mhurhangee/patent-ind-claim-en huggingface dataset:
An inlet for a turbofan engine , the inlet comprising: an inner barrel and an outer barrel configured to form an inlet cowl ; the inner barrel including an acoustic panel ; and the inlet cowl including: a lipskin disposed at a forward end of the inlet cowl ; a bulkhead disposed between the inner barrel and the outer barrel ; and a fluid ice protection system comprising: a porous panel combined with the lipskin; a reservoir; and a hydraulic distribution system for delivering ice protection fluid from the reservoir to the porous panel, wherein in use ice protection fluid delivered to the porous panel flows from the porous panel onto the acoustic panel . an inner barrel and an outer barrel configured to form an inlet cowl ; the inner barrel including an acoustic panel ; and the inlet cowl including: a lipskin disposed at a forward end of the inlet cowl ; a bulkhead disposed between the inner barrel and the outer barrel ; and a fluid ice protection system comprising: a porous panel combined with the lipskin; a reservoir; and a hydraulic distribution system for delivering ice protection fluid from the reservoir to the porous panel, wherein in use ice protection fluid delivered to the porous panel flows from the porous panel onto the acoustic panel . a lipskin disposed at a forward end of the inlet cowl ; a bulkhead disposed between the inner barrel and the outer barrel ; and a fluid ice protection system comprising: a porous panel combined with the lipskin; a reservoir; and a hydraulic distribution system for delivering ice protection fluid from the reservoir to the porous panel, wherein in use ice protection fluid delivered to the porous panel flows from the porous panel onto the acoustic panel .
A method performed by a wireless communication node , comprising: configuring an aggregated MAC protocol data unit, A-MPDU; and transmitting a first message to a wireless communication device , wherein the A-MPDU comprises a plurality of A-MPDU subframes, wherein each of the plurality of A-MPDU subframes comprises at least one padding field and a respective MPDU field, wherein the first message comprises an encoded A-MPDU, wherein the encoded A-MPDU is the A-MPDU encoded by an encoder, wherein the length of each of the at least one padding field is determined by a second length of the respective MPDU field and a depth of the encoder, wherein the at least one padding field comprises at least one HARQ padding field, wherein each of the plurality of A-MPDU subframes further comprises a MPDU delimiter field, wherein the MPDU delimiter field comprises a first field and a second field, and wherein the first field indicates a first length of a first HARQ padding field and the second field indicates the second length of the MPDU field in the corresponding A-MPDU subframe. configuring an aggregated MAC protocol data unit, A-MPDU; and transmitting a first message to a wireless communication device , wherein the A-MPDU comprises a plurality of A-MPDU subframes, wherein each of the plurality of A-MPDU subframes comprises at least one padding field and a respective MPDU field, wherein the first message comprises an encoded A-MPDU, wherein the encoded A-MPDU is the A-MPDU encoded by an encoder, wherein the length of each of the at least one padding field is determined by a second length of the respective MPDU field and a depth of the encoder, wherein the at least one padding field comprises at least one HARQ padding field, wherein each of the plurality of A-MPDU subframes further comprises a MPDU delimiter field, wherein the MPDU delimiter field comprises a first field and a second field, and wherein the first field indicates a first length of a first HARQ padding field and the second field indicates the second length of the MPDU field in the corresponding A-MPDU subframe.
A semiconductor device examination method comprising: a step of acquiring a first interference waveform based on signals from a plurality of drive elements according to light from a first spot comprising the plurality of drive elements in a semiconductor device ; and characterized in that the method further comprises a step of separating a waveform signal for each of the drive elements from the first interference waveform based on operation timings of the plurality of drive elements . a step of acquiring a first interference waveform based on signals from a plurality of drive elements according to light from a first spot comprising the plurality of drive elements in a semiconductor device ; and characterized in that the method further comprises a step of separating a waveform signal for each of the drive elements from the first interference waveform based on operation timings of the plurality of drive elements .
