mhurhangee/patent-ind-claim-en huggingface dataset:
An asymmetric inlet particle separator for a gas turbine engine , comprising: an inlet having a first cross-sectional shape; a duct downstream of the inlet, the duct including a bend upstream from a splitter , a scavenge branch and an engine airflow branch , the splitter outside of a line of sight from the inlet and the splitter separates the scavenge branch from the engine airflow branch; and an annulus downstream of the engine airflow branch configured to be coupled to the gas turbine engine, the annulus having a second cross-sectional shape, and the engine airflow branch transitions from the first cross-sectional shape to the second cross-sectional shape, wherein the annulus defines an annulus centerline (CA), and at least the inlet is offset from and asymmetric relative to the annulus centerline and does not surround the annulus centerline, wherein the first cross-sectional shape is rectangular, and the second cross-sectional shape is annular, and wherein the engine air flow branch transitions to the second annular cross-section shape downstream from the splitter and downstream from the scavenge branch. an inlet having a first cross-sectional shape; a duct downstream of the inlet, the duct including a bend upstream from a splitter , a scavenge branch and an engine airflow branch , the splitter outside of a line of sight from the inlet and the splitter separates the scavenge branch from the engine airflow branch; and an annulus downstream of the engine airflow branch configured to be coupled to the gas turbine engine, the annulus having a second cross-sectional shape, and the engine airflow branch transitions from the first cross-sectional shape to the second cross-sectional shape, wherein the annulus defines an annulus centerline (CA), and at least the inlet is offset from and asymmetric relative to the annulus centerline and does not surround the annulus centerline, wherein the first cross-sectional shape is rectangular, and the second cross-sectional shape is annular, and wherein the engine air flow branch transitions to the second annular cross-section shape downstream from the splitter and downstream from the scavenge branch.
A remote monitoring system for lifts of various types, comprising data transmission means , designed to transfer signals and commands from and to the lifts , and information terminals , designed to interact with the data transmission means , in such a way as to implement remote monitoring and control of said lifts ; said remote monitoring system comprising at least universal interface devices , each of said universal interface devices being designed to dialogue with any type of lift and with the data transmission means , said universal interface device being characterised in that it comprises at least data processing means , and at least a software - hardware printed circuit board , designed to convert the in-out signals of at least one lift according to parameters compatible with the data processing means , wherein the printed circuit board comprises a plurality of inputs , designed to receive voltage signals from the lifts , and a plurality of outputs , designed to transmit voltage signals to the data processing means .
A system for determining dimensions of an object , the system comprising: an imaging system that includes: an imaging sensor ; and a lens arrangement that includes a lens and defines an optical axis , a field-of-view that at least partly includes the object, and a sensor-lens distance between the imaging sensor and the lens ; and a processor device configured to: determine an object-imaging distance as a distance between the object and the lens arrangement based upon retrieval from a look-up table or measurement by a distance sensor; determine an axis angle as an angle of the optical axis relative to a reference frame based upon retrieval from a look-up table or measurement by an angular measurement sensor; acquire an image of the object using the imaging sensor ; identify one or more features of the object within the image; and determine one or more of the dimensions of the object based upon at least the object-imaging distance , the axis angle , and the one or more identified features of the object. an imaging system that includes: an imaging sensor ; and a lens arrangement that includes a lens and defines an optical axis , a field-of-view that at least partly includes the object, and a sensor-lens distance between the imaging sensor and the lens ; and an imaging sensor ; and a lens arrangement that includes a lens and defines an optical axis , a field-of-view that at least partly includes the object, and a sensor-lens distance between the imaging sensor and the lens ; and a processor device configured to: determine an object-imaging distance as a distance between the object and the lens arrangement based upon retrieval from a look-up table or measurement by a distance sensor; determine an axis angle as an angle of the optical axis relative to a reference frame based upon retrieval from a look-up table or measurement by an angular measurement sensor; acquire an image of the object using the imaging sensor ; identify one or more features of the object within the image; and determine one or more of the dimensions of the object based upon at least the object-imaging distance , the axis angle , and the one or more identified features of the object. determine an object-imaging distance as a distance between the object and the lens arrangement based upon retrieval from a look-up table or measurement by a distance sensor; determine an axis angle as an angle of the optical axis relative to a reference frame based upon retrieval from a look-up table or measurement by an angular measurement sensor; acquire an image of the object using the imaging sensor ; identify one or more features of the object within the image; and determine one or more of the dimensions of the object based upon at least the object-imaging distance , the axis angle , and the one or more identified features of the object.
