mhurhangee/ep-ind-claims huggingface dataset:
A brake control system for an aircraft, comprising: a controller; a tangible, non-transitory memory configured to communicate with the controller, characterised in that the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: determining, by the controller, an aircraft braking power ( P kinetic); determining, by the controller, a braking power of a wheel ( P brake,i); determining, by the controller, a braking power discrepancy of the wheel ( e P,i) using the aircraft braking power and the braking power of the wheel; comparing, by the controller, the braking power discrepancy of the wheel ( e P,i) to a threshold discrepancy value; and modulating, by the controller, a braking pressure applied to the wheel based on the comparing the braking power discrepancy of the wheel ( e P,i) to the threshold discrepancy value; wherein the controller calculates the braking power discrepancy of the wheel ( e P,i) using equation e P, i = 1 N wheel P kinetic − P brake, i, wherein N wheel is a total number of aircraft wheels. a controller; a tangible, non-transitory memory configured to communicate with the controller, characterised in that the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: determining, by the controller, an aircraft braking power ( P kinetic); determining, by the controller, a braking power of a wheel ( P brake,i); determining, by the controller, a braking power discrepancy of the wheel ( e P,i) using the aircraft braking power and the braking power of the wheel; comparing, by the controller, the braking power discrepancy of the wheel ( e P,i) to a threshold discrepancy value; and modulating, by the controller, a braking pressure applied to the wheel based on the comparing the braking power discrepancy of the wheel ( e P,i) to the threshold discrepancy value; determining, by the controller, an aircraft braking power ( P kinetic); determining, by the controller, a braking power of a wheel ( P brake,i); determining, by the controller, a braking power discrepancy of the wheel ( e P,i) using the aircraft braking power and the braking power of the wheel; comparing, by the controller, the braking power discrepancy of the wheel ( e P,i) to a threshold discrepancy value; and modulating, by the controller, a braking pressure applied to the wheel based on the comparing the braking power discrepancy of the wheel ( e P,i) to the threshold discrepancy value;
An electrical housing assembly comprising: a housing base having a first opening and an opposing second opening; and a heat sink positioned over the first opening and having a lip disposed about the periphery of the heat sink, characterized in that: a recessed flange circumscribes the first opening, and a plurality of resilient retention members surround the flange; and the heat sink comprises a shoulder disposed radially inward from the lip, the lip having a plurality of bores corresponding to the plurality of resilient retention members for receiving the plurality of resilient retention members therein, wherein the shoulder engages the flange of the housing base in a secured state. a housing base having a first opening and an opposing second opening; and a heat sink positioned over the first opening and having a lip disposed about the periphery of the heat sink, characterized in that: a recessed flange circumscribes the first opening, and a plurality of resilient retention members surround the flange; and the heat sink comprises a shoulder disposed radially inward from the lip, the lip having a plurality of bores corresponding to the plurality of resilient retention members for receiving the plurality of resilient retention members therein, wherein the shoulder engages the flange of the housing base in a secured state. a recessed flange circumscribes the first opening, and a plurality of resilient retention members surround the flange; and the heat sink comprises a shoulder disposed radially inward from the lip, the lip having a plurality of bores corresponding to the plurality of resilient retention members for receiving the plurality of resilient retention members therein, wherein the shoulder engages the flange of the housing base in a secured state.
A system for wireless power transfer comprising a wireless power transmitter and a wireless power receiver, the wireless power transmitter and wireless power receiver each comprising a magnetically permeable core (1,1') and windings (11, 12), wherein the wireless power transmitter and the wireless power receiver have a range of relative displacements and wherein the magnetically permeable core (1, 1'), of at least one of the wireless power transmitter and wireless power receiver comprises: a base (2,2'); first (3,3') and second (4,4') portions extending away from the base (2,2'); wherein the second portion (4,4') at least partially surrounds the first portion (3,3'); wherein the first portion (3,3') extends further from the base (2,2') than the second portion (4,4') to maintain an effective flux linkage throughout the range of relative displacements of the wireless power receiver from the wireless power transmitter; wherein the windings (11, 12) surround the first portion (3,3') at least partially in a first space between the first portion (3,3') and second portion (4,4'); wherein the windings (11,12) occupy, at least in part, a second space surrounding the first portion (3,3') that extends further than the second portion (4,4') wherein the windings (11, 12) occupy, at least in part, a third space that would be occupied by the second portion (4,4') were the second portion (4,4') to extend the same distance from the base (2,2') as the first portion (3,3). a base (2,2'); first (3,3') and second (4,4') portions extending away from the base (2,2'); wherein the second portion (4,4') at least partially surrounds the first portion (3,3'); wherein the first portion (3,3') extends further from the base (2,2') than the second portion (4,4') to maintain an effective flux linkage throughout the range of relative displacements of the wireless power receiver from the wireless power transmitter; wherein the windings (11, 12) surround the first portion (3,3') at least partially in a first space between the first portion (3,3') and second portion (4,4'); wherein the windings (11,12) occupy, at least in part, a second space surrounding the first portion (3,3') that extends further than the second portion (4,4') wherein the windings (11, 12) occupy, at least in part, a third space that would be occupied by the second portion (4,4') were the second portion (4,4') to extend the same distance from the base (2,2') as the first portion (3,3).
