mhurhangee/patent-ind-claim-en huggingface dataset:
A dosing conveyor for conveying and dosing a mixture of solids, the dosing conveyor comprising: - a plurality of helical rollers (11-16) arranged next to each other such that they can be rotary-driven and forming a roller screen onto which the mixture of solids can be introduced in order to obtain an undersize-grain fraction which falls through the roller screen and an oversize-grain fraction which can be conveyed on the roller screen in a conveying direction (F) as far as and into a screen output region of the roller screen ; and - a collecting floor , which extends below the roller screen in the conveying direction (F) as far as a downward output edge of the floor, for collecting the undersize-grain fraction which falls through the roller screen , - wherein the collecting floor extends close enough to the helical rollers (11-16) on the lower side of the roller screen that the helical rollers (11-16) convey the undersize-grain fraction situated on the collecting floor in the conveying direction (F) to the output edge of the floor, wherein - the helical rollers (11-16) and the collecting floor overlap in the longitudinal direction (X) of the rollers as far as the output edge of the floor over a total overlapping length (L A ), and wherein - the helical rollers (11-16) each protrude freely beyond the output edge of the floor by a free length (L F ) in the conveying direction (F) which is parallel to the longitudinal direction (X) of the rollers, characterised in that - the ratio of the free length (L F ) to the overlapping length (L A ) is at least 1/5. - a plurality of helical rollers (11-16) arranged next to each other such that they can be rotary-driven and forming a roller screen onto which the mixture of solids can be introduced in order to obtain an undersize-grain fraction which falls through the roller screen and an oversize-grain fraction which can be conveyed on the roller screen in a conveying direction (F) as far as and into a screen output region of the roller screen ; and - a collecting floor , which extends below the roller screen in the conveying direction (F) as far as a downward output edge of the floor, for collecting the undersize-grain fraction which falls through the roller screen , - wherein the collecting floor extends close enough to the helical rollers (11-16) on the lower side of the roller screen that the helical rollers (11-16) convey the undersize-grain fraction situated on the collecting floor in the conveying direction (F) to the output edge of the floor, wherein - the helical rollers (11-16) and the collecting floor overlap in the longitudinal direction (X) of the rollers as far as the output edge of the floor over a total overlapping length (L A ), and wherein - the helical rollers (11-16) each protrude freely beyond the output edge of the floor by a free length (L F ) in the conveying direction (F) which is parallel to the longitudinal direction (X) of the rollers, characterised in that - the ratio of the free length (L F ) to the overlapping length (L A ) is at least 1/5.
A positioning device comprising a base and a positioning element , which is adapted to be adjusted with respect to six degrees of freedom relative to the base, wherein the positioning element is coupled to the base via at least three pairs of length-variable and electrically driven leg elements , and each of the at least six leg elements is connected, at its two ends, to the base and the positioning element via an articulation element , wherein a respective pair of legs projects through another pair of legs and each pair of legs is arranged perpendicular to the respective other pairs of legs, characterized in that each of the articulation elements associated with a leg element has only two axes of rotation (DA), which are arranged perpendicular to each other, so that the articulation elements allow pivotal movements of the respective leg element in precisely two planes that are perpendicular to each other and run through a longitudinal axis of the leg element, and at the same time prevent a rotational movement about a longitudinal axis of the leg element.
A method, comprising: - refocusing images captured by a plenoptic camera communicating with an audio capture device by determining, using an audio source localization algorithm, directions of a dominant audio source associated with an image, and an angular extend of a region of interest associated with said directions defining a cone of interest; - creating an audio zoom based on said dominant audio source situated within said cone of interest such that other audio signals are filtered out, except those associated with said dominant audio source, and - performing automatic refocusing of scene elements of said image comprised in said cone of interest based on said created audio zoom. - refocusing images captured by a plenoptic camera communicating with an audio capture device by determining, using an audio source localization algorithm, directions of a dominant audio source associated with an image, and an angular extend of a region of interest associated with said directions defining a cone of interest; - creating an audio zoom based on said dominant audio source situated within said cone of interest such that other audio signals are filtered out, except those associated with said dominant audio source, and - performing automatic refocusing of scene elements of said image comprised in said cone of interest based on said created audio zoom.
