mhurhangee/patent-ind-claim-en huggingface dataset:
A filter assembly , comprising: a housing defining an internal volume and an outlet fluidly connectable to an oil system, the housing having a bottom wall and an aperture through the bottom wall ; a filter cartridge removably received within the internal volume of the housing ; and an inlet conduit secured to the bottom wall of the housing , the inlet conduit defining an inlet fluidly connectable to the oil system, the inlet conduit being in fluid flow communication with the internal volume of the housing , the inlet conduit having: a wall circumscribing a main flow passage from the inlet to the internal volume , and a sedimentation pocket defined by the wall , the sedimentation pocket extending downwardly away from the main flow passage and in a direction having a component parallel to a direction of a gravity when the filter assembly is in use, the sedimentation pocket located upstream of the internal volume of the housing and downstream of the inlet . a housing defining an internal volume and an outlet fluidly connectable to an oil system, the housing having a bottom wall and an aperture through the bottom wall ; a filter cartridge removably received within the internal volume of the housing ; and an inlet conduit secured to the bottom wall of the housing , the inlet conduit defining an inlet fluidly connectable to the oil system, the inlet conduit being in fluid flow communication with the internal volume of the housing , the inlet conduit having: a wall circumscribing a main flow passage from the inlet to the internal volume , and a sedimentation pocket defined by the wall , the sedimentation pocket extending downwardly away from the main flow passage and in a direction having a component parallel to a direction of a gravity when the filter assembly is in use, the sedimentation pocket located upstream of the internal volume of the housing and downstream of the inlet . a wall circumscribing a main flow passage from the inlet to the internal volume , and a sedimentation pocket defined by the wall , the sedimentation pocket extending downwardly away from the main flow passage and in a direction having a component parallel to a direction of a gravity when the filter assembly is in use, the sedimentation pocket located upstream of the internal volume of the housing and downstream of the inlet .
A method for operating a tamping machine on a track , comprising a tamping unit , a lifting and lining unit , a measuring system with a measuring value transducer , and a control/regulating device , with the lifting and lining unit being actuated by the control/regulating device as a function of a track position recorded by means of the measuring system in such a way that a treated track section is lifted to a target level during a lifting time, characterized in that at least two controllers set up in the control/regulating device are selected in such a way that the first controller is activated in a first lifting mode for standard operation and that the second controller is activated in a second lifting mode for turnouts.
Installation for supplying respiratory gas to a user (P), comprising: - a gas source for supplying an oxygen-containing respiratory gas, - a respiratory interface , - a main gas delivery line fluidically connecting the gas source to the respiratory interface , - a gas recovery line in fluidic communication with the respiratory interface , - a gas purification system fed by the gas recovery line , - a gas recycling line fluidically connecting the gas purification system to the main gas delivery line , - and operating means , characterized in that it additionally comprises: - an oxygen sensor arranged to measure the oxygen concentration within the main gas delivery line and to supply the oxygen concentration measurement(s) to the operating means , - an intake line fluidically connected to the atmosphere and also to the main gas delivery line between the gas source and the oxygen sensor , - a concentration selection device configured to allow a user to select or set a target concentration of inhaled O 2 and to supply the selected target concentration of inhaled O 2 to the operating means , and - a first proportional element , arranged on the intake line , controlled by the operating means to control the circulation of air in the intake line . - a gas source for supplying an oxygen-containing respiratory gas, - a respiratory interface , - a main gas delivery line fluidically connecting the gas source to the respiratory interface , - a gas recovery line in fluidic communication with the respiratory interface , - a gas purification system fed by the gas recovery line , - a gas recycling line fluidically connecting the gas purification system to the main gas delivery line , - and operating means , - an oxygen sensor arranged to measure the oxygen concentration within the main gas delivery line and to supply the oxygen concentration measurement(s) to the operating means , - an intake line fluidically connected to the atmosphere and also to the main gas delivery line between the gas source and the oxygen sensor , - a concentration selection device configured to allow a user to select or set a target concentration of inhaled O 2 and to supply the selected target concentration of inhaled O 2 to the operating means , and - a first proportional element , arranged on the intake line , controlled by the operating means to control the circulation of air in the intake line .