A device for limiting transfer of thermal energy of ski boots ; the ski boot having a toe box portion , a toe end , a sole , and a vamp portion , the device comprising: an upper shell configured to cover a top section of the toe box portion of the ski boot; and a side band integrally connected to the upper shell and further configured to cover a majority of a set of side sections of the toe box portion of the ski boot; wherein the device is comprised of a material that limits the transfer of thermal energy, and wherein the device is configured to limit the transfer of thermal energy from the inside of the ski boot's toe box portion to the outside air; and wherein the device is thickest where the upper shell meets the side band of the device and thins in the direction of the edge of the upper shell that, when positioned on ski boot, is closest to the vamp portion of the ski boot. the ski boot having a toe box portion , a toe end , a sole , and a vamp portion , the device comprising: an upper shell configured to cover a top section of the toe box portion of the ski boot; and a side band integrally connected to the upper shell and further configured to cover a majority of a set of side sections of the toe box portion of the ski boot; wherein the device is comprised of a material that limits the transfer of thermal energy, and wherein the device is configured to limit the transfer of thermal energy from the inside of the ski boot's toe box portion to the outside air; and wherein the device is thickest where the upper shell meets the side band of the device and thins in the direction of the edge of the upper shell that, when positioned on ski boot, is closest to the vamp portion of the ski boot.
A stabilizer adapted to counteract the swinging of a boat characterized in that it comprises: - a fin adapted to be at least partially immersed so as to counteract said roll and defining a compartment inside said fin ; - a hinge adapted to connect said fin to the hull of said boat ; - an engine housed in said compartment ; and - a kinematic chain housed in said compartment and adapted to take the motion from said engine and to control the rotation of said fin with respect to said hull . - a fin adapted to be at least partially immersed so as to counteract said roll and defining a compartment inside said fin ; - a hinge adapted to connect said fin to the hull of said boat ; - an engine housed in said compartment ; and - a kinematic chain housed in said compartment and adapted to take the motion from said engine and to control the rotation of said fin with respect to said hull .
A framework for access provisioning in a physical access control system (PACS) , the framework comprising: a permissions request interface , the permissions request interface configured to permit a user or an administrator to provide a request for a permission to access/revoke access to a resource in the PACS; a permissions recommendation module , the permissions recommendation module in operable communication with the permissions request interface to receive the request, the permissions recommendation module configured to automatically recommend a permission to be assigned to, or removed from, the user based on at least one of an attribute presented by the user, a static permission assigned to other users, and a used permission of other users in response to receiving the request; a permissions validation module in operable communication with the permissions recommendation module, the permission validation module operable to ensure that at least one of the permission to be assigned to or to be removed from the user does not violate an existing access control policy, that the permission to be assigned to the user is sufficient for reaching all permitted resources, and that the permission to be removed from the user denies access to all revoked resources; and an approval workflow identification module operably connected to the permission validation module, the approval workflow identification module configured to identify an approval process required to assign or remove the permission. a permissions request interface , the permissions request interface configured to permit a user or an administrator to provide a request for a permission to access/revoke access to a resource in the PACS; a permissions recommendation module , the permissions recommendation module in operable communication with the permissions request interface to receive the request, the permissions recommendation module configured to automatically recommend a permission to be assigned to, or removed from, the user based on at least one of an attribute presented by the user, a static permission assigned to other users, and a used permission of other users in response to receiving the request; a permissions validation module in operable communication with the permissions recommendation module, the permission validation module operable to ensure that at least one of the permission to be assigned to or to be removed from the user does not violate an existing access control policy, that the permission to be assigned to the user is sufficient for reaching all permitted resources, and that the permission to be removed from the user denies access to all revoked resources; and an approval workflow identification module operably connected to the permission validation module, the approval workflow identification module configured to identify an approval process required to assign or remove the permission.
A dishwasher, comprising: a tub providing a washing space; a sump communicating with the tub through a recovery hole and storing washing water; and a flow channel unit disposed on one surface of the tub to supply washing water to the tub and the sump , wherein the flow channel unit comprises: a water supply flow channel connected to a water supply source (S) and supplied with washing water; a first flow channel connected to the water supply flow channel , supplied with the washing water, and supplying the washing water to the tub ; and a second flow channel connected to the water supply flow channel , supplied with washing water, and supplying the washing water to the sump , wherein the first flow channel and the second flow channel are branched from a branching point of the water supply flow channel , wherein the branching point is formed at the top of the water supply flow channel , and wherein the water supply flow channel is formed to move washing water from a lower side to an upper side, and the first flow channel and the second flow channel are formed to move washing water from the upper side to the lower side. a tub providing a washing space; a sump communicating with the tub through a recovery hole and storing washing water; and a flow channel unit disposed on one surface of the tub to supply washing water to the tub and the sump , wherein the flow channel unit comprises: a water supply flow channel connected to a water supply source (S) and supplied with washing water; a first flow channel connected to the water supply flow channel , supplied with the washing water, and supplying the washing water to the tub ; and a second flow channel connected to the water supply flow channel , supplied with washing water, and supplying the washing water to the sump , a water supply flow channel connected to a water supply source (S) and supplied with washing water; a first flow channel connected to the water supply flow channel , supplied with the washing water, and supplying the washing water to the tub ; and a second flow channel connected to the water supply flow channel , supplied with washing water, and supplying the washing water to the sump , wherein the first flow channel and the second flow channel are branched from a branching point of the water supply flow channel , wherein the branching point is formed at the top of the water supply flow channel , and wherein the water supply flow channel is formed to move washing water from a lower side to an upper side, and the first flow channel and the second flow channel are formed to move washing water from the upper side to the lower side.
