mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a venturi duct configured to receive a first bleed air flow from an aircraft engine and/or a second bleed air flow from an auxiliary power unit, APU, and further configured to provide the bleed air as environmental control system, ECS, air flow to an ECS; a first delta P sensor configured to sense a pressure difference between a first point and a second point of the venturi duct over a first pressure range, the first delta P sensor configured to provide a first sensed pressure difference; a second delta P sensor configured to sense the pressure difference between the first point and the second point of the venturi duct over a second pressure range and provide a second sensed pressure difference characterized in that the second pressure range is different from the first pressure range; and further characterized by : an ECS controller configured to receive the first and second sensed pressure differences, determine a flow rate of an ECS air flow based upon the first and/or second sensed pressure differences, and adjust a bleed extraction of the aircraft engine or the APU based upon the flow rate of the ECS air flow. a venturi duct configured to receive a first bleed air flow from an aircraft engine and/or a second bleed air flow from an auxiliary power unit, APU, and further configured to provide the bleed air as environmental control system, ECS, air flow to an ECS; a first delta P sensor configured to sense a pressure difference between a first point and a second point of the venturi duct over a first pressure range, the first delta P sensor configured to provide a first sensed pressure difference; a second delta P sensor configured to sense the pressure difference between the first point and the second point of the venturi duct over a second pressure range and provide a second sensed pressure difference characterized in that the second pressure range is different from the first pressure range; and further characterized by : an ECS controller configured to receive the first and second sensed pressure differences, determine a flow rate of an ECS air flow based upon the first and/or second sensed pressure differences, and adjust a bleed extraction of the aircraft engine or the APU based upon the flow rate of the ECS air flow.
A method comprising: receiving or accessing data comprising a structured file encapsulating data required by an execution environment to manage executable code wrapped within the structured file ; iteratively identifying code and data regions in the structured file ; extracting, based on the identifying, code start points for subsequent use in disassembly; extracting, using the extracted coded start points, at least one first order feature from the structured file by analyzing at least a portion of the identified code and data regions ; analyzing negative space within the structured file to extract at least one additional feature, the negative space being different from the identified code and data regions ; and providing both of the extracted at least one feature and the extracted at least one additional feature to a machine learning model such that the machine learning model consumes at least a portion of these features in order to classify the structured file as malicious or benign. receiving or accessing data comprising a structured file encapsulating data required by an execution environment to manage executable code wrapped within the structured file ; iteratively identifying code and data regions in the structured file ; extracting, based on the identifying, code start points for subsequent use in disassembly; extracting, using the extracted coded start points, at least one first order feature from the structured file by analyzing at least a portion of the identified code and data regions ; analyzing negative space within the structured file to extract at least one additional feature, the negative space being different from the identified code and data regions ; and providing both of the extracted at least one feature and the extracted at least one additional feature to a machine learning model such that the machine learning model consumes at least a portion of these features in order to classify the structured file as malicious or benign.
A braze alloy composition, comprising: a) 5% by weight to 25% by weight germanium; b) 1% by weight to 4% by weight boron; c) chromium, at a level of 0% or at a level of 1% by weight to 40% by weight; and d) 1% to 10% by weight of at least one refractory element selected from molybdenum, tungsten, tantalum, and niobium; e) a balance of nickel or the combination of nickel and cobalt; wherein the composition has an amorphous structure; and the composition has less than 0.01% by weight of each of: silicon, palladium, gold, aluminum, titanium, zirconium, hafnium, and vanadium. a) 5% by weight to 25% by weight germanium; b) 1% by weight to 4% by weight boron; c) chromium, at a level of 0% or at a level of 1% by weight to 40% by weight; and d) 1% to 10% by weight of at least one refractory element selected from molybdenum, tungsten, tantalum, and niobium; e) a balance of nickel or the combination of nickel and cobalt; wherein
A method performed by a computing device , the method comprising: selecting, by the computing device, an aiming mode for an ultrasound probe ; selecting, by the computing device, a first aiming mode plane, scanning mode, or imaging mode; selecting, by the computing device, at least one additional aiming mode plane, scanning mode, or imaging mode for the ultrasound probe; receiving, by the computing device, a selection of a three-dimensional scan mode; and performing a 3D scan using the ultrasound probe, in response to receiving the selection of the 3D scan mode; characterised by toggling, by the computing device, between obtaining and displaying ultrasound images associated with the first aiming mode plane, scanning mode, or imaging mode and obtaining and displaying ultrasound images associated with the at least one additional aiming mode plane, scanning mode, or imaging mode using the ultrasound probe wherein the toggling is performed by activating a toggle switch or a toggle selection object or is performed automatically at a particular interval or rate. selecting, by the computing device, an aiming mode for an ultrasound probe ; selecting, by the computing device, a first aiming mode plane, scanning mode, or imaging mode; selecting, by the computing device, at least one additional aiming mode plane, scanning mode, or imaging mode for the ultrasound probe; receiving, by the computing device, a selection of a three-dimensional scan mode; and performing a 3D scan using the ultrasound probe, in response to receiving the selection of the 3D scan mode; characterised by toggling, by the computing device, between obtaining and displaying ultrasound images associated with the first aiming mode plane, scanning mode, or imaging mode and obtaining and displaying ultrasound images associated with the at least one additional aiming mode plane, scanning mode, or imaging mode using the ultrasound probe wherein the toggling is performed by activating a toggle switch or a toggle selection object or is performed automatically at a particular interval or rate.
