mhurhangee/patent-ind-claim-en huggingface dataset:
A belt conveyor for a food processing facility, comprising a control arrangement , a belt drive , a belt tensioner , two deflection rollers and an endless conveyor belt tensioned by the belt tensioner along a main conveyor axis between the two deflection rollers and driven by the belt drive , - wherein one deflection roller or both deflection rollers are each rotatably mounted on both sides in pivot bearings via lateral journals , - wherein the pivot bearings of one deflection roller or both deflection rollers are each arranged to be displaceable along the main conveyor axis , in particular in a linear bearing , - wherein a belt tracking correction arrangement is provided which controls the tracking of the conveyor belt by tilting the rotational axis of at least one of the deflection rollers , characterised - in that the belt tracking correction arrangement comprises a correction drive , a correction shaft extending transversely to the main conveyor axis and drivable by the correction drive , and two drive members provided on the correction shaft and acting eccentrically in opposite directions, - and in that the two drive members are each in operative contact with one of the pivot bearings and displace them in opposite directions along the main conveyor axis when the correction shaft is rotated, thereby pivoting the deflection roller about a correction axis . - wherein one deflection roller or both deflection rollers are each rotatably mounted on both sides in pivot bearings via lateral journals , - wherein the pivot bearings of one deflection roller or both deflection rollers are each arranged to be displaceable along the main conveyor axis , in particular in a linear bearing , - wherein a belt tracking correction arrangement is provided which controls the tracking of the conveyor belt by tilting the rotational axis of at least one of the deflection rollers , characterised - in that the belt tracking correction arrangement comprises a correction drive , a correction shaft extending transversely to the main conveyor axis and drivable by the correction drive , and two drive members provided on the correction shaft and acting eccentrically in opposite directions, - and in that the two drive members are each in operative contact with one of the pivot bearings and displace them in opposite directions along the main conveyor axis when the correction shaft is rotated, thereby pivoting the deflection roller about a correction axis .
A method of detecting a species in a dilute medium comprising: providing a first laser beam and a second laser beam coherent with each other, and having a matching chirp pattern; passing at least the first laser beam through the dilute medium, whilst the chirp pattern of the first laser beam crosses at least a part of a spectral feature of the species; mixing the first and the second laser beams to form a mixed beam; detecting the mixed beam to form an output signal during the chirp pattern; processing the output signal to measure changes in the mixed beam caused by refractive index variations in the dilute medium across the spectral feature; determining a measure of the species from the changes in the measured properties; and characterised in that the method further comprises a step of: applying an optical frequency shift to the first or second laser beam before mixing the first and the second laser beams. providing a first laser beam and a second laser beam coherent with each other, and having a matching chirp pattern; passing at least the first laser beam through the dilute medium, whilst the chirp pattern of the first laser beam crosses at least a part of a spectral feature of the species; mixing the first and the second laser beams to form a mixed beam; detecting the mixed beam to form an output signal during the chirp pattern; processing the output signal to measure changes in the mixed beam caused by refractive index variations in the dilute medium across the spectral feature; determining a measure of the species from the changes in the measured properties; and characterised in that the method further comprises a step of: applying an optical frequency shift to the first or second laser beam before mixing the first and the second laser beams.
A sintered material comprising cubic boron nitride grains and a binder, a grain size D50 of the cubic boron nitride grains when a cumulative value of the cubic boron nitride grains is 50% in an area-based grain size distribution being more than 0.5 μm and less than or equal to 5 μm, the content ratio of the cBN grains in the sintered material is 85 to 98 volume %, the binder being composed of Al 1-x Cr x N, where 0.3≤x≤1, and a remainder, the remainder being composed of at least one of a first element and a compound including the first element and a second element, the first element being one or more elements selected from a group consisting of W, Co, Ni, Mo, Al, and Cr, the second element being one or more elements selected from a group consisting of nitrogen, carbon, oxygen, and boron, wherein: Al 1-x Cr x N has a cubic rock-salt crystal structure, the remainder further includes a compound including a third element and a fourth element, the third element is Ti, the fourth element is one or more elements selected from a group consisting of nitrogen, carbon, oxygen, and boron, and the content ratio of the in the Al 1-x Cr x N binder is more than or equal to 17 volume %. a grain size D50 of the cubic boron nitride grains when a cumulative value of the cubic boron nitride grains is 50% in an area-based grain size distribution being more than 0.5 μm and less than or equal to 5 μm, the content ratio of the cBN grains in the sintered material is 85 to 98 volume %, the binder being composed of Al 1-x Cr x N, where 0.3≤x≤1, and a remainder, the remainder being composed of at least one of a first element and a compound including the first element and a second element, the first element being one or more elements selected from a group consisting of W, Co, Ni, Mo, Al, and Cr, the second element being one or more elements selected from a group consisting of nitrogen, carbon, oxygen, and boron, Al 1-x Cr x N has a cubic rock-salt crystal structure, the remainder further includes a compound including a third element and a fourth element, the third element is Ti, the fourth element is one or more elements selected from a group consisting of nitrogen, carbon, oxygen, and boron, and the content ratio of the in the Al 1-x Cr x N binder is more than or equal to 17 volume %.