An acceleration management node, comprising: a receiving unit , configured to separately receive acceleration device information of all acceleration devices of each of at least one acceleration node reported by the acceleration node, wherein each acceleration node comprises at least one acceleration device, and the acceleration device information comprises an acceleration type and an algorithm type; an obtaining unit , configured to obtain an invocation request sent by a client, wherein the invocation request is used to invoke an acceleration device to accelerate a service of the client, and the invocation request comprises a target acceleration type and a target algorithm type; an allocation unit , configured to query the acceleration device information to determine, from all the acceleration devices of the at least one acceleration node, a target acceleration device matching the invocation request; and an instruction unit , configured to instruct a target acceleration node on which the target acceleration device is located to respond to the invocation request. a receiving unit , configured to separately receive acceleration device information of all acceleration devices of each of at least one acceleration node reported by the acceleration node, wherein each acceleration node comprises at least one acceleration device, and the acceleration device information comprises an acceleration type and an algorithm type; an obtaining unit , configured to obtain an invocation request sent by a client, wherein the invocation request is used to invoke an acceleration device to accelerate a service of the client, and the invocation request comprises a target acceleration type and a target algorithm type; an allocation unit , configured to query the acceleration device information to determine, from all the acceleration devices of the at least one acceleration node, a target acceleration device matching the invocation request; and an instruction unit , configured to instruct a target acceleration node on which the target acceleration device is located to respond to the invocation request.
A process for recycling polyolefin, comprising the steps of: 1) feeding a solid post-consumer polyolefin composition comprising polyolefin and contaminants and a flow of an extraction fluid to an extractor having a pressure of 10-100 MPa (100-1000 bar) and a temperature of 20-80 °C to obtain a solid extracted composition, 2) melting the solid extracted composition to obtain a melted composition, 3) providing particles from the melted composition by: 3a) mixing a flow of a supercritical fluid in the melted composition in a pressure vessel to obtain a solution saturated with the supercritical fluid and 3b) passing the solution from the pressure vessel through a throttling device to a spraying tower to expand the solution to obtain polyolefin particles in the spraying tower. 1) feeding a solid post-consumer polyolefin composition comprising polyolefin and contaminants and a flow of an extraction fluid to an extractor having a pressure of 10-100 MPa (100-1000 bar) and a temperature of 20-80 °C to obtain a solid extracted composition, 2) melting the solid extracted composition to obtain a melted composition, 3) providing particles from the melted composition by: 3a) mixing a flow of a supercritical fluid in the melted composition in a pressure vessel to obtain a solution saturated with the supercritical fluid and 3b) passing the solution from the pressure vessel through a throttling device to a spraying tower to expand the solution to obtain polyolefin particles in the spraying tower. 3a) mixing a flow of a supercritical fluid in the melted composition in a pressure vessel to obtain a solution saturated with the supercritical fluid and 3b) passing the solution from the pressure vessel through a throttling device to a spraying tower to expand the solution to obtain polyolefin particles in the spraying tower.
A Cu-based sintered bearing comprising: 15 mass% or more and 36 mass% or less of Ni; 3 mass% or more and 13 mass% or less of Sn; 0.05 mass% or more and 0.55 mass% or less of P; and 0.02 mass% or more and 4 mass% or less of C in total; and the Cu balance containing inevitable impurities, wherein a content of C alloyed with the matrix in Cu-Ni-based main phase grains is 0.02 mass% or more and 0.10 mass% or less.
An axial-flow fan assembly, comprising a shrouded fan rotor including: a plurality of fan blades extending from a rotor hub and rotatable about a central axis of the fan assembly; and a fan shroud extending circumferentially around the fan rotor and secured to an outer tip diameter of the plurality of fan blades ; and a fan casing enclosing the shrouded fan rotor , the fan casing defining a fan inlet of the fan assembly and including an inlet extension at an outer diameter of the fan casing , extending axially upstream of a bell mouth inlet , relative to a direction of airflow through the shrouded fan rotor ; wherein the bell mouth inlet transitions to the inlet extension, the inlet extension including a convex portion and a concave portion ; characterized in that the inlet extension extends between 5% and 20% of the fan rotor tip diameter axially upstream of the bell mouth inlet ; and the inlet extension tapers radially from the bell mouth inlet to an inlet extension leading edge at a taper angle. a plurality of fan blades extending from a rotor hub and rotatable about a central axis of the fan assembly; and a fan shroud extending circumferentially around the fan rotor and secured to an outer tip diameter of the plurality of fan blades ; and a fan casing enclosing the shrouded fan rotor , the fan casing defining a fan inlet of the fan assembly and including an inlet extension at an outer diameter of the fan casing , extending axially upstream of a bell mouth inlet , relative to a direction of airflow through the shrouded fan rotor ; wherein the bell mouth inlet transitions to the inlet extension, the inlet extension including a convex portion and a concave portion ; characterized in that the inlet extension extends between 5% and 20% of the fan rotor tip diameter axially upstream of the bell mouth inlet ; and the inlet extension tapers radially from the bell mouth inlet to an inlet extension leading edge at a taper angle.