A computer-implemented method for using mapping data to detect a slippery road false positive report comprising: receiving a slippery road report from a vehicle, wherein the slippery road report indicates that a slippery road event is detected at a location based on sensor information collected by the vehicle; characterised in that the computer-implemented method further comprises map matching the location of the slippery road report to mapping data to evaluate a proximity of the location to at least one geographic feature that is designated as an area where driver behavior is expected to be at least one cause of the slippery road event, wherein the driver behavior comprises causing the vehicle to accelerate or decelerate; and classifying the slippery road report as a slippery road false positive report based on the evaluation; wherein: the at least one geographic feature is a map feature at which the vehicle is expected to accelerate, to brake, or a combination thereof; and wherein the classifying of the slippery road report as the slippery road false positive report is further based on determining that the proximity of the location to the map feature at which the vehicle is expected to accelerate, to brake, or a combination thereof is less than a threshold distance. receiving a slippery road report from a vehicle, wherein the slippery road report indicates that a slippery road event is detected at a location based on sensor information collected by the vehicle; characterised in that the computer-implemented method further comprises map matching the location of the slippery road report to mapping data to evaluate a proximity of the location to at least one geographic feature that is designated as an area where driver behavior is expected to be at least one cause of the slippery road event, wherein the driver behavior comprises causing the vehicle to accelerate or decelerate; and classifying the slippery road report as a slippery road false positive report based on the evaluation; wherein: the at least one geographic feature is a map feature at which the vehicle is expected to accelerate, to brake, or a combination thereof; and wherein the classifying of the slippery road report as the slippery road false positive report is further based on determining that the proximity of the location to the map feature at which the vehicle is expected to accelerate, to brake, or a combination thereof is less than a threshold distance.
A clip cartridge assembly , comprising: a clip tray configured to be selectively loadable in a channel assembly of a surgical clip applier , the clip tray including a first plurality of distally oriented, deflectable, resilient fingers projecting from a base wall thereof; a cartridge clip pusher bar disposed adjacent the clip tray and slidable relative thereto, the cartridge clip pusher bar including a second plurality of distally oriented, deflectable, resilient fingers projecting from a base wall thereof and each terminating in a distal shoulder and a pusher defining a pair of spaced apart prongs ; and a plurality of surgical clips ("C") interposed between the clip tray and the cartridge clip pusher bar , wherein a surgical clip ("C") is disposed distally of each resilient finger of the clip tray , wherein the distal-most finger of the first plurality of distally oriented, deflectable, resilient fingers has a rectangular configuration configured to engage a backspan or crown of the distal-most clip and nest between the spaced apart prongs; and wherein each remaining finger of the first plurality of distally oriented, deflectable, resilient fingers includes a V-shaped notch formed in a distal end thereof. a clip tray configured to be selectively loadable in a channel assembly of a surgical clip applier , the clip tray including a first plurality of distally oriented, deflectable, resilient fingers projecting from a base wall thereof; a cartridge clip pusher bar disposed adjacent the clip tray and slidable relative thereto, the cartridge clip pusher bar including a second plurality of distally oriented, deflectable, resilient fingers projecting from a base wall thereof and each terminating in a distal shoulder and a pusher defining a pair of spaced apart prongs ; and a plurality of surgical clips ("C") interposed between the clip tray and the cartridge clip pusher bar , wherein a surgical clip ("C") is disposed distally of each resilient finger of the clip tray , wherein the distal-most finger of the first plurality of distally oriented, deflectable, resilient fingers has a rectangular configuration configured to engage a backspan or crown of the distal-most clip and nest between the spaced apart prongs; and wherein each remaining finger of the first plurality of distally oriented, deflectable, resilient fingers includes a V-shaped notch formed in a distal end thereof.
