mhurhangee/patent-ind-claim-en huggingface dataset:
Filter element , which is designed as a replacement element, the filter medium of which, configured as a hollow body and extending between two end parts, in particular in the form of end caps , is pleated with individual filter pleats , wherein the filter medium comprises a filter material of cellulose, wherein a particulate filter with a further pleated filter medium is provided, the filter pleats thereof having a greater packing density and a greater pleat height than the filter pleats of the filter medium of cellulose material, wherein a fluid-permeable supporting tube is arranged between the two filter media , wherein the filter medium consisting of cellulose is enclosed by the particulate filter , and wherein a further supporting tube is arranged on the side of the cellulose filter medium directed away from the particulate filter, characterised in that the filter material consisting of cellulose, has filter pleats of equal height with a uniform thickness of more than 2 mm which, provided with identical bending radii on the valley and peak sides, merge integrally into each other with the omission of the welded and/or adhesive joint, and in that the filter material , which consists of cellulose and is formed into a hollow body, delimits, with individual filter pleats , fluid spaces which taper towards each other.
Liquid replenishing system, which is connected or at least connectable to a pressurized liquid circulating system via a pump and to a pressurized liquid supply, and is configured to replenish or supply liquid into the liquid circulating system even if pressure of liquid in the liquid circulating system is above pressure of liquid supplied by the liquid supply in that the system comprises: - a reservoir connected or at least connectable to the mains liquid supply via a controllable supply valve; - a controller connected to the controllable valve and the pump, and configured to, in case of a need to replenish or supply liquid in the liquid circulating system, activate the controllable valve to supply liquid into the reservoir, which is kept empty before a need to replenish or supply liquid in the liquid circulating system arises, and thereafter activate the pump to replenish or supply liquid from the reservoir into the liquid circulating system and to, when the need to replenish or supply liquid into the liquid circulating system is or has been fulfilled, de-activate the pump, characterized in that the controller is further configured to coordinate activation and de-activation of at least one of the controllable valve and the pump to at least approximately empty the reservoir, when the need to replenish or supply liquid into the liquid circulating system is or has been at least approximately fulfilled. - a reservoir connected or at least connectable to the mains liquid supply via a controllable supply valve; - a controller connected to the controllable valve and the pump, and configured to, in case of a need to replenish or supply liquid in the liquid circulating system, activate the controllable valve to supply liquid into the reservoir, which is kept empty before a need to replenish or supply liquid in the liquid circulating system arises, and thereafter activate the pump to replenish or supply liquid from the reservoir into the liquid circulating system and to, when the need to replenish or supply liquid into the liquid circulating system is or has been fulfilled, de-activate the pump,
Refrigerator and/or freezer, with a carcass in which at least one refrigerated inner space is located, and a door by means of which the refrigerated inner space can be closed, wherein one or more door shelves are arranged on the inner side of the door, a corrugated profile extending in the vertical direction of the door is arranged on the inner side of the door, a counter-profile which is movable or fixed relative to the door shelf is arranged on the door shelf , which counter-profile in a locking position engages in the corrugated profile and which in a release position does not engage in the corrugated profile , the corrugated profile is arranged on or in a channel (K) in which the counter-profile of the door shelf is guided, the counter-profile is arranged on the door shelf such that the change between the locking position and the release position takes place by a tilting or pivoting movement of the counter-profile , and characterised in that the corrugated profile is arranged on or in a channel (K) in which the counter-profile of the door shelf is guided, the counter-profile is movable in the channel (K) in the vertical direction of the door, the counter-profile is rotatable about an axis (A) which runs in the channel (K) in the vertical direction of the appliance, and wherein the channel is arranged such that the counter-profile engages behind a channel wall, so that the door shelf can only be moved upwards or downwards and the counter-profile cannot be removed from the channel (K) by a movement forwards.