A method of manufacturing an environmentally friendly straw, comprising the steps of: (a) providing a tubular body , where the tubular body has a channel inside connecting two openings at two ends of the tubular body , respectively; (b) placing the tubular body on a leveling machine , where the tubular body is supported by a plurality of support elements of the leveling machine contacting the openings , respectively; (c) leveling the tubular body by a leveling element driven by a leveling driving member of the leveling machine against the tubular body , where a straightness of the tubular body is measured by a straightness measurement member of the leveling machine ; (d) placing the tubular body after leveling by the leveling machine on a honing machine ; (e) configuring at least an abrasive element on a rotational member of the honing machine ; (f) spinning the abrasive element by the rotational member rotated by a honing driving member of the honing machine ; (g) threading the abrasive element into the channel through the openings ; (h) moving the abrasive element reciprocally inside the channel ; and (i) forming an inner layer around the channel inside the tubular body by the abrasive element 's reciprocal movement, whereas the tubular body is first leveled and subsequently honed, wherein the leveling of the tubular body is performed to such an extent that deformation of the tubular body is less than 0.01mm so that the subsequent honing is performed more smoothly to provide an inner layer of the tubular body with center line average roughness below 0.025μm. (a) providing a tubular body , where the tubular body has a channel inside connecting two openings at two ends of the tubular body , respectively; (b) placing the tubular body on a leveling machine , where the tubular body is supported by a plurality of support elements of the leveling machine contacting the openings , respectively; (c) leveling the tubular body by a leveling element driven by a leveling driving member of the leveling machine against the tubular body , where a straightness of the tubular body is measured by a straightness measurement member of the leveling machine ; (d) placing the tubular body after leveling by the leveling machine on a honing machine ; (e) configuring at least an abrasive element on a rotational member of the honing machine ; (f) spinning the abrasive element by the rotational member rotated by a honing driving member of the honing machine ; (g) threading the abrasive element into the channel through the openings ; (h) moving the abrasive element reciprocally inside the channel ; and (i) forming an inner layer around the channel inside the tubular body by the abrasive element 's reciprocal movement, whereas the tubular body is first leveled and subsequently honed, wherein the leveling of the tubular body is performed to such an extent that deformation of the tubular body is less than 0.01mm so that the subsequent honing is performed more smoothly to provide an inner layer of the tubular body with center line average roughness below 0.025μm.
A DNA plasmid comprising a DNA sequence which contains (i) a first nucleotide sequence which encodes an mRNA molecule and, located downstream thereof, (ii) a second nucleotide sequence which encodes a modified poly(A) tail, wherein said second nucleotide sequence is characterized in that it consists of (a) at least two A elements each defined as a nucleotide sequence consisting of 55 to 65 T nucleotides, and (b) at least one S element each S element consisting of (b1) one nucleotide that is not a T nucleotide, or (b2) 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; wherein the total number of A elements is one more than the total number of S elements, and wherein any two A elements are separated by one S element. (i) a first nucleotide sequence which encodes an mRNA molecule and, located downstream thereof, (ii) a second nucleotide sequence which encodes a modified poly(A) tail, wherein said second nucleotide sequence is characterized in that it consists of (a) at least two A elements each defined as a nucleotide sequence consisting of 55 to 65 T nucleotides, and (b) at least one S element each S element consisting of (b1) one nucleotide that is not a T nucleotide, or (b2) 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; wherein the total number of A elements is one more than the total number of S elements, and wherein any two A elements are separated by one S element. (a) at least two A elements each defined as a nucleotide sequence consisting of 55 to 65 T nucleotides, and (b) at least one S element each S element consisting of (b1) one nucleotide that is not a T nucleotide, or (b2) 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; (b1) one nucleotide that is not a T nucleotide, or (b2) 6 nucleotides, wherein each of the two terminal nucleotides is not a T nucleotide; wherein the total number of A elements is one more than the total number of S elements, and wherein any two A elements are separated by one S element.