A data processing method, comprising: receiving , by an aggregation node , first non-access stratum messages of different radio access technology, RAT, types sent by user equipments , UEs, wherein the aggregation node comprises at least two types of interfaces, and each type of interface is used to receive first non-access stratum messages of one RAT type; converting , by the aggregation node , the first non-access stratum messages in each case into a respective non-access stratum message in a first format based on the RAT type of the corresponding first non-access stratum message, wherein the first format is a non-access stratum message transmission format supported between the aggregation node and a core-network control plane entity , the aggregation node , instead of the core-network control plane , implementing a function of parsing the first non-access stratum messages based on the RAT types; and sending , by the aggregation node , the non-access stratum messages in the first format to the core-network control plane entity . receiving , by an aggregation node , first non-access stratum messages of different radio access technology, RAT, types sent by user equipments , UEs, wherein the aggregation node comprises at least two types of interfaces, and each type of interface is used to receive first non-access stratum messages of one RAT type; converting , by the aggregation node , the first non-access stratum messages in each case into a respective non-access stratum message in a first format based on the RAT type of the corresponding first non-access stratum message, wherein the first format is a non-access stratum message transmission format supported between the aggregation node and a core-network control plane entity , the aggregation node , instead of the core-network control plane , implementing a function of parsing the first non-access stratum messages based on the RAT types; and sending , by the aggregation node , the non-access stratum messages in the first format to the core-network control plane entity .
A wireless communication system comprising: a first wireless station including a plurality of antenna elements (2-1, 2-N), transmission units corresponding to the plurality of antenna elements, and a transmission directivity control unit that controls transmission directivity of the plurality of antenna elements; and a plurality of second wireless stations (3-1, 3-2, 3-3) each including a reception power measurement unit that measures a reception power, wherein the transmission directivity control unit of the first wireless station determines the transmission directivity of each of the plurality of antenna elements so that a signal does not reach a particular second wireless station among the plurality of second wireless stations, the transmission units generate wireless signals using the transmission directivity, the plurality of antenna elements transmit the generated wireless signals, and the reception power measurement unit of the particular second wireless station measures the reception power in a period that is set so that a signal does not reach the particular second wireless station, and detects the presence or absence of interference, the wireless communication system being characterized in that the transmission directivity control unit periodically switches the particular second wireless station. a first wireless station including a plurality of antenna elements (2-1, 2-N), transmission units corresponding to the plurality of antenna elements, and a transmission directivity control unit that controls transmission directivity of the plurality of antenna elements; and a plurality of second wireless stations (3-1, 3-2, 3-3) each including a reception power measurement unit that measures a reception power, wherein the transmission directivity control unit of the first wireless station determines the transmission directivity of each of the plurality of antenna elements so that a signal does not reach a particular second wireless station among the plurality of second wireless stations, the transmission units generate wireless signals using the transmission directivity, the plurality of antenna elements transmit the generated wireless signals, and the reception power measurement unit of the particular second wireless station measures the reception power in a period that is set so that a signal does not reach the particular second wireless station, and detects the presence or absence of interference, the wireless communication system being characterized in that the transmission directivity control unit periodically switches the particular second wireless station.