A device for controlling the use of sensors of a multi-sensor system, the multi-sensor system being equipped with a plurality of sensors comprising at least two sensors, the system being able to execute one or more system functions, characterised in that it comprises: - a unit for extracting alternatives for use of sensors configured to extract a set of sensors use alternatives from an alternative database storing a set of sensors uses alternative, in response to receiving a request indicating a type of function of the system and at least one quality metric, each alternative being stored in the database in correspondence with a system function, each alternative being associated with at least one sensor and comprising, for each associated sensor, a rate of use of the sensor and a duration of use of the sensor at said rate of use, the extraction unit being configured to extract the sensors use alternatives associated with said system function; - a prediction unit comprising a set of sensor performance models, the prediction unit being configured to apply, to each alternative and for each sensor associated with the alternative, the sensor performance model corresponding to the sensor, the sensor performance model providing a predicted value for each quality metric for said sensor, the predicted value corresponding to the estimated value of the quality metric for use of the sensor at the rate of use and for the duration associated with the sensor in the alternative; - a unit for selecting candidate alternatives configured to select at least some of said alternatives as a function of the predicted values of the quality metrics for the sensors of each extracted alternative. - a unit for extracting alternatives for use of sensors configured to extract a set of sensors use alternatives from an alternative database storing a set of sensors uses alternative, in response to receiving a request indicating a type of function of the system and at least one quality metric, each alternative being stored in the database in correspondence with a system function, each alternative being associated with at least one sensor and comprising, for each associated sensor, a rate of use of the sensor and a duration of use of the sensor at said rate of use, the extraction unit being configured to extract the sensors use alternatives associated with said system function; - a prediction unit comprising a set of sensor performance models, the prediction unit being configured to apply, to each alternative and for each sensor associated with the alternative, the sensor performance model corresponding to the sensor, the sensor performance model providing a predicted value for each quality metric for said sensor, the predicted value corresponding to the estimated value of the quality metric for use of the sensor at the rate of use and for the duration associated with the sensor in the alternative; - a unit for selecting candidate alternatives configured to select at least some of said alternatives as a function of the predicted values of the quality metrics for the sensors of each extracted alternative.
An upper-torso garment comprising: a first knit zone and a second knit zone , the second knit zone comprising a plurality of courses of tuck binder stitches that cross back and forth between a second set of front-side stitches (844A to 844H) organized into a second set of front-side courses, and a second set of back-side stitches (842A to 842H) organized into a second set of back-side courses, wherein each course in the second set of front-side courses is connected to a course in the second set of back-side courses by the plurality of courses of tuck binder stitches , wherein the first knit zone comprises a single course of tuck binder stitches that cross back and forth between a first set of front-side stitches organized into a first set of front-side courses , and a first set of back-side stitches organized into a first set of back-side courses , wherein each course in the first set of front-side courses is connected to a course in the first set of back-side courses by the single course of tuck binder stitches , and the front side courses and the back-side courses being constructed of a first yarn strand and a second yarn strand with the first yarn strand and the second yarn strand forming interlocking crossovers at positions where the first yarn strand extends from a front-side course to a back-side course and the second yarn strand extends from a back-side course to a front-side course, and vice versa, wherein the second knit zone has fewer interlocking crossovers than the first knit zone .
A method of forming an electrical connection between a solar cell and a substrate , wherein the solar cell is attached on the substrate using first and second conductive elements, wherein the first element comprises a metal foil interconnect , and the second conductive element comprises a plated Ag, or plated Au, surface layer on the substrate or a front, or back, contact on the solar cell , comprising: inserting a nano-metal material between the first and second conductive elements ; and heating the nano-metal material to a temperature of more than 200°C and applying a pressure of more than 1 MPa to form the electrical connection between the first and second conductive elements , wherein the nano-metal material comprises a nano-metal paste or ink comprised of one or more of Au, Cu, Ag, and Al nano-particles, and wherein one of Au, Cu, Ag, and Al is used for the metal foil interconnects . inserting a nano-metal material between the first and second conductive elements ; and heating the nano-metal material to a temperature of more than 200°C and applying a pressure of more than 1 MPa to form the electrical connection between the first and second conductive elements , wherein the nano-metal material comprises a nano-metal paste or ink comprised of one or more of Au, Cu, Ag, and Al nano-particles, and wherein one of Au, Cu, Ag, and Al is used for the metal foil interconnects .