A fluid sampling or infusion device for an extracorporeal blood treatment apparatus, the fluid sampling or infusion device comprising: a protective body having a first aperture and a second aperture and comprising a connecting device configured to connect, optionally in removable manner, the protective body to a sampling or infusion site of the extracorporeal blood treatment apparatus ; characterized by the fact that the fluid sampling or infusion device further comprises a needle assembly comprising a first end connectable, optionally in removable manner, to a syringe and a needle protruding from a second end opposite the first end ; wherein at least the needle of the needle assembly is movable inside the protective body at least between a first position and a second position; wherein in the first position the needle is completely enclosed by the protective body ; wherein in the second position at least a part of the needle protrudes from the second aperture of the protective body to allow piercing the sampling or infusion site . a protective body having a first aperture and a second aperture and comprising a connecting device configured to connect, optionally in removable manner, the protective body to a sampling or infusion site of the extracorporeal blood treatment apparatus ; characterized by the fact that the fluid sampling or infusion device further comprises a needle assembly comprising a first end connectable, optionally in removable manner, to a syringe and a needle protruding from a second end opposite the first end ; wherein at least the needle of the needle assembly is movable inside the protective body at least between a first position and a second position; wherein in the first position the needle is completely enclosed by the protective body ; wherein in the second position at least a part of the needle protrudes from the second aperture of the protective body to allow piercing the sampling or infusion site .
A method, comprising: providing a folded Tele camera configured to scan and capture a plurality of Tele images, each captured image having a Tele image resolution (RES T ), a Tele image signal-to-noise-ratio (SNR T ) and a Tele field of view (FOV T ), obtaining and analyzing a reference (R) image with a R field of view FOV R > FOV T having a R image resolution RES R < RES T , and/or a R image with a signal-to-noise-ratio SNR R < SNR T ; determining an order of one or more scanning FOV T positions for consecutive captures of the Tele images, wherein the one or more scanning FOV T positions include positions that are horizontally and vertically shifted relative to one another within FOV R ; capturing a Tele image at each respective scanning FOV T position; aligning the captured Tele images with segments of the R image to obtain aligned Tele images; and using the aligned Tele images and the R image to create a new image having a field of view FOV N ≤ FOV R , wherein the image resolution of the new image RES N > RES R and/or wherein the SNR of the new image SNR N > SNR R , wherein the determining an order of one or more scanning FOV T positions is performed so that a desired coverage of FOV R with a plurality of FOV T is performed in a fastest manner by minimizing the FOV T movement between the capturing of Tele images. providing a folded Tele camera configured to scan and capture a plurality of Tele images, each captured image having a Tele image resolution (RES T ), a Tele image signal-to-noise-ratio (SNR T ) and a Tele field of view (FOV T ), obtaining and analyzing a reference (R) image with a R field of view FOV R > FOV T having a R image resolution RES R < RES T , and/or a R image with a signal-to-noise-ratio SNR R < SNR T ; determining an order of one or more scanning FOV T positions for consecutive captures of the Tele images, wherein the one or more scanning FOV T positions include positions that are horizontally and vertically shifted relative to one another within FOV R ; capturing a Tele image at each respective scanning FOV T position; aligning the captured Tele images with segments of the R image to obtain aligned Tele images; and using the aligned Tele images and the R image to create a new image having a field of view FOV N ≤ FOV R , wherein the image resolution of the new image RES N > RES R and/or wherein the SNR of the new image SNR N > SNR R , wherein the determining an order of one or more scanning FOV T positions is performed so that a desired coverage of FOV R with a plurality of FOV T is performed in a fastest manner by minimizing the FOV T movement between the capturing of Tele images.
