longitudinal direction (z); an outlet formed in a second end of the housing in the longitudinal direction (z); a first chamber at least partially defined by the housing and fluidly connected to the inlet, the first chamber being formed in one of the end portions of the L-shape; a second chamber at least partially defined by the housing and fluidly connected to the outlet, the second chamber being formed in the other one of the end portions of the L-shape; a flow passage (122; 113) fluidly connecting the first chamber and the second chamber; a catalyst support; and an SCR catalyst supported by the catalyst support in the flow passage (122; 113), wherein the SCR catalyst comprises: a first end face; a second end face; and a plurality of channels, each of the plurality of channels extending from the first end face to the second end face and opening to the first end face and the second end face, wherein each of the plurality of channels extends from the first end face along a first longitudinal axis at a first angle (α) of around 40° to 70°. a first end face; a second end face; and a plurality of channels, each of the plurality of channels extending from the first end face to the second end face and opening to the first end face and the second end face, wherein each of the plurality of channels extends from the first end face along a first longitudinal axis at a first angle (α) of around 40° to 70°.
Fuel/air supply device, comprising: - a fuel supply arrangement designed to convey fuel from a fuel inlet of the fuel/air supply device to a fuel outlet of the fuel/air supply device, wherein the fuel supply arrangement comprises a fuel compressor designed to take in and pressurize fuel, - a primary air supply arrangement designed to convey air from an air inlet of the fuel/air supply device to an air outlet of the fuel/air supply device, and - a secondary air supply arrangement interconnecting the primary air supply arrangement and the fuel supply arrangement by connecting the primary air supply arrangement to the fuel supply arrangement at a position upstream of the fuel compressor, wherein the secondary air supply arrangement includes an air conduit that has a restricted portion at the position of which an area for allowing air to pass through the air conduit is relatively small in the air conduit. - a fuel supply arrangement designed to convey fuel from a fuel inlet of the fuel/air supply device to a fuel outlet of the fuel/air supply device, wherein the fuel supply arrangement comprises a fuel compressor designed to take in and pressurize fuel, - a primary air supply arrangement designed to convey air from an air inlet of the fuel/air supply device to an air outlet of the fuel/air supply device, and - a secondary air supply arrangement interconnecting the primary air supply arrangement and the fuel supply arrangement by connecting the primary air supply arrangement to the fuel supply arrangement at a position upstream of the fuel compressor, wherein the secondary air supply arrangement includes an air conduit that has a restricted portion at the position of which an area for allowing air to pass through the air conduit is relatively small in the air conduit.
A particle detector system comprising a visual alignment tool and a particle detector component; the component including a mounting portion and an optical module; the mounting portion being fixedly attachable to a mounting surface; the optical module including one or more light sources and one or more light receivers to enable detection of particles based at least partly on ultraviolet and/or infrared light, the optical module being articulated relative to the mounting portion for alignment relative to a target and including means for enabling a visual indication of said alignment; and characterised in that the particle detector component comprises locking means being actuatable to lock the optical module relative to the mounting portion in a selected alignment, wherein the means for enabling a visual indication is an engagement feature for cooperating with the visual alignment tool, the visual alignment tool incorporating a visual targeting means that includes an electro-optical device, wherein the locking means is actuatable by the visual alignment tool via the means for enabling a visual indication of said alignment. the component including a mounting portion and an optical module; the mounting portion being fixedly attachable to a mounting surface; the optical module including one or more light sources and one or more light receivers to enable detection of particles based at least partly on ultraviolet and/or infrared light, the optical module being articulated relative to the mounting portion for alignment relative to a target and including means for enabling a visual indication of said alignment; and characterised in that the particle detector component comprises locking means being actuatable to lock the optical module relative to the mounting portion in a selected alignment, wherein the means for enabling a visual indication is an engagement feature for cooperating with the visual alignment tool, the visual alignment tool incorporating a visual targeting means that includes an electro-optical device, wherein the locking means is actuatable by the visual alignment tool via the means for enabling a visual indication of said alignment.
An indoor lighting panel for mounting on a wall or to a ceiling, wherein the indoor lighting panel comprises: a housing; an arrangement of LEDs in the housing; and a fabric output screen wherein the arrangement of LEDs is an arrangement of UV-B LEDs, wherein the fabric output screen provides a UV-B exit surface, wherein the fabric output screen is at least partially transparent to UV-B light, wherein the fabric output screen has a linear mass density of between 40 and 200 denier, wherein the fabric output screen is at least partially opaque to visible light, and wherein the fabric of the fabric output screen has a low UV absorption coefficient. a housing; an arrangement of LEDs in the housing; and a fabric output screen wherein the arrangement of LEDs is an arrangement of UV-B LEDs, wherein the fabric output screen provides a UV-B exit surface, wherein the fabric output screen is at least partially transparent to UV-B light, wherein the fabric output screen has a linear mass density of between 40 and 200 denier, wherein the fabric output screen is at least partially opaque to visible light, and wherein the fabric of the fabric output screen has a low UV absorption coefficient.
