mhurhangee/patent-ind-claim-en huggingface dataset:
Nozzle system for a powder blasting device comprising a first nozzle element for transporting a powder-gas mixture stream along a transporting direction (T) and a second nozzle element , wherein the second nozzle element surrounds the first nozzle element such that at least one channel is formed between the first nozzle element and the second nozzle element , wherein the channel is provided for transporting a liquid stream , wherein the first nozzle element and the second nozzle element are arranged such that in operation the powder-gas-mixture stream ejected by the first nozzle element is encased by the liquid stream ejected by the channel for forming an output stream of the nozzle system , wherein the first nozzle element has an acceleration part having a first cross section and a spreading part having a second cross section, wherein the spreading part is arranged downstream of the acceleration part , wherein the second cross section is larger than the first cross section, wherein the liquid stream is ejected from the channel via an output surface and wherein the output surface has a third cross section, characterized in that the third cross section has a size between 0.3 and 0.6 mm 2 . a first nozzle element for transporting a powder-gas mixture stream along a transporting direction (T) and a second nozzle element , wherein the second nozzle element surrounds the first nozzle element such that at least one channel is formed between the first nozzle element and the second nozzle element , wherein the channel is provided for transporting a liquid stream , wherein the first nozzle element and the second nozzle element are arranged such that in operation the powder-gas-mixture stream ejected by the first nozzle element is encased by the liquid stream ejected by the channel for forming an output stream of the nozzle system , wherein the first nozzle element has an acceleration part having a first cross section and a spreading part having a second cross section, wherein the spreading part is arranged downstream of the acceleration part , wherein the second cross section is larger than the first cross section, wherein the liquid stream is ejected from the channel via an output surface and wherein the output surface has a third cross section, characterized in that the third cross section has a size between 0.3 and 0.6 mm 2 .
A screen assembly adapted to be applied to an electronic device, comprising: at least one light-transmitting layer capable of transmitting light, an optical surface structure being formed at a part of the at least one light-transmitting layer such that a first lens element is formed at the part of the at least one light-transmitting layer, wherein the first lens element is adapted to serve as a lens element of a camera module of the electronic device, wherein the screen assembly comprises at least one blind hole adapted to accommodate the camera module , and the optical surface structure is located at a position of the at least one light-transmitting layer corresponding to the at least one blind hole ; wherein the screen assembly is an LCD assembly which comprises a first cover plate , a first polarizer , a first glass substrate , a liquid crystal layer , a second glass substrate , a second polarizer and a backlight layer laminated sequentially; and the at least one blind hole is formed by a through hole coaxially running through the backlight layer , the second polarizer , and the first polarizer sequentially, and the first glass substrate and the second glass substrate form the at least one light-transmitting layer, wherein the first glass substrate is provided with a color filter structure and the second glass substrate is provided with a TFT circuit, and the TFT circuit and the color filter structure are at a position corresponding to the first lens element. at least one light-transmitting layer capable of transmitting light, an optical surface structure being formed at a part of the at least one light-transmitting layer such that a first lens element is formed at the part of the at least one light-transmitting layer, wherein the first lens element is adapted to serve as a lens element of a camera module of the electronic device, wherein the screen assembly comprises at least one blind hole adapted to accommodate the camera module , and the optical surface structure is located at a position of the at least one light-transmitting layer corresponding to the at least one blind hole ; wherein the screen assembly is an LCD assembly which comprises a first cover plate , a first polarizer , a first glass substrate , a liquid crystal layer , a second glass substrate , a second polarizer and a backlight layer laminated sequentially; and the at least one blind hole is formed by a through hole coaxially running through the backlight layer , the second polarizer , and the first polarizer sequentially, and the first glass substrate and the second glass substrate form the at least one light-transmitting layer, wherein the first glass substrate is provided with a color filter structure and the second glass substrate is provided with a TFT circuit, and the TFT circuit and the color filter structure are at a position corresponding to the first lens element.