A transmission apparatus comprising: a video encoder configured to generate a video stream having coded image data; a subtitle encoder configured to generate a subtitle stream having text information and display timing information on subtitles; and a transmission unit configured to transmit a transport stream containing the video stream and the subtitle stream, wherein the subtitle encoder generates the subtitle stream on the basis of the text information on the subtitles in a predetermined format having the display timing information, characterized in that the predetermined format is TTML, wherein the subtitle stream contains a segment having TTML information having the text information and the display timing information for each subtitle in character code, the display timing information being described by a display start timing and a display end timing of each subtitle contained in the body of the TTML, and a timing control segment having the display timing information on subtitles including information on display start timing and display duration set referring to the system time information on the basis of the description on the display start timing and the display end timing of each subtitle. a video encoder configured to generate a video stream having coded image data; a subtitle encoder configured to generate a subtitle stream having text information and display timing information on subtitles; and a transmission unit configured to transmit a transport stream containing the video stream and the subtitle stream, wherein the subtitle encoder generates the subtitle stream on the basis of the text information on the subtitles in a predetermined format having the display timing information, characterized in that the predetermined format is TTML, wherein the subtitle stream contains a segment having TTML information having the text information and the display timing information for each subtitle in character code, the display timing information being described by a display start timing and a display end timing of each subtitle contained in the body of the TTML, and a timing control segment having the display timing information on subtitles including information on display start timing and display duration set referring to the system time information on the basis of the description on the display start timing and the display end timing of each subtitle.
A method of transmitting a first image to a first display device, the method comprising: - receiving a second image representative of a scene, said scene comprising a second display device displaying a third image ; - receiving said third image displayed on the second display device , wherein the third image is received from a source device transmitting the third image to the second display device; - obtaining a first information representative of pose of said second display device with respect to the scene; - distorting said third image according to said first information; - generating said first image by combining the second image and the distorted third image using said obtained first information; - transmitting data representative of said first image. - receiving a second image representative of a scene, said scene comprising a second display device displaying a third image ; - receiving said third image displayed on the second display device , wherein the third image is received from a source device transmitting the third image to the second display device; - obtaining a first information representative of pose of said second display device with respect to the scene; - distorting said third image according to said first information; - generating said first image by combining the second image and the distorted third image using said obtained first information; - transmitting data representative of said first image.
A trip lever assembly for a toilet , the trip lever assembly comprising: a body , comprising a lever, configured to be mechanically coupled to a flush valve assembly of the toilet ; a lens ; an infrared sensor coupled to and within the body wherein the lens is coupled to the body in front of the infrared sensor ; wherein the infrared sensor is configured to be electrically coupled to the flush valve assembly ; wherein the body is configured to be manually actuated to mechanically control the flush valve assembly ; and wherein the infrared sensor is a time-of-flight sensor configured to detect the distance of an object in a detection region of the infrared sensor to control the flush valve assembly . a body , comprising a lever, configured to be mechanically coupled to a flush valve assembly of the toilet ; a lens ; an infrared sensor coupled to and within the body wherein the lens is coupled to the body in front of the infrared sensor ; wherein the infrared sensor is configured to be electrically coupled to the flush valve assembly ; wherein the body is configured to be manually actuated to mechanically control the flush valve assembly ; and wherein the infrared sensor is a time-of-flight sensor configured to detect the distance of an object in a detection region of the infrared sensor to control the flush valve assembly .
A method , performed by at least one processor, comprising: receiving data delivery instructions to distribute a data object to a device wherein the data delivery instructions include a storage location of the data object and a size of data receivable by the device, wherein the size of data receivable by the device is limited by a communication memory buffer size of the device; dividing the data object into a plurality of blocks corresponding to the size of data receivable by the device; identifying a messaging topic corresponding to the data block size receivable by the device to which the device is subscribed via a messaging service; and sending the plurality of blocks to the device using the messaging topic. receiving data delivery instructions to distribute a data object to a device wherein the data delivery instructions include a storage location of the data object and a size of data receivable by the device, wherein the size of data receivable by the device is limited by a communication memory buffer size of the device; dividing the data object into a plurality of blocks corresponding to the size of data receivable by the device; identifying a messaging topic corresponding to the data block size receivable by the device to which the device is subscribed via a messaging service; and sending the plurality of blocks to the device using the messaging topic.