An ocular device (100; 200; 300) configured to be worn on a scleral surface of an eye of a user, the device comprising: a body component (110; 210; 1010); at least one light source component mounted in the body component (110; 210; 1010) and configured for providing light energy to an eye ; a microcontroller component mounted in the body component (110; 210; 1010) and configured for controlling the operation of at least the light source component ; an antenna component (150; 250) at least partially mounted in the body component (110; 210; 1010) and connected to the microcontroller component , the antenna component being configured for at least receiving external signals and for passing them to the microcontroller component ; at least one energy source component configured for supplying power to at least the light source component and the microcontroller component ; and at least one flexible printed circuit board mounted in the body component (110; 210; 1010), with at least one of said at least one light source component , the microcontroller component , and said at least one energy source component being mounted thereon; characterized in that said body component (110; 210; 1010) is configured to be positioned in an upper fornix of the eye of a user; and in that said at least one flexible printed circuit board comprises a plurality of sections hinged relative to one another, the plurality of sections comprising a central section and two side sections. a body component (110; 210; 1010); at least one light source component mounted in the body component (110; 210; 1010) and configured for providing light energy to an eye ; a microcontroller component mounted in the body component (110; 210; 1010) and configured for controlling the operation of at least the light source component ; an antenna component (150; 250) at least partially mounted in the body component (110; 210; 1010) and connected to the microcontroller component , the antenna component being configured for at least receiving external signals and for passing them to the microcontroller component ; at least one energy source component configured for supplying power to at least the light source component and the microcontroller component ; and at least one flexible printed circuit board mounted in the body component (110; 210; 1010), with at least one of said at least one light source component , the microcontroller component , and said at least one energy source component being mounted thereon; characterized in that said body component (110; 210; 1010) is configured to be positioned in an upper fornix of the eye of a user; and in that said at least one flexible printed circuit board comprises a plurality of sections hinged relative to one another, the plurality of sections comprising a central section and two side sections.
A hermetic terminal comprising a plate-shaped ceramic substrate provided with a through hole for inserting a columnar conductive member in a thickness direction, a first tube body at surrounding the ceramic substrate, wherein the first tube body comprises a fernico-type alloy, an Fe-Ni alloy, an Fe-Ni-Cr-Ti-Al alloy, an Fe-Cr-Al alloy or an Fe-Co-Cr alloy, and characterised by further comprising a second tube body coaxially connected with the first tube body, wherein the second tube body comprises an austenitic stainless steel with a nickel content of 10.4 mass% or more.
An embedded-outer rotor motor direct driven mower driving wheel, characterized in that : the embedded-outer rotor motor direct driven mower driving wheel comprises a driving wheel main body formed by the assembling of a wheel side cover I , a wheel side cover II , and a wheel body sandwiched between the wheel side cover I and the wheel side cover II , the wheel side cover I , the wheel side cover II and the wheel body enclose a cavity , an outer rotor motor is mounted in the cavity , an outer rotor portion of the outer rotor motor is fixedly arranged relative to the driving wheel main body, a stator portion of the outer rotor motor is provided with a fixed member penetrating through the wheel side cover I and extending out of the driving wheel main body, and the wheel side cover I is provided with a shaft hole I allowing the fixed member to penetrate through, characterized in that the outer edges of both the wheel side cover I and the wheel side cover II are provided with a plurality of convex teeth , and the convex teeth on the wheel side cover I and the convex teeth on the wheel side cover II are distributed in a staggered manner, the outer circumferential surface of the wheel body is provided with a plurality of concave arc surfaces , a protrusion I is formed at where adjacent concave arc surfaces are connected, the convex teeth on the wheel side cover II are arranged corresponding to the protrusion I on the wheel body , and the outer edge of the wheel side cover I located between two adjacent convex teeth is provided with a protrusion II arranged corresponding to the protrusion I on the wheel body .
A method for manufacturing a semiconductor substrate, comprising the following steps: heating a semiconductor material to a molten state to obtain a molten semiconductor material; thermally spraying the molten semiconductor material onto a baseplate by using a thermal spraying gun, then cooling to solidify the molten semiconductor material on the baseplate to obtain the semiconductor substrate; wherein before the cooling, an inert gas having a temperature higher than the molten point of the semiconductor material is blown onto the molten semiconductor material on the baseplate for purification. heating a semiconductor material to a molten state to obtain a molten semiconductor material; thermally spraying the molten semiconductor material onto a baseplate by using a thermal spraying gun, then cooling to solidify the molten semiconductor material on the baseplate to obtain the semiconductor substrate; wherein before the cooling, an inert gas having a temperature higher than the molten point of the semiconductor material is blown onto the molten semiconductor material on the baseplate for purification.