A computer-implemented method for registration of images of tissue slices for pathology diagnostic investigation, the method comprising: receiving a first image of a first tissue slice and a second image of a second tissue slice , both tissue slices being prepared from the same tissue block ; determining an unreliable area in the first image showing folded tissue ; registering the first image and the second image by registering an area of the first image and the second image outside of the unreliable area, wherein registering the area of the first and second image comprises: - enlarging the unreliable area with a margin around the unreliable area; - providing a set of control points with a regular grid ; - selecting reliable control points outside the unreliable area ; - registering the first image and the second image by determining a relative local deformation of the first image and second image at the reliable control points based on a part of the image around the control points. receiving a first image of a first tissue slice and a second image of a second tissue slice , both tissue slices being prepared from the same tissue block ; determining an unreliable area in the first image showing folded tissue ; registering the first image and the second image by registering an area of the first image and the second image outside of the unreliable area, wherein registering the area of the first and second image comprises: - enlarging the unreliable area with a margin around the unreliable area; - providing a set of control points with a regular grid ; - selecting reliable control points outside the unreliable area ; - registering the first image and the second image by determining a relative local deformation of the first image and second image at the reliable control points based on a part of the image around the control points. - enlarging the unreliable area with a margin around the unreliable area; - providing a set of control points with a regular grid ; - selecting reliable control points outside the unreliable area ; - registering the first image and the second image by determining a relative local deformation of the first image and second image at the reliable control points based on a part of the image around the control points.
A method for obtaining a heating element for an electronic vapour provision system, the method comprising: providing a sheet of electrically conductive porous material; directing light onto at least a portion of the sheet; detecting an amount of the light transmitted through the portion of the sheet; comparing the amount of light detected to a range of light transmission values known to correspond to a predetermined range of electrical resistance values required for the portion; and selecting the portion of the sheet for use as a heating element if the amount of detected light lies within the range of light transmission values, and otherwise rejecting the portion of the sheet. providing a sheet of electrically conductive porous material; directing light onto at least a portion of the sheet; detecting an amount of the light transmitted through the portion of the sheet; comparing the amount of light detected to a range of light transmission values known to correspond to a predetermined range of electrical resistance values required for the portion; and selecting the portion of the sheet for use as a heating element if the amount of detected light lies within the range of light transmission values, and otherwise rejecting the portion of the sheet.
A forklift (110; 400), comprising: a working state monitoring module , a container image capturing module (113; 420), and a processing module (114; 430); wherein the container image capturing module (113; 420) is electrically connected to the working state monitoring module and the processing module (114; 430); the working state monitoring module is configured to monitor a working state of the forklift (110; 400) while the forklift (110; 400) is carrying and moving a stock container to be moved, and to control the container image capturing module (113; 420)to capture images based on the working state; the container image capturing module (113; 420) is configured to capture red-green-blue-depth (RGBD) image frames containing the stock container to be moved in response to a trigger from the working state monitoring module , and to transmit the RGBD image frames to the processing module (114; 430); and the processing module (114; 430) is configured to receive the RGBD image frames, detect a pose deviation degree of the stock container to be moved based on the RGBD image frames; provide an alarm and/or a prompt based on a detection result of the pose deviation degree for adjusting the pose of the stock container to be moved on the forklift (110; 400). the container image capturing module (113; 420) is electrically connected to the working state monitoring module and the processing module (114; 430); the working state monitoring module is configured to monitor a working state of the forklift (110; 400) while the forklift (110; 400) is carrying and moving a stock container to be moved, and to control the container image capturing module (113; 420)to capture images based on the working state; the container image capturing module (113; 420) is configured to capture red-green-blue-depth (RGBD) image frames containing the stock container to be moved in response to a trigger from the working state monitoring module , and to transmit the RGBD image frames to the processing module (114; 430); and the processing module (114; 430) is configured to receive the RGBD image frames, detect a pose deviation degree of the stock container to be moved based on the RGBD image frames; provide an alarm and/or a prompt based on a detection result of the pose deviation degree for adjusting the pose of the stock container to be moved on the forklift (110; 400).
A pharmaceutical composition comprising a pharmaceutically acceptable carrier and diethyl (2-cyanoethyl)phosphonate, or a pharmaceutically acceptable salt thereof.