A solar cell for a shingled solar cell module, said solar cell having a front side and a back side opposite to the front side, a plurality of front side busbars being arranged on the front side, a plurality of back side busbars being arranged on the back side, wherein the solar cell has chamfers and comprises a plurality of sections , the plurality of sections comprising at least one chamfered section , each section comprising a front side busbar of the plurality of front side busbars and a back side busbar of the plurality of back side busbars extending along long edges of that section respectively, wherein the front side busbar of the at least one chamfered section extends along a long edge on a side of the at least one chamfered section without any chamfer and has an extension at a short edge (331-1) of said chamfered section intersecting with the long edge of said chamfered section, wherein said extension further extends along an entire area of the short edge (331-1) of the chamfered section, characterized in that said extension continues to extend along a partial or entire area of a chamfered edge (331-2) of the chamfered section that abuts the chamfered edge (331-1), 1 wherein the front side busbar of the at least one chamfered section does not extend along a chamfered long edge opposite the long edge on the side of the at least one chamfered section without any chamfer. wherein the solar cell has chamfers and comprises a plurality of sections , the plurality of sections comprising at least one chamfered section , each section comprising a front side busbar of the plurality of front side busbars and a back side busbar of the plurality of back side busbars extending along long edges of that section respectively, wherein the front side busbar of the at least one chamfered section extends along a long edge on a side of the at least one chamfered section without any chamfer and has an extension at a short edge (331-1) of said chamfered section intersecting with the long edge of said chamfered section, wherein said extension further extends along an entire area of the short edge (331-1) of the chamfered section, characterized in that said extension continues to extend along a partial or entire area of a chamfered edge (331-2) of the chamfered section that abuts the chamfered edge (331-1), 1 wherein the front side busbar of the at least one chamfered section does not extend along a chamfered long edge opposite the long edge on the side of the at least one chamfered section without any chamfer.
A settlement analyser comprising an array of emitters and at least two arrays of detectors , a sample volume between the array of emitters and the at least two arrays of detectors, wherein the array of emitters and the at least two arrays of detectors are each oriented vertically, wherein the settlement analyser is configured to analyse a sample within the sample volume by sequentially emitting light from emitters of the array of emitters, and detecting light which arrives at the at least two arrays of detectors via the sample volume, wherein the at least two arrays of detectors comprises a first array of detectors which is diametrically opposite the array of emitters with respect to the sample volume and a second array of detectors which is oriented at 90 degrees to the array of emitters with respect to the sample volume to detect light from the array of emitters that is scattered within the sample, wherein the settlement analyser is configured to determine at least one optical profile of the sample within the sample volume by detecting light emitted by each emitter of the array of emitters at a corresponding detector of the at least two arrays of detectors, and wherein the settlement analyser is configured to determine the at least one optical profile as a function of time by repeating the sequence. wherein the at least two arrays of detectors comprises a first array of detectors which is diametrically opposite the array of emitters with respect to the sample volume and a second array of detectors which is oriented at 90 degrees to the array of emitters with respect to the sample volume to detect light from the array of emitters that is scattered within the sample, wherein the settlement analyser is configured to determine at least one optical profile of the sample within the sample volume by detecting light emitted by each emitter of the array of emitters at a corresponding detector of the at least two arrays of detectors, and wherein the settlement analyser is configured to determine the at least one optical profile as a function of time by repeating the sequence.
A method implemented in a virtual network function, VNF, manager for delivering of services to a roaming UE , the services being offered by a set of VNFs hosted on a source radio base station , and being initially delivered to the roaming UE via a radio interface of the source radio base station , wherein the roaming UE is to roam from a radio coverage area of the source radio base station into a radio coverage area of a target radio base station , the method comprising: identifying a trigger condition for handing-over delivery of at least a subset of the services from the radio interface of the source radio base station to a radio interface of the target radio base station ; transferring the subset of the services to the target radio base station through a route based on information from a software-defined networking, SDN, controller of a SDN system that includes the source radio base station and the target radio base station , wherein transferring the subset of services to the target base station comprises cloning at least one VNF hosted on the source radio base station and causing the SDN controller to set up the route from the source radio base station to the target radio base station based on a bandwidth required to transfer a clone of the at least one VNF from the source radio base station to the target radio base station ; and causing at least one cloned VNF to be deployed on the target radio base station , the at least one cloned VNF on the target radio base station being adapted to offer the subset of the services to the roaming UE . identifying a trigger condition for handing-over delivery of at least a subset of the services from the radio interface of the source radio base station to a radio interface of the target radio base station ; transferring the subset of the services to the target radio base station through a route based on information from a software-defined networking, SDN, controller of a SDN system that includes the source radio base station and the target radio base station , wherein transferring the subset of services to the target base station comprises cloning at least one VNF hosted on the source radio base station and causing the SDN controller to set up the route from the source radio base station to the target radio base station based on a bandwidth required to transfer a clone of the at least one VNF from the source radio base station to the target radio base station ; and causing at least one cloned VNF to be deployed on the target radio base station , the at least one cloned VNF on the target radio base station being adapted to offer the subset of the services to the roaming UE .