An apparatus comprising: a housing ; a dividing wall disposed in the housing to separate the housing into an inside portion and an outside portion ; an opening formed in the dividing wall , the opening defining a perimeter; a frame mounted around the perimeter of the opening formed in the dividing wall ; the frame including a raised portion relative to the dividing wall ; a gasket mounted around the perimeter of the opening formed in the dividing wall ; a shutter flap pivotally mounted adjacent to the opening through at least one hinge mounted to a top edge of the shutter flap and adjacent to a top edge of the frame ; one or more weight elements attached to the shutter flap , the one or more weight elements selected to cause the shutter flap , to open at a predetermined pressure at the inside portion , wherein the dividing wall is disposed at an angle relative to a horizontal reference; wherein the apparatus is characterized in that the gasket is mounted to the raised portion of the frame ; and the shutter flap is configured to pivot between a closed position in which the shutter flap rests on the gasket mounted to the raised portion of the frame and blocks air from flowing from the inside portion of the housing to the outside portion of the housing , and an open position in which the shutter flap is lifted away from the opening in the dividing wall permitting air to flow from the inside portion of the housing to the outside portion of the housing through the opening . a housing ; a dividing wall disposed in the housing to separate the housing into an inside portion and an outside portion ; an opening formed in the dividing wall , the opening defining a perimeter; a frame mounted around the perimeter of the opening formed in the dividing wall ; the frame including a raised portion relative to the dividing wall ; a gasket mounted around the perimeter of the opening formed in the dividing wall ; a shutter flap pivotally mounted adjacent to the opening through at least one hinge mounted to a top edge of the shutter flap and adjacent to a top edge of the frame ; one or more weight elements attached to the shutter flap , the one or more weight elements selected to cause the shutter flap , to open at a predetermined pressure at the inside portion , wherein the dividing wall is disposed at an angle relative to a horizontal reference; wherein the apparatus is characterized in that the gasket is mounted to the raised portion of the frame ; and the shutter flap is configured to pivot between a closed position in which the shutter flap rests on the gasket mounted to the raised portion of the frame and blocks air from flowing from the inside portion of the housing to the outside portion of the housing , and an open position in which the shutter flap is lifted away from the opening in the dividing wall permitting air to flow from the inside portion of the housing to the outside portion of the housing through the opening .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a synchronization signal block, SSB, including at least one synchronization signal and a physical broadcast channel, PBCH; identifying a subcarrier offset between the SSB and a resource block, RB, grid based on system information on the PBCH, wherein the SSB spanning a plurality of RBs in the RB grid; and identifying a location of the SSB based on the subcarrier offset, wherein the subcarrier offset is defined by a number of subcarriers from a lowest subcarrier in a lowest RB among a plurality of RBs overlapping with the SSB to a lowest subcarrier in the SSB. receiving, from a base station, a synchronization signal block, SSB, including at least one synchronization signal and a physical broadcast channel, PBCH; identifying a subcarrier offset between the SSB and a resource block, RB, grid based on system information on the PBCH, wherein the SSB spanning a plurality of RBs in the RB grid; and identifying a location of the SSB based on the subcarrier offset, wherein the subcarrier offset is defined by a number of subcarriers from a lowest subcarrier in a lowest RB among a plurality of RBs overlapping with the SSB to a lowest subcarrier in the SSB.
A patient support for supporting a patient, comprising: at least one patient top for supporting a patient's body above the floor, the at least one patient top extending longitudinally for a length, and at least one end support coupled with the patient top to support the patient top for selective adjustment of a longitudinal angle of the at least one patient top relative to a defined pivot point, wherein the defined pivot point is selectively assignable along the length of the at least one patient top , the apparatus further comprising a pivot interface for receiving user assignment of the defined pivot point along the length of the patient top , characterized in that the pivot interface includes at least one sensor arranged to receive user activation to assign the defined pivot point along the length of the patient top , wherein the at least one sensor includes a potentiometer extending along the length of the patient top for receiving user contact at a desired position to assign the defined pivot point along the length of the patient top . at least one patient top for supporting a patient's body above the floor, the at least one patient top extending longitudinally for a length, and at least one end support coupled with the patient top to support the patient top for selective adjustment of a longitudinal angle of the at least one patient top relative to a defined pivot point, wherein the defined pivot point is selectively assignable along the length of the at least one patient top , the apparatus further comprising a pivot interface for receiving user assignment of the defined pivot point along the length of the patient top , characterized in that the pivot interface includes at least one sensor arranged to receive user activation to assign the defined pivot point along the length of the patient top , wherein the at least one sensor includes a potentiometer extending along the length of the patient top for receiving user contact at a desired position to assign the defined pivot point along the length of the patient top .
A construction for transporting goods for mounting on a chassis formed as a cuboid structure, comprising interconnected vertical posts and horizontal strips , a horizontal floor and a roof , and side walls, a front and a rear wall, wherein the horizontal floor is connected to two vertical rear posts , between which the rear wall is attached, and to two vertical front posts , between which the front wall is mounted, wherein horizontal roof strips , which are fastened to the roof , being fastened to these said rear and front posts , in addition at least a vertical centre strip is located on each side of the construction, which connects the roof strips with the floor , to which the horizontal centre strips are fastended, characterized in that the vertical centre strips are rectangular flat bars, which are equipped at the head end with rollers for fastening to the roof strip and at the foot end with hooks for fastening to the floor , and on lateral surfaces having recesses for fastening C-connecting fittings for attaching the horizontal centre strips , wherein the horizontal centre strips being in the form of rectangular flat bars, which have recesses on lateral surfaces for fastening the connecting pieces , the rear posts are made of formed parts of rectangular cross-section which have inner recesses , at the foot end the rear posts are rounded and have on one side an outer recess for fastening the rear wall , the vertical front posts are made of formed parts of angular cross-section having rounded corners and internal recesses , which are provided at the foot end with a recess for attaching the front wall , the roof strips are made of formed parts having outer projections, these are provided at one end provided with an open projection for insertion of the rollers of the centre strips and at one end comprising projections for fastening the roof .