Control unit for a vehicle apparatus, comprising : - an external face arranged to detect from a rest position a control action of a user, - the outer face being arranged to be movable between at least one first position, occupied when the control action is detected, and at least one second position, indicating that the control action is taken into account, - the control member comprising at least one element with a shape memory material arranged to move, when the control action is taken into account, the outer face from the first position to the second position, characterised in that it comprises a fixed base , said at least one element with a shape memory material being arranged between the fixed base and the outer face . - an external face arranged to detect from a rest position a control action of a user, - the outer face being arranged to be movable between at least one first position, occupied when the control action is detected, and at least one second position, indicating that the control action is taken into account, - the control member comprising at least one element with a shape memory material arranged to move, when the control action is taken into account, the outer face from the first position to the second position,
A method for identifying on-street parking spots of an area based on at least one of satellite and aerial images of said area, the method comprising retrieving and processing a plurality of at least one of satellite and aerial images by at least quality benchmarking and georeferencing the images ; and for each image , detecting objects of interest comprising at least detected vehicles , computing street sections based on map data corresponding to the images , wherein street sections refer to straight line segments that streets can be subdivided into, and assigning the detected objects to at least one of the street sections by computing a closest street section for each detected vehicle; and for each street section , identifying on-street vehicle lanes based on the detected objects of interest , wherein identifying on-street vehicle lanes further comprises recursively identifying on-street vehicle lanes based on a plurality of detected vehicles assigned to each street section , wherein the recursively identified on-street vehicle lanes are quality controlled by at least comparing their slope with that of the respective street section ; and combining street sections based on the identified on-street vehicle lanes from the plurality of at least one of satellite and aerial images ; and in the combined street sections , identifying parking lanes and deriving individual parking spots comprised thereon. retrieving and processing a plurality of at least one of satellite and aerial images by at least quality benchmarking and georeferencing the images ; and for each image , detecting objects of interest comprising at least detected vehicles , computing street sections based on map data corresponding to the images , wherein street sections refer to straight line segments that streets can be subdivided into, and assigning the detected objects to at least one of the street sections by computing a closest street section for each detected vehicle; and for each street section , identifying on-street vehicle lanes based on the detected objects of interest , wherein identifying on-street vehicle lanes further comprises recursively identifying on-street vehicle lanes based on a plurality of detected vehicles assigned to each street section , wherein the recursively identified on-street vehicle lanes are quality controlled by at least comparing their slope with that of the respective street section ; and combining street sections based on the identified on-street vehicle lanes from the plurality of at least one of satellite and aerial images ; and in the combined street sections , identifying parking lanes and deriving individual parking spots comprised thereon.