Exhaust muffler for an exhaust system of an internal combustion engine, especially in a vehicle, comprising in a muffler housing: - a flow volume , through which exhaust gas can flow, with an exhaust gas inlet and with an exhaust gas outlet , - a first resonator chamber open to the flow volume via a first resonator neck , - a second resonator chamber open to the flow volume via a second resonator neck , characterized by a resonator pipe providing the first resonator neck and the second resonator neck . - a flow volume , through which exhaust gas can flow, with an exhaust gas inlet and with an exhaust gas outlet , - a first resonator chamber open to the flow volume via a first resonator neck , - a second resonator chamber open to the flow volume via a second resonator neck ,
A transformed oleaginous cell, comprising a first genetic modification, a second genetic modification, and a third genetic modification, wherein: said first genetic modification is a transformed nucleic acid encoding at least one copy of a type 1 diacylglycerol acyltransferase (DGA1) native to the cell or from a different species, wherein said DGA1 is overexpressed; said second genetic modification is a transformed nucleic acid encoding at least one copy of a type 2 diacylglycerol acyltransferase (DGA2) native to the cell or from a different species, wherein said DGA2 is overexpressed; and said third genetic modification is a knockout of a triacylglycerol lipase 3 in the cell. said first genetic modification is a transformed nucleic acid encoding at least one copy of a type 1 diacylglycerol acyltransferase (DGA1) native to the cell or from a different species, wherein said DGA1 is overexpressed; said second genetic modification is a transformed nucleic acid encoding at least one copy of a type 2 diacylglycerol acyltransferase (DGA2) native to the cell or from a different species, wherein said DGA2 is overexpressed; and said third genetic modification is a knockout of a triacylglycerol lipase 3 in the cell.
A straddle vehicle comprising: a prime mover (E, M); a hydraulically actuated main clutch disposed in a power transmission route between the prime mover (E, M) and a drive wheel ; an oil control valve unit that controls flow of a hydraulic oil supplied to the main clutch ; a power unit case accommodating at least the main clutch ; an oil pan mounted beneath the power unit case and retaining an oil; a clutch-dedicated pump (P1) that sucks the oil from the oil pan and that discharges the sucked oil as the hydraulic oil toward the oil control valve unit ; a primary filter disposed in an oil passage between the oil pan and the clutch-dedicated pump (P1); and a secondary filter disposed in an oil passage between the clutch-dedicated pump (P1) and the oil control valve unit , characterized in that the primary filter and the secondary filter are mounted on a bottom surface of the power unit case and covered from below by the oil pan . a prime mover (E, M); a hydraulically actuated main clutch disposed in a power transmission route between the prime mover (E, M) and a drive wheel ; an oil control valve unit that controls flow of a hydraulic oil supplied to the main clutch ; a power unit case accommodating at least the main clutch ; an oil pan mounted beneath the power unit case and retaining an oil; a clutch-dedicated pump (P1) that sucks the oil from the oil pan and that discharges the sucked oil as the hydraulic oil toward the oil control valve unit ; a primary filter disposed in an oil passage between the oil pan and the clutch-dedicated pump (P1); and a secondary filter disposed in an oil passage between the clutch-dedicated pump (P1) and the oil control valve unit , characterized in that the primary filter and the secondary filter are mounted on a bottom surface of the power unit case and covered from below by the oil pan .
A system for preventing microbiological growth in a conduit conveying a liquid, wherein the system comprises: - a multi-layered pipe constituting said conduit and having an inner layer and an outer layer , wherein the inner layer covers the complete inside of the pipe and is formed of an electrically conductive polymer material, wherein a liquid in the pipe is in direct contact with the inner layer , and wherein the outer layer covers at least a portion of the outside of the inner layer and is formed of an electrically insulating polymer material, characterized in that the system further comprises: - a first electrical connector connecting to the inner layer from outside the pipe and a second electrical connector connecting to the inner layer from outside the pipe , wherein the first electric connector and the second electric connector are spaced apart along the pipe , and - an electric power source operationally connected to the first electrical connector and the second electrical connector and configured for supplying an electric current to the inner layer . - a multi-layered pipe constituting said conduit and having an inner layer and an outer layer , wherein the inner layer covers the complete inside of the pipe and is formed of an electrically conductive polymer material, wherein a liquid in the pipe is in direct contact with the inner layer , and wherein the outer layer covers at least a portion of the outside of the inner layer and is formed of an electrically insulating polymer material, characterized in that the system further comprises: - a first electrical connector connecting to the inner layer from outside the pipe and a second electrical connector connecting to the inner layer from outside the pipe , wherein the first electric connector and the second electric connector are spaced apart along the pipe , and - an electric power source operationally connected to the first electrical connector and the second electrical connector and configured for supplying an electric current to the inner layer . - a first electrical connector connecting to the inner layer from outside the pipe and a second electrical connector connecting to the inner layer from outside the pipe , wherein the first electric connector and the second electric connector are spaced apart along the pipe , and - an electric power source operationally connected to the first electrical connector and the second electrical connector and configured for supplying an electric current to the inner layer .