A fuel injection valve apparatus comprising a hybrid nozzle for a diesel engine and a gas engine, the fuel injection valve apparatus injecting fuel to a cylinder in a diesel engine or a gas engine, wherein two kinds of fuel is sequentially injected through respective nozzle holes from one valve due to pressure of the two kinds of fuel introduced to a fuel valve and tension of a needle spring, the fuel injection valve apparatus further comprising: a fuel valve block connected to a fuel pipe, to which the fuel is provided, so as to be provided with the fuel, the fuel valve block comprising a main fuel passage and a pilot fuel passage in which the provided fuel flows; a hybrid nozzle coupled by a nozzle holder so as to be located below the fuel valve block, the hybrid nozzle each comprising a main nozzle hole connected to the main fuel passage to inject main fuel and a pilot nozzle hole connected to the pilot fuel passage to inject pilot fuel; a main needle valve installed to be located within a pilot needle valve located within the hybrid nozzle and providing the main fuel to the main nozzle hole by pressure of main injection after pilot fuel injection; and a needle spring connected to the main needle valve through a spring support and having an elastic force used in injection, the fuel injection valve apparatus characterized by the pilot needle valve comprising a pilot connection hole for providing the pilot fuel to the pilot nozzle hole by pilot pressure and a main connection hole for providing the main fuel through the main nozzle hole by main fuel pressure. a fuel valve block connected to a fuel pipe, to which the fuel is provided, so as to be provided with the fuel, the fuel valve block comprising a main fuel passage and a pilot fuel passage in which the provided fuel flows; a hybrid nozzle coupled by a nozzle holder so as to be located below the fuel valve block, the hybrid nozzle each comprising a main nozzle hole connected to the main fuel passage to inject main fuel and a pilot nozzle hole connected to the pilot fuel passage to inject pilot fuel; a main needle valve installed to be located within a pilot needle valve located within the hybrid nozzle and providing the main fuel to the main nozzle hole by pressure of main injection after pilot fuel injection; and a needle spring connected to the main needle valve through a spring support and having an elastic force used in injection, the fuel injection valve apparatus characterized by the pilot needle valve comprising a pilot connection hole for providing the pilot fuel to the pilot nozzle hole by pilot pressure and a main connection hole for providing the main fuel through the main nozzle hole by main fuel pressure.
An optoelectronic semiconductor element, comprising: an active layer which is suitable for generating radiation, a first waveguide layer which is arranged on a first side of the active layer, a first cladding layer which is arranged on the first waveguide layer, a second waveguide layer which is arranged on a second side of the active layer, and a second cladding layer which is arranged on the second waveguide layer, wherein the active layer has a quantum well structure, in which at least one well layer and at least two barrier layers are arranged in alternating layers, wherein the sum of the thickness of the first waveguide layer and the second waveguide layer is greater than 2 μm, characterized in that the barrier layers (22a, 22b) nearest in each case to the first waveguide layer and the second waveguide layer have a refractive index which is less than or equal to the refractive index of the adjacent waveguide layer (12, 16) in each case. an active layer which is suitable for generating radiation, a first waveguide layer which is arranged on a first side of the active layer, a first cladding layer which is arranged on the first waveguide layer, a second waveguide layer which is arranged on a second side of the active layer, and a second cladding layer which is arranged on the second waveguide layer, wherein the active layer has a quantum well structure, in which at least one well layer and at least two barrier layers are arranged in alternating layers, wherein the sum of the thickness of the first waveguide layer and the second waveguide layer is greater than 2 μm, characterized in that the barrier layers (22a, 22b) nearest in each case to the first waveguide layer and the second waveguide layer have a refractive index which is less than or equal to the refractive index of the adjacent waveguide layer (12, 16) in each case.