A drawer apparatus for a cleaning trolley , comprising a drawer having a receiving space , at least one guide device via which the drawer on the cleaning trolley is movable from a pushed-in position to a pulled-out position in a pull-out direction , and at least one coupling element for coupling the drawer to the guide device , characterized in that the at least one coupling element is a pivot element for pivotably mounting the drawer on the at least one guide device , in the pulled-out position the drawer being pivotable relative to the at least one guide device about a pivot axis that is oriented transversely and in particular perpendicularly to the pull-out direction , such as to assume a tilted position.
A clad aluminum alloy product, comprising: a core layer comprising up to 12.0 wt. % Zn, 1.0 to 4.0 wt. % Mg, 0.1 to 3.0 wt. % Cu, up to 0.60 wt. % Si, up to 0.50 wt. % Fe, up to 0.20 wt. % Mn, up to 0.20 wt. % Cr, up to 0.30 wt. % Zr, up to 0.15 wt. % impurities, and the remainder aluminum, wherein the core layer has a first side and a second side; and a first cladding layer on the first side of the core layer, wherein the first cladding layer is an AA7xxx series alloy cladding layer selected from AA7011, AA7019, AA7020, AA7021, AA7039, AA7075, AA7085, AA7108, AA7108A, AA7015, AA7017, AA7018, AA7019A, AA7024, AA7025, AA7028, AA7030, AA7031, AA7033, AA7035, AA7035A, AA7046, AA7046A, AA7003, AA7004, AA7005, AA7009, AA7010, AA7011, AA7012, AA7014, AA7016, AA7116, AA7122, AA7023, AA7026, AA7029, AA7129, AA7229, AA7032, AA7033, AA7034, AA7036, AA7136, AA7037, AA7040, AA7140, AA7041 , AA7049, AA7049A, AA7149, AA7204, AA7249, AA7349, AA7449, AA7050, AA7050A, AA7150, AA7250, AA7055, AA7155, AA7255, AA7056, AA7060, AA7064, AA7065, AA7068, AA7168, AA7175, AA7475, AA7076, AA7178, AA7278, AA7278A, AA7081, AA7181, AA7185, AA7090, AA7093, AA7095, and AA7099.
Method for ensuring and/or maintaining the function of a safety-critical overall system of a vehicle control system, in which when an event (E, E1-E6) occurs in the overall system, the event (E, E1-E6) is analysed and sub-functionalities affected by the event (E, E1-E6) that has occurred are determined, and the overall system is subdivided into mutually dependent sub-functionalities on the basis of the event analysis, wherein the function of the overall system is ensured and/or maintained by controlling sub-functionalities depending on their availability, and the sub-functionalities form graphs (G1, G2, G3), and a function identifier (FID) is provided, which identifies the respective subfunctionality and controls the latter in terms of its execution, wherein a logical availability statement about the sub-functionalities, "available" or "not available", is made by means of the function identifier (FID) on the basis of the event analysis, and the graphs (G1, G2, G3) of the sub-functionalities are processed jointly by graphs (G1, G2, G3) being connected on the basis of common sub-functionalities whose availability is calculated in a distributed manner, wherein distributed sub-functionalities are realized in a two-stage manner, wherein firstly local availabilities of the sub-functionalities of the graphs (G1, G2, G3) are determined and subsequently they are replaced with sub-functionalities of other graphs (G1, G2, G3) systemwide. when an event (E, E1-E6) occurs in the overall system, the event (E, E1-E6) is analysed and sub-functionalities affected by the event (E, E1-E6) that has occurred are determined, and the overall system is subdivided into mutually dependent sub-functionalities on the basis of the event analysis, wherein the function of the overall system is ensured and/or maintained by controlling sub-functionalities depending on their availability, and the sub-functionalities form graphs (G1, G2, G3), and a function identifier (FID) is provided, which identifies the respective subfunctionality and controls the latter in terms of its execution, wherein a logical availability statement about the sub-functionalities, "available" or "not available", is made by means of the function identifier (FID) on the basis of the event analysis, and the graphs (G1, G2, G3) of the sub-functionalities are processed jointly by graphs (G1, G2, G3) being connected on the basis of common sub-functionalities whose availability is calculated in a distributed manner, wherein distributed sub-functionalities are realized in a two-stage manner, wherein firstly local availabilities of the sub-functionalities of the graphs (G1, G2, G3) are determined and subsequently they are replaced with sub-functionalities of other graphs (G1, G2, G3) systemwide.