Artificial snow-making facility comprising - a snow-making device , - a fluidic water pipe for supplying water to said snow-making device , - a fluidic air pipe for supplying air to said snow-making device , - control means for managing the operation of said snow-making device , - a power supply for supplying electricity to said control means , wherein said power supply comprises a power generator arranged on said fluidic air pipe , said power generator comprising a turbine adapted to be driven by the air of said fluidic air pipe , characterized in that it comprises two condensate draining systems placed upstream and downstream from the power generator , adapted to limit the accumulation of water in said power generator . wherein said power supply comprises a power generator arranged on said fluidic air pipe , said power generator comprising a turbine adapted to be driven by the air of said fluidic air pipe , characterized in that it comprises two condensate draining systems placed upstream and downstream from the power generator , adapted to limit the accumulation of water in said power generator .
A device for attached flow of blood, the device comprising: a housing defining a centerline (CL) and having a first end , a second end , and a flow channel having an inlet and an outlet , a portion of the flow channel offset from the centerline (CL) of the housing , and the flow channel having a first flow directing attachment portion adjacent the inlet and a second flow directing attachment portion adjacent the outlet; a finger support member connected to the housing ; and a container removably connectable to the housing , the container defining a collection cavity and having an interior wall , wherein the finger support member is configured to be actuated to force a blood sample from a patient's finger into the inlet of the housing , and wherein, with the container connected to the housing , the outlet of the flow channel is in fluid communication with the collection cavity of the container and the outlet of the flow channel and the second flow directing attachment portion are adjacent the interior wall of the container . a housing defining a centerline (CL) and having a first end , a second end , and a flow channel having an inlet and an outlet , a portion of the flow channel offset from the centerline (CL) of the housing , and the flow channel having a first flow directing attachment portion adjacent the inlet and a second flow directing attachment portion adjacent the outlet; a finger support member connected to the housing ; and a container removably connectable to the housing , the container defining a collection cavity and having an interior wall , wherein the finger support member is configured to be actuated to force a blood sample from a patient's finger into the inlet of the housing , and wherein, with the container connected to the housing , the outlet of the flow channel is in fluid communication with the collection cavity of the container and the outlet of the flow channel and the second flow directing attachment portion are adjacent the interior wall of the container .
A method comprising: receiving , at a traffic analysis service , captured traffic data regarding a Transport Layer Security, TLS, connection between a client and a server ; applying , by the traffic analysis service , a first machine learning-based classifier to TLS records from the traffic data, to label each of the TLS records as either a TLS record that includes Hypertext Transfer Protocol, HTTP, header information comprising one or more HTTP header fields or a TLS record that does not include the HTTP header information; estimating , by the traffic analysis service , one or more HTTP transaction labels for the connection by applying a second machine learning-based classifier to the identified set of TLS records that include the HTTP header information; augmenting , by the traffic analysis service, the captured traffic data with the one or more HTTP transaction labels; and causing , by the traffic analysis service, performance of a network security function based on the augmented traffic data. receiving , at a traffic analysis service , captured traffic data regarding a Transport Layer Security, TLS, connection between a client and a server ; applying , by the traffic analysis service , a first machine learning-based classifier to TLS records from the traffic data, to label each of the TLS records as either a TLS record that includes Hypertext Transfer Protocol, HTTP, header information comprising one or more HTTP header fields or a TLS record that does not include the HTTP header information; estimating , by the traffic analysis service , one or more HTTP transaction labels for the connection by applying a second machine learning-based classifier to the identified set of TLS records that include the HTTP header information; augmenting , by the traffic analysis service, the captured traffic data with the one or more HTTP transaction labels; and causing , by the traffic analysis service, performance of a network security function based on the augmented traffic data.
Process for preparing a polyoxymethylene-polyoxyalkylene copolymer comprising the reaction of a polymeric formaldehyde compound with an alkylene oxide in the presence of a double metal cyanide (DMC) catalyst; wherein the polymeric formaldehyde compound has at least one terminal hydroxyl group; wherein the process comprises the following steps: (α) initially charging of a suspension medium in a reactor and (γ) stepwise or continuous metered addition of the polymeric formaldehyde compound into the reactor during the reaction. wherein the polymeric formaldehyde compound has at least one terminal hydroxyl group; wherein the process comprises the following steps: (α) initially charging of a suspension medium in a reactor and (γ) stepwise or continuous metered addition of the polymeric formaldehyde compound into the reactor during the reaction. (α) initially charging of a suspension medium in a reactor and (γ) stepwise or continuous metered addition of the polymeric formaldehyde compound into the reactor during the reaction.