An underwater debris suction apparatus, comprising a power device , a filter device , and a collection device ; wherein the power device comprises a suction component and a power drive device configured to provide power for the suction component ; the suction component is at least partially located above the filter device or the suction component is entirely located in a space of the filter device ; an upper end of the collection device is provided with a first opening; a lower end of the filter device is connected to the upper end of the collection device , and the lower end of the filter device is provided with a second opening corresponding to the first opening; wherein the suction component is configured, during operation of the suction component , to suck unfiltered pool water to enter the filter device through a water inlet channel and then, to flow to a side wall of the filter device , so that filtered water is discharged from the side wall of the filter device , and debris failing to be discharged from the side wall of the filter device falls into the collection device ; characterized in that no internal passage for unfiltered pool water to pass through in a middle of the suction component is found. a power device , a filter device , and a collection device ; wherein the power device comprises a suction component and a power drive device configured to provide power for the suction component ; the suction component is at least partially located above the filter device or the suction component is entirely located in a space of the filter device ; an upper end of the collection device is provided with a first opening; a lower end of the filter device is connected to the upper end of the collection device , and the lower end of the filter device is provided with a second opening corresponding to the first opening; wherein the suction component is configured, during operation of the suction component , to suck unfiltered pool water to enter the filter device through a water inlet channel and then, to flow to a side wall of the filter device , so that filtered water is discharged from the side wall of the filter device , and debris failing to be discharged from the side wall of the filter device falls into the collection device ; characterized in that no internal passage for unfiltered pool water to pass through in a middle of the suction component is found.
A semiconductor light emitting device comprising: a conductive support member ; an electrode layer on the conductive support member; an ohmic contact layer on the electrode layer ; a dot type conductive layer on the ohmic contact layer ; a light emitting structure including a second conductivity type semiconductor layer connected to the ohmic contact layer , an active layer , a first conductivity type semiconductor layer , and disposed on the ohmic contact layer and the dot type conductive layer ; and an insulating layer disposed on a surface of the second conductivity type semiconductor layer and having an outer portion which extends outwardly from an outermost side of the light emitting structure , wherein the dot type conductive layer includes a plurality of dots, wherein the insulating layer comprises a protrusion having a closed loop shape and protruding from the insulating layer and extending from the surface of the second conductivity type semiconductor layer up to the first conductivity type semiconductor layer , wherein the protrusion divides the light emitting structure into an active area (A1) where the second conductivity type semiconductor layer is in contact with the ohmic contact layer and an inactive area (A2) in an outer peripheral portion of the light emitting structure . a conductive support member ; an electrode layer on the conductive support member; an ohmic contact layer on the electrode layer ; a dot type conductive layer on the ohmic contact layer ; a light emitting structure including a second conductivity type semiconductor layer connected to the ohmic contact layer , an active layer , a first conductivity type semiconductor layer , and disposed on the ohmic contact layer and the dot type conductive layer ; and an insulating layer disposed on a surface of the second conductivity type semiconductor layer and having an outer portion which extends outwardly from an outermost side of the light emitting structure , wherein the dot type conductive layer includes a plurality of dots, wherein the insulating layer comprises a protrusion having a closed loop shape and protruding from the insulating layer and extending from the surface of the second conductivity type semiconductor layer up to the first conductivity type semiconductor layer , wherein the protrusion divides the light emitting structure into an active area (A1) where the second conductivity type semiconductor layer is in contact with the ohmic contact layer and an inactive area (A2) in an outer peripheral portion of the light emitting structure .
A device comprising: a processor configured to: determine to transmit an enhanced directional multi-gigabit, EDMG, packet frame, wherein the EDMG packet frame comprises a legacy-header, L-header, and wherein the L-header comprises a length field, a training length field, and a modulation and coding set, MCS; determine values of the length field, the training length field, and the MCS, wherein when the determined values of the length field, the training length field, and the MCS are used to calculate a transmitter time, TXTIME, the TXTIME is approximately the same duration as the EDMG packet frame duration; and a transmitter configured to: send the EDMG packet frame with the length field of the L-header set to the determined value, and wherein reserved bit 46 in the L-header is set to a value of 1. a processor configured to: determine to transmit an enhanced directional multi-gigabit, EDMG, packet frame, wherein the EDMG packet frame comprises a legacy-header, L-header, and wherein the L-header comprises a length field, a training length field, and a modulation and coding set, MCS; determine values of the length field, the training length field, and the MCS, wherein when the determined values of the length field, the training length field, and the MCS are used to calculate a transmitter time, TXTIME, the TXTIME is approximately the same duration as the EDMG packet frame duration; and determine to transmit an enhanced directional multi-gigabit, EDMG, packet frame, wherein the EDMG packet frame comprises a legacy-header, L-header, and wherein the L-header comprises a length field, a training length field, and a modulation and coding set, MCS; determine values of the length field, the training length field, and the MCS, wherein when the determined values of the length field, the training length field, and the MCS are used to calculate a transmitter time, TXTIME, the TXTIME is approximately the same duration as the EDMG packet frame duration; and a transmitter configured to: send the EDMG packet frame with the length field of the L-header set to the determined value, and wherein reserved bit 46 in the L-header is set to a value of 1.