Electronic component, comprising at least a first carrier, a second carrier and at least one semiconductor chip, wherein the first carrier comprises a cavity in which the semiconductor chip is arranged, and wherein the first carrier is constructed using multilayer technology comprising a ceramic body, wherein on the first carrier a second carrier is arranged, which covers the semiconductor chip in the cavity of the first carrier and which comprises a printed circuit board and/or is constructed using multilayer technology comprising a ceramic body, wherein the second carrier comprises a cavity, characterized in that the semiconductor chip is arranged partially countersunk in the cavity in the first carrier and has a portion which protrudes from the cavity of the first carrier and which is arranged in the cavity of the second carrier. wherein the first carrier comprises a cavity in which the semiconductor chip is arranged, and wherein the first carrier is constructed using multilayer technology comprising a ceramic body, wherein on the first carrier a second carrier is arranged, which covers the semiconductor chip in the cavity of the first carrier and which comprises a printed circuit board and/or is constructed using multilayer technology comprising a ceramic body, wherein the second carrier comprises a cavity, characterized in that the semiconductor chip is arranged partially countersunk in the cavity in the first carrier and has a portion which protrudes from the cavity of the first carrier and which is arranged in the cavity of the second carrier.
Disc brake for a motor vehicle, in particular for a utility vehicle, having - a brake disc ; - a brake caliper , in particular a sliding caliper, with a brake-application section and a rear section , - at least two brake pads each having a pad carrier plate provided with at least one pad holding spring , - which are held under preload by the respective pad holding spring against a pad holding clip detachably fastened to the brake caliper in a pad shaft , - wherein the pad holding spring is held in a radially deflectable manner on a radially outer edge of the pad carrier plate relative to an axis of rotation of the brake disc , - wherein a cover is held in a receptacle of the pad carrier plate and can be pressed by the spring force of the pad holding spring against an underside of the pad holding clip facing the brake pad , wherein - the pad holding spring is freely movable in the radial direction within the cover , characterised in that the radial deflectability of the brake pad is limited by stops of the cover on the pad carrier plate . - a brake disc ; - a brake caliper , in particular a sliding caliper, with a brake-application section and a rear section , - at least two brake pads each having a pad carrier plate provided with at least one pad holding spring , - which are held under preload by the respective pad holding spring against a pad holding clip detachably fastened to the brake caliper in a pad shaft , - wherein the pad holding spring is held in a radially deflectable manner on a radially outer edge of the pad carrier plate relative to an axis of rotation of the brake disc , - wherein a cover is held in a receptacle of the pad carrier plate and can be pressed by the spring force of the pad holding spring against an underside of the pad holding clip facing the brake pad , wherein - the pad holding spring is freely movable in the radial direction within the cover , characterised in that
A washing appliance with a vent system, the vent system comprising: a mixing chamber providing a first and second inlet separated from an outlet of the mixing chamber , the first and second inlet configured to provide a jet pump action where a first airstream through the first inlet is introduced through a nozzle into a second air stream to draw the second airstream through the second inlet to mix therewith and be discharged through the outlet ; first ducting adapted to communicate between the mixing chamber and a washing chamber of the washing appliance so that the second inlet receives moist air through the first ducting from the washing chamber and the first inlet receives relatively drier air from outside of the washing chamber of the washing appliance; and an electric blower communicating with the mixing chamber to produce a pressure difference generating the first airstream wherein the first ducting attaches to the second inlet and the electric blower is positioned at the first inlet to intake the drier air from outside the washing chamber and discharge it through the first inlet ; wherein the electric blower communicates with the first inlet through a bifurcated passageway having a first branch attached to the first inlet and a second branch communicating with second ducting communicating between the second branch and the washing chamber of the washing appliance to direct dry air into the washing chamber . a mixing chamber providing a first and second inlet separated from an outlet of the mixing chamber , the first and second inlet configured to provide a jet pump action where a first airstream through the first inlet is introduced through a nozzle into a second air stream to draw the second airstream through the second inlet to mix therewith and be discharged through the outlet ; first ducting adapted to communicate between the mixing chamber and a washing chamber of the washing appliance so that the second inlet receives moist air through the first ducting from the washing chamber and the first inlet receives relatively drier air from outside of the washing chamber of the washing appliance; and an electric blower communicating with the mixing chamber to produce a pressure difference generating the first airstream wherein the first ducting attaches to the second inlet and the electric blower is positioned at the first inlet to intake the drier air from outside the washing chamber and discharge it through the first inlet ; wherein the electric blower communicates with the first inlet through a bifurcated passageway having a first branch attached to the first inlet and a second branch communicating with second ducting communicating between the second branch and the washing chamber of the washing appliance to direct dry air into the washing chamber .