A system comprising: a medical device including: at least one implantable multi-axis heart sound sensor, configured to produce a first electrical signal and a second electrical signal representative of respective components for respective first and second non-parallel axes of at least one heart sound, the heart sound associated with mechanical activity of a patient's heart; and a controller circuit, coupled to the heart sound sensor, the controller circuit configured to: measure components of the heart sound that respectively correspond to each of the axes; characterised in that said controller circuit is further configured to use the components to produce a heart sound vector representative of the heart sound, wherein the heart sound vector includes heart sound magnitude and heart sound directional information; and use the heart sound directional information to provide a physiological diagnostic indication. a medical device including: at least one implantable multi-axis heart sound sensor, configured to produce a first electrical signal and a second electrical signal representative of respective components for respective first and second non-parallel axes of at least one heart sound, the heart sound associated with mechanical activity of a patient's heart; and a controller circuit, coupled to the heart sound sensor, the controller circuit configured to: measure components of the heart sound that respectively correspond to each of the axes; characterised in that said controller circuit is further configured to use the components to produce a heart sound vector representative of the heart sound, wherein the heart sound vector includes heart sound magnitude and heart sound directional information; and use the heart sound directional information to provide a physiological diagnostic indication. at least one implantable multi-axis heart sound sensor, configured to produce a first electrical signal and a second electrical signal representative of respective components for respective first and second non-parallel axes of at least one heart sound, the heart sound associated with mechanical activity of a patient's heart; and a controller circuit, coupled to the heart sound sensor, the controller circuit configured to: measure components of the heart sound that respectively correspond to each of the axes; characterised in that said controller circuit is further configured to use the components to produce a heart sound vector representative of the heart sound, wherein the heart sound vector includes heart sound magnitude and heart sound directional information; and use the heart sound directional information to provide a physiological diagnostic indication. measure components of the heart sound that respectively correspond to each of the axes; characterised in that said controller circuit is further configured to use the components to produce a heart sound vector representative of the heart sound, wherein the heart sound vector includes heart sound magnitude and heart sound directional information; and use the heart sound directional information to provide a physiological diagnostic indication.
A safety device with at least two skin electrodes, in which a first measuring device and a measurement signal evaluation unit are provided, wherein the first measuring device detects a first electrical measurement signal (S K (f K)) in a measurement frequency range (f K) between the at least two skin electrodes and the measurement signal evaluation unit determines an evaluation signal (S A) from the detected first measurement signal (S K (f K)) and triggers the safety device if the evaluation signal (S A) reaches a specified triggering sensitivity (E A) of the safety device, and an electrical energy source is provided that feeds an electrical feed signal (S E (f M)) having a specified feed frequency (f M) unequal to the measurement frequency range (f K) via the at least two skin electrodes, wherein a second measuring device and a resistance evaluation unit are provided, and the second measuring device detects a second electrical measurement signal (S M (f M)) at the feed frequency (f M), and the resistance evaluation unit determines a body resistance (R K) occurring between the at least two skin electrodes from the detected second measurement signal (S M (f M)) and the feed signal (S E (f M)), characterized in that the safety device changes the triggering sensitivity (E A) depending on the determined body resistance (R K).
A welding system, comprising: - a welding torch; - a base unit configured to supply the welding torch with a pulsed electrical current for producing a welding arc between the welding torch and a work piece; and - control circuitry configured to detect signals relating to the pulsed electrical current and to store in memory a pulsed waveform based on the signals as an idealized pulsed waveform, wherein the control circuitry is configured to detect subsequent signals relating to a subsequent pulsed electrical current supplied to the welding torch, and to compare a subsequent pulsed waveform based on the subsequent signals with the idealized pulsed waveform, characterized in that, the control circuitry is configured to quantify a difference between the subsequent pulsed waveform and the idealized pulsed waveform, and in that the control circuitry is configured to display the difference between the subsequent pulsed waveform and the idealized pulsed waveform on an operator interface. - a welding torch; - a base unit configured to supply the welding torch with a pulsed electrical current for producing a welding arc between the welding torch and a work piece; and - control circuitry configured to detect signals relating to the pulsed electrical current and to store in memory a pulsed waveform based on the signals as an idealized pulsed waveform, wherein the control circuitry is configured to detect subsequent signals relating to a subsequent pulsed electrical current supplied to the welding torch, and to compare a subsequent pulsed waveform based on the subsequent signals with the idealized pulsed waveform, characterized in that, the control circuitry is configured to quantify a difference between the subsequent pulsed waveform and the idealized pulsed waveform, and in that the control circuitry is configured to display the difference between the subsequent pulsed waveform and the idealized pulsed waveform on an operator interface.
A method for producing a substance with improved aqueous solubility, which comprises coating a surface of a poorly-soluble substance particle with calcium compound microparticles, the poorly-soluble substance having a solubility in water (25°C) of 10000 ppm or less, wherein the method for coating the surface of the poorly-soluble substance particle with calcium compound microparticles is a method of coating the surface of the poorly-soluble substance particle by applying mechanical energy to allow the calcium compound microparticles to penetrate into the poorly-soluble substance particle by physical compression, shearing force or impact force.