A turnaround monitoring system that is configured to monitor a turnaround of an aircraft at an airport , the turnaround monitoring system comprising: a turnaround analysis control unit that receives turnaround data regarding the aircraft at the airport and determines a turnaround status of the aircraft based on the turnaround data; a turnaround database that stores historical turnaround data; a turnaround prediction control unit that predicts a time of completion of the turnaround based on a comparison of the turnaround data and the historical turnaround data; one or more cameras (112, 112a-112e, 112b-112e); and one or more sensors , wherein the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors output the turnaround data regarding the aircraft , wherein the turnaround analysis control unit is in communication with the one or more cameras (112, 112a-112e, 112b-112e) and the one more sensors , wherein the turnaround analysis control unit receives the turnaround data from the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors , wherein the one or more cameras (112, 112a-112e, 112b-112e) are configured to capture images related to the presence of luggage carts or vehicles, and wherein the turnaround data includes information indicative of luggage , wherein the turnaround status comprises information regarding luggage removed from and boarded onto the aircraft , wherein the turnaround analysis control unit is configured to detect images of luggage vehicles proximate to luggage areas of the aircraft and determine luggage removal and boarding through image analysis. a turnaround analysis control unit that receives turnaround data regarding the aircraft at the airport and determines a turnaround status of the aircraft based on the turnaround data; a turnaround database that stores historical turnaround data; a turnaround prediction control unit that predicts a time of completion of the turnaround based on a comparison of the turnaround data and the historical turnaround data; one or more cameras (112, 112a-112e, 112b-112e); and one or more sensors , wherein the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors output the turnaround data regarding the aircraft , wherein the turnaround analysis control unit is in communication with the one or more cameras (112, 112a-112e, 112b-112e) and the one more sensors , wherein the turnaround analysis control unit receives the turnaround data from the one or more cameras (112, 112a-112e, 112b-112e) and the one or more sensors , wherein the one or more cameras (112, 112a-112e, 112b-112e) are configured to capture images related to the presence of luggage carts or vehicles, and wherein the turnaround data includes information indicative of luggage , wherein the turnaround status comprises information regarding luggage removed from and boarded onto the aircraft , wherein the turnaround analysis control unit is configured to detect images of luggage vehicles proximate to luggage areas of the aircraft and determine luggage removal and boarding through image analysis.
A thin-film transistor array substrate, comprising: a substrate ; and a thin film transistor on the substrate , the thin film transistor including: a gate electrode ; an active layer ; a gate insulating film interposed between the gate electrode and the active layer ; and a source electrode and a drain electrode , which are respectively in contact with the active layer, wherein the active layer comprises a semiconductor material and a plurality of carbon allotropes dispersed in the semiconductor material, the active layer has a first region and a second region having a thickness larger than that of the first region , the first region is adjacent to any one selected from the source electrode and the drain electrode , the second region is adjacent to the other selected from the source electrode and the drain electrode , the thickness of the second region is 1.5 times to 3 times of the thickness of the first region , and a length of the second region is 50% to 90% of a length of the channel region (CH). a substrate ; and a thin film transistor on the substrate , the thin film transistor including: a gate electrode ; an active layer ; a gate insulating film interposed between the gate electrode and the active layer ; and a source electrode and a drain electrode , which are respectively in contact with the active layer, wherein the active layer comprises a semiconductor material and a plurality of carbon allotropes dispersed in the semiconductor material, the active layer has a first region and a second region having a thickness larger than that of the first region , the first region is adjacent to any one selected from the source electrode and the drain electrode , the second region is adjacent to the other selected from the source electrode and the drain electrode , the thickness of the second region is 1.5 times to 3 times of the thickness of the first region , and a length of the second region is 50% to 90% of a length of the channel region (CH). a gate electrode ; an active layer ; a gate insulating film interposed between the gate electrode and the active layer ; and a source electrode and a drain electrode , which are respectively in contact with the active layer, wherein the active layer comprises a semiconductor material and a plurality of carbon allotropes dispersed in the semiconductor material, the active layer has a first region and a second region having a thickness larger than that of the first region , the first region is adjacent to any one selected from the source electrode and the drain electrode , the second region is adjacent to the other selected from the source electrode and the drain electrode , the thickness of the second region is 1.5 times to 3 times of the thickness of the first region , and a length of the second region is 50% to 90% of a length of the channel region (CH).