A fluororesin composed of a tetrafluoroethylene/ethylene copolymer which is a bipolymer of tetrafluoroethylene and ethylene containing units derived from tetrafluoroethylene in a proportion of from 50 to 60 mol% relative to the total of the units derived from tetrafluoroethylene and the units derived from ethylene, and which has a melting point of from 275 to 290°C as determined according to the description, wherein the melt flow rate measured in accordance with ASTM D3159 B as described in the experimental section is at most 0.08 g/10 min.
Cutting device for a continuous milling machine for the profiling of a profiled edge region on one or more edges of panels , wherein the cutting device comprises a slide shoe or pressure shoe , wherein the respective slide shoe or pressure shoe has a sliding surface or sliding surfaces for guiding a surface (7-8) of a panel to be milled over it or them, wherein the aforementioned slide shoe or pressure shoe is provided with at least one cutting blade for machining the panel , wherein this cutting blade maintains a fixed position during this machining; and wherein the slide shoe or the pressure shoe is provided in order to support the surface of the panel to be milled by means of its sliding surface or sliding surfaces on a rotating milling cutter that carries out a milling operation on the edge of the panel; characterized in that the cutting blade is suitable for being used for providing a chamfer or bevelled edge at the profiled edge region of the aforementioned panel and the aforementioned cutting blade has a cutting surface that makes an angle (A) with the aforementioned surface (7-8) of the panel to be milled .
A method performed by a computing system for authenticating a user , the method comprising: performing a primary authentication of the user based on a telephone number received from the user; when it is determined that a time since a last authentication was successful is less than a recycle telephone number period and the primary authentication is successful, indicating that the user has been authenticated; when it is determined that the time since the last authentication was successful is not less than the recycle telephone number period, performing a secondary authentication of the user; and when the secondary authentication is successful, indicating that the user has been authenticated. performing a primary authentication of the user based on a telephone number received from the user; when it is determined that a time since a last authentication was successful is less than a recycle telephone number period and the primary authentication is successful, indicating that the user has been authenticated; when it is determined that the time since the last authentication was successful is not less than the recycle telephone number period, performing a secondary authentication of the user; and when the secondary authentication is successful, indicating that the user has been authenticated. performing a secondary authentication of the user; and when the secondary authentication is successful, indicating that the user has been authenticated.
Counter bearing sleeve for a profiled tube having at least one undercut longitudinal groove , with a through opening extending in an axial direction for feeding through a connecting screw , with an external self-tapping or thread-forming securing region , which has at least two securing sections distributed around the circumference and spaced apart from one another in circumferential direction, characterized in that each securing section has at least two tapping ridges adjacent to one another in axial direction which are offset in the insertion direction , so that when the counter bearing sleeve is screwed into a longitudinal groove of the profiled tube the tapping ridges cut successively into a groove base and at least one groove flank of the longitudinal groove .
An arrangement system of a lift automatic floor door comprising: (i) at least one couple of shutters , (ii) at least one floor sill with double guide for lower sliding of said couple of shutters , (iii) at least one couple of carriages fixed to said shutters sliding apart from each other and supported by coupling members on at least one couple of sliding guides , wherein said carriages have a geometric shape such that it allows for displacing said at least one couple of guides on two different vertical planes anyway laid upon one another, and the housing of moving mechanic members of said at least one couple of shutters is inside the space portion defined by two different vertical planes, and wherein said at least one couple of carriages is operatively connected to supporting means for counter members and for motion transmission elements of said at least one couple of carriages , characterized in that said supporting means are inclined slabs with different but parallel lying positions such that they allow said transmission means to go from one lying position to the other of said carriage slabs. (i) at least one couple of shutters , (ii) at least one floor sill with double guide for lower sliding of said couple of shutters , (iii) at least one couple of carriages fixed to said shutters sliding apart from each other and supported by coupling members on at least one couple of sliding guides ,