A system for measuring the geometry of a lifting gas enclosure within a pressure-stabilised envelope of an aircraft, namely a non-rigid airship or hybrid air vehicle, that includes at least one ballonet , the system comprising a plurality of sensors configured to be located outside the ballonet but inside the envelope, for measuring the geometry of the enclosure, wherein some of the sensors are arranged to measure the geometry of an internal surface of the pressure-stabilised envelope , and others of the sensors are arranged to measure the geometry of an external surface of the at least one ballonet .
A test stand for testing a test item having a rotatable test item shaft , the test stand comprising: - a drive motor and a shaft driven by the drive motor , a rotational axis of the shaft defining an axial direction (x), - a fixed plate and a bearing support fixedly held in the fixed plate or being part thereof, wherein the shaft is held by one, two or more bearings in the bearing support , the fixed plate having a surface extending in a first radial direction (y) and in a second radial direction (z) perpendicular to the axial direction (x), characterized in that the test stand further comprises - a movable plate having a first surface bearing against the surface of the fixed plate , and a second surface opposite the first surface configured for mounting the test item thereon, the movable plate having a central opening allowing the test item shaft to pass through end engage the shaft , the movable plate being movable in a plane spanned by the radial directions (y, z) relative to the fixed plate , - one, two, three or more actors (17.1 to 17.3) configured to move the movable plate in the plane spanned by the radial directions (y, z), - two or more sensors (19.1 to 19.3) configured to measure a position of the shaft and/or the test item shaft with regard to the radial directions (y, z), a control unit connected to the sensors (19.1 to 19.3) and the actors (17.1 to 17.3) and configured to calculate a position of the test item shaft based on the measurements of the sensors (19.1 to 19.3), to compare it to a set position and to control the actors (17.1 to 17.3) to correct the position of the movable plate to reduce a difference between the calculated position and the set position. - a drive motor and a shaft driven by the drive motor , a rotational axis of the shaft defining an axial direction (x), - a fixed plate and a bearing support fixedly held in the fixed plate or being part thereof, wherein the shaft is held by one, two or more bearings in the bearing support , the fixed plate having a surface extending in a first radial direction (y) and in a second radial direction (z) perpendicular to the axial direction (x), characterized in that the test stand further comprises - a movable plate having a first surface bearing against the surface of the fixed plate , and a second surface opposite the first surface configured for mounting the test item thereon, the movable plate having a central opening allowing the test item shaft to pass through end engage the shaft , the movable plate being movable in a plane spanned by the radial directions (y, z) relative to the fixed plate , - one, two, three or more actors (17.1 to 17.3) configured to move the movable plate in the plane spanned by the radial directions (y, z), - two or more sensors (19.1 to 19.3) configured to measure a position of the shaft and/or the test item shaft with regard to the radial directions (y, z),
A molecular sieve having micromorphology in a football shape and consisting of molecular sieve framework and active elements, wherein the molecular sieve framework comprises silicon element and aluminum element, the active elements comprise copper element and rare earth elements, the rare earth elements are one or more selected from the group consisting of La, Ce, Pr, Nd, Pm, Sm, Eu, Sc and Y; wherein the mass ratio of the silicon element to the aluminum element is 3-9:1, the content of the copper element in the molecular sieve is 1.5-3.2 wt%, and the mass of the rare earth elements is 50 ppm-2 wt% of the molecular sieve framework; wherein the mass of the silicon element is calculated by silicon dioxide, the mass of aluminum element is calculated by aluminum oxide, the mass of copper element is calculated by copper oxide, and the mass of rare earth elements is calculated by rare earth oxides; wherein the molecular sieve is a CHA-type molecular sieve. wherein the mass ratio of the silicon element to the aluminum element is 3-9:1, the content of the copper element in the molecular sieve is 1.5-3.2 wt%, and the mass of the rare earth elements is 50 ppm-2 wt% of the molecular sieve framework; wherein the mass of the silicon element is calculated by silicon dioxide, the mass of aluminum element is calculated by aluminum oxide, the mass of copper element is calculated by copper oxide, and the mass of rare earth elements is calculated by rare earth oxides; wherein the molecular sieve is a CHA-type molecular sieve.
Method for producing a cutting strand segment of a cutting strand of a power-tool parting device, said cutting strand segment comprising at least one cutter carrier element and at least one cutting element , characterized in that, in a first step, the cutting strand segment is punched out of a band material as a single blank, wherein, in a further step, the cutting element is integrally formed on the cutter carrier element in an at least partially set manner relative to an outer surface of the cutter carrier element by embossing, wherein, in at least one step, a transverse securing element is integrally formed on the cutter carrier element by embossing.