A welding system comprising: - a welding torch comprising: - a sensor configured to detect a temperature associated with the welding torch and characterized in that the welding torch further comprises: - control circuitry configured to disable use of the live-arc welding mode by the welding torch if the detected temperature reaches and/or surpasses a predetermined threshold; and - a display ; and in that the control circuitry is configured to activate the display if a determination is made that live welding using the welding torch is disabled, based on the temperature, wherein the detected temperature comprises a temperature of the display of the welding torch , a temperature of a light-emitting device of the welding torch, or a temperature of a vibration device of the welding torch. - a welding torch comprising: - a sensor configured to detect a temperature associated with the welding torch and characterized in that the welding torch further comprises: - control circuitry configured to disable use of the live-arc welding mode by the welding torch if the detected temperature reaches and/or surpasses a predetermined threshold; and - a display ; and in that the control circuitry is configured to activate the display if a determination is made that live welding using the welding torch is disabled, based on the temperature, - a sensor configured to detect a temperature associated with the welding torch and characterized in that the welding torch further comprises: - control circuitry configured to disable use of the live-arc welding mode by the welding torch if the detected temperature reaches and/or surpasses a predetermined threshold; and - a display ; and in that the control circuitry is configured to activate the display if a determination is made that live welding using the welding torch is disabled, based on the temperature, - control circuitry configured to disable use of the live-arc welding mode by the welding torch if the detected temperature reaches and/or surpasses a predetermined threshold; and - a display ; and in that the control circuitry is configured to activate the display if a determination is made that live welding using the welding torch is disabled, based on the temperature,
An embedded mounting bracket, which is used for mounting a camera, the embedded mounting bracket comprises: a bracket body comprising a bracket side wall, wherein the bracket side wall includes a lower end surface and an upper end surface opposite to the lower end surface, characterized in that the upper end surface comprises multiple step surfaces with different heights from the lower end surface; and in that the mounting bracket comprises a mounting member, which is detachably assembled to the bracket body for bearing the camera, wherein the mounting member is selectively assembled on the step surfaces with different heights, so as to replaceably assemble at least two cameras with different body heights to the bracket body.
A method comprising: receiving , by a Hypertext Transport Protocol, HTTP proxy in a network , an HTTP request for web content from an application on a device , the request being encapsulated in a packet that includes a header that contains a physical layer identifier of the device to which the application does not have access; forwarding , by the HTTP proxy, the HTTP request for web content to a web server ; receiving , by the HTTP proxy, the requested web content from the web server; obtaining , by the HTTP proxy, the physical layer identifier using the header of the packet; injecting, by the HTTP proxy, a cookie or web software code containing the obtained physical layer identifier of the device into the received web content; and sending , by the HTTP proxy, a response comprising the received web content with the injected cookie or web software code to the application on the device to enable the application to query an entity using the physical layer identifier to obtain location information of the device. receiving , by a Hypertext Transport Protocol, HTTP proxy in a network , an HTTP request for web content from an application on a device , the request being encapsulated in a packet that includes a header that contains a physical layer identifier of the device to which the application does not have access; forwarding , by the HTTP proxy, the HTTP request for web content to a web server ; receiving , by the HTTP proxy, the requested web content from the web server; obtaining , by the HTTP proxy, the physical layer identifier using the header of the packet; injecting, by the HTTP proxy, a cookie or web software code containing the obtained physical layer identifier of the device into the received web content; and sending , by the HTTP proxy, a response comprising the received web content with the injected cookie or web software code to the application on the device to enable the application to query an entity using the physical layer identifier to obtain location information of the device.
Stabilization device for a two-wheeled vehicle , having a rotatably mounted gyroscope and a drive unit for driving the gyroscope , characterized in that a unit for reversing the direction of rotation, via which the direction of rotation of the gyroscope can be set, is arranged between the drive unit and the gyroscope .
System , at least comprising a housing and an explosive accommodated therein, and comprising a fuze head and a blasting cap , an insert sleeve being provided in the housing , and the blasting cap being vertically adjustable within the insert sleeve in such a way that the distance between the blasting cap and the explosive can be varied and a local change in the position of the blasting cap can be carried out with respect to the insert sleeve , characterized in that a connection between the fuze head and the housing is provided via a thread which is formed on plastics material on the fuze head and on the housing , and in that a pressure element is attached between the fuze head and the housing , which pressure element ensures a guaranteed separation of the blasting cap from the explosive under the effect of heat from fire.