A reactor comprising an upper portion and a lower portion, wherein the upper portion contains: a scale collection device ; a rough liquid distribution tray comprising a bottom plate having a plurality of perforations ; a vapor-liquid distribution tray ; wherein the scale collection device is composed of a filtering zone with a filter bed containing filtering materials and is located above the rough liquid distribution tray , wherein the vapor-liquid distribution tray is located below the rough liquid distribution tray ; wherein the filtering zone is spaced above the bottom plate of the rough liquid distribution tray by a plurality of spacers or of grating materials so that the holes on said bottom plate are not plugged by the filtering materials of the filter bed; wherein the scale collection device comprises a cylindrical side wall attached to the bottom plate of the rough liquid distribution tray , and wherein filtering materials are enclosed by the cylindrical side wall ; wherein the liquid out of the filtering zone is redistributed by the rough liquid distribution tray to the vapor-liquid distribution tray ; wherein a series of chimneys with caps are affixed to the rough liquid distribution tray , wherein the chimneys with caps are extended above the top of the filter bed ; and the caps on top of the chimneys are spaced a small distance above the perforated bottom plate such that overflow liquid in case that the filtering zone is plugged does not bypass the filtering materials . a scale collection device ; a rough liquid distribution tray comprising a bottom plate having a plurality of perforations ; a vapor-liquid distribution tray ; wherein the scale collection device is composed of a filtering zone with a filter bed containing filtering materials and is located above the rough liquid distribution tray , wherein the vapor-liquid distribution tray is located below the rough liquid distribution tray ; wherein the filtering zone is spaced above the bottom plate of the rough liquid distribution tray by a plurality of spacers or of grating materials so that the holes on said bottom plate are not plugged by the filtering materials of the filter bed; wherein the scale collection device comprises a cylindrical side wall attached to the bottom plate of the rough liquid distribution tray , and wherein filtering materials are enclosed by the cylindrical side wall ; wherein the liquid out of the filtering zone is redistributed by the rough liquid distribution tray to the vapor-liquid distribution tray ; wherein a series of chimneys with caps are affixed to the rough liquid distribution tray , wherein the chimneys with caps are extended above the top of the filter bed ; and the caps on top of the chimneys are spaced a small distance above the perforated bottom plate such that overflow liquid in case that the filtering zone is plugged does not bypass the filtering materials .
A method of operation of a wireless device in a wireless communications network comprising: determining one or more parameters for a Device-to-Device, D2D, communication link of the wireless device with a first wireless device; and determining one or more services supported over the D2D communication link with the first wireless device based on the one or more parameters, wherein determining the one or more parameters for the D2D communication link comprises receiving an indication of a location of the first wireless device; the method further comprising: transmitting , to a second wireless device, an indication of the one or more services supported over the D2D communication link of the wireless device with the first wireless device; determining an available power budget for the wireless device; and transmitting, to the second wireless device, an indication of the available power budget for the wireless device, wherein the indication of the available power budget for the wireless device refers to a subframe in which the transmission takes place; and wherein the indication of the available power budget for the wireless device is based on a prediction of the available power budget for the subframe in which the transmission takes place. determining one or more parameters for a Device-to-Device, D2D, communication link of the wireless device with a first wireless device; and determining one or more services supported over the D2D communication link with the first wireless device based on the one or more parameters, wherein determining the one or more parameters for the D2D communication link comprises receiving an indication of a location of the first wireless device; the method further comprising: transmitting , to a second wireless device, an indication of the one or more services supported over the D2D communication link of the wireless device with the first wireless device; determining an available power budget for the wireless device; and transmitting, to the second wireless device, an indication of the available power budget for the wireless device, transmitting , to a second wireless device, an indication of the one or more services supported over the D2D communication link of the wireless device with the first wireless device; determining an available power budget for the wireless device; and transmitting, to the second wireless device, an indication of the available power budget for the wireless device, wherein the indication of the available power budget for the wireless device refers to a subframe in which the transmission takes place; and wherein the indication of the available power budget for the wireless device is based on a prediction of the available power budget for the subframe in which the transmission takes place.