A zirconium nitride powder coated with alumina, wherein a volume resistivity is 1 × 10 6 Ω·cm or higher, an coating amount with alumina is 1.5% by mass to 9% by mass with respect to 100% by mass of the zirconium nitride, and an isoelectric point of the zirconium nitride is 5.7 or higher.
Cell (1A; 1B) for storing a set of products , in particular a set of products that is arranged on at least one storage support , more particularly on at least one storage support of the pallet, trolley, or rack type, said cell comprising two side walls (10; 11) which face each other and are spaced apart from each other and an upper wall that defines, together with the two side walls, a housing for the set of products , the housing comprising an opening on the front face for the introduction and/or removal of the set of products, said cell comprising ventilation means suitable for creating a rear-to-front air flow (A) that circulates in the housing from the rear to the front of the housing or for creating a front-to-rear air flow (B) that circulates in the housing from the front to the rear of the housing, and said cell comprising an inflatable sealing device (7A; 7B) and inflation means which allow the inflatable sealing device to be inflated, the inflatable sealing device (7A; 7B) comprising an upper inflatable sealing element (70A; 70B) and at least one side inflatable sealing element (71A; 71B) which directly or indirectly allow, in the inflated state, a sealing between the upper wall of the cell and at least one part of the top face of a set of products positioned in the cell and a sealing between at least one side wall (10 or 11) of the cell and at least one part of one of the side faces (2c or 2d) of a set of products positioned in the cell, characterized in that the upper inflatable sealing element (70A; 70B) and the side inflatable sealing element (71A; 71B) delimit a single inflatable chamber (70a/71a) even in the absence of a set of products in the storage cell, and in that the inflation means allow the upper inflatable sealing element (70A; 70B), and the side inflatable sealing element (71A; 71B) to be inflated, even in the absence of a set of products in the storage cell, by blowing air into this single inflatable chamber (70a/71a).
A computer-implemented method for tag networking, the method comprising: determining that one or more network devices in a computer network are configured to handle a tag ; receiving , at the one or more network devices, a packet of a traffic flow, wherein the packet includes the tag that is located among data of the packet ; reading the packet to identify the tag that is located among the data of the packet ; performing a tag lookup to find logic that is associated with the tag ; and applying the logic to the packet in response to performing the tag lookup; wherein the logic includes instructions for carrying out a service of the network. determining that one or more network devices in a computer network are configured to handle a tag ; receiving , at the one or more network devices, a packet of a traffic flow, wherein the packet includes the tag that is located among data of the packet ; reading the packet to identify the tag that is located among the data of the packet ; performing a tag lookup to find logic that is associated with the tag ; and applying the logic to the packet in response to performing the tag lookup; wherein the logic includes instructions for carrying out a service of the network.
A hull cleaning system comprising: a below-waterline hull cleaning head arranged to clean an underwater portion of a hull in-situ; and a hub facility remotely located relative to the hull cleaning head ; a location determining system including a vessel location device arranged to produce vessel positional information indicative of the location of the vessel; and the location determining system arranged to produce location information indicative of the location of the hull cleaning head relative to the hull as the hull cleaning head moves relative to the hull , and wherein the location information indicative of the location of the hull cleaning head relative to the hull and the vessel positional information are transferred to the hub facility , which operates as a central server, to produce a hull map indicative of clean portions of the hull that have been cleaned by the hull cleaning head and fouled portions of the hull that have not yet been cleaned by the hull cleaning head , the system arranged to store said hull map to the hub facility ; the system arranged to provide on-line access to the hull map stored at the hub facility , the hull map usable by a hull cleaning head to enable the hull cleaning head to continue cleaning the hull at a subsequent time using the stored hull map, by cleaning portions of the hull that are identified in the hull map as fouled portions of the hull that have not yet been cleaned. .