A connector which is applicable to a bag for containing liquid solutions for medical or nutritional use, comprising a coupling part for coupling to an end of a small tube projecting from the bag, said coupling part being crossed by an axial hole closed by a pierceable inner membrane, and a closing part placed to close the end of said axial hole and detachable from said coupling part, wherein said coupling part comprises two coaxial tubes (12, 13) which define an annular inner space therebetween, into which said end of the small tube is forcibly insertable by axial pressure, characterized in that said annular inner space extends axially with a constant section along the entire length of said annular space, and said coupling part and said closing part form a single integral body provided with a frangible weakened section for the detachment of said closing part from said coupling part.
A planar cathode, comprising: a first substrate; and a laminate comprising a foil mounted to a second substrate, the foil and the second substrate having matching thermal coefficients of expansion, the laminate being attached to the first substrate, wherein the foil is shaped into a predetermined geometric pattern, the foil having performance parameters that are selected from a group including area, voltage, current, power, and electron emission; the predetermined geometric pattern is a spiral cut on the foil; the foil is selected from a group consisting of tungsten rhenium, thoriated tungsten, tungsten alloys, hafnium, and tantalum based materials having a work function less than 6 eV; and the predetermined geometric pattern is suspended over an opening in the second substrate such that there is thermal isolation between the predetermined geometric pattern and the second substrate; characterised by the second substrate further including alignment features, wherein the alignment features are selected from a group including holes, mechanical features, and optical features; the spiral being centered between the alignment features; the laminate, comprising the foil and the second substrate, mounted to the first substrate via the alignment features; the alignment features being configured to provide electrical connections and to mechanically align the cathode with electron optical components. a first substrate; and a laminate comprising a foil mounted to a second substrate, the foil and the second substrate having matching thermal coefficients of expansion, the laminate being attached to the first substrate, wherein the foil is shaped into a predetermined geometric pattern, the foil having performance parameters that are selected from a group including area, voltage, current, power, and electron emission; the predetermined geometric pattern is a spiral cut on the foil; the foil is selected from a group consisting of tungsten rhenium, thoriated tungsten, tungsten alloys, hafnium, and tantalum based materials having a work function less than 6 eV; and the predetermined geometric pattern is suspended over an opening in the second substrate such that there is thermal isolation between the predetermined geometric pattern and the second substrate; characterised by the second substrate further including alignment features, wherein the alignment features are selected from a group including holes, mechanical features, and optical features; the spiral being centered between the alignment features; the laminate, comprising the foil and the second substrate, mounted to the first substrate via the alignment features; the alignment features being configured to provide electrical connections and to mechanically align the cathode with electron optical components.
An animal training aid or toy comprising: - a scented material; - a housing comprising a central bore that extends diametrically through the housing from an exterior surface at one area of the housing to the exterior surface at another area of the housing and an interior cavity configured to contain the scented material; - one or more vents on the external surface of the housing or in the form of a gap between two parts of the aid or toy, each vent in communication with the interior cavity so that a scent from the scented material can be released from the interior cavity to the exterior of the housing; the animal training aid or toy being characterised in that: - the scented material is a solid in the form of a disc having microencapsulated scented liquid or oil on the surface of the disc; - the animal training aid or toy comprises an activator for controlling the amount of scent released from the scented material, the activator comprising one or more ribs (76, 128) configured to disrupt a surface of the scented material to thereby activate the scented material so that a volatile scent is released therefrom, - wherein the activator is operable to control the amount of scent released from the scented material by contacting the surface of the solid scented material to disrupt the surface thereof and allow volatile scent to be released or to increase the amount of volatile scent released by further disrupting the surface of the scented material; and - wherein the activator is operable from the external surface of the housing. - a scented material; - a housing comprising a central bore that extends diametrically through the housing from an exterior surface at one area of the housing to the exterior surface at another area of the housing and an interior cavity configured to contain the scented material; - one or more vents on the external surface of the housing or in the form of a gap between two parts of the aid or toy, each vent in communication with the interior cavity so that a scent from the scented material can be released from the interior cavity to the exterior of the housing; - the scented material is a solid in the form of a disc having microencapsulated scented liquid or oil on the surface of the disc; - the animal training aid or toy comprises an activator for controlling the amount of scent released from the scented material, the activator comprising one or more ribs (76, 128) configured to disrupt a surface of the scented material to thereby activate the scented material so that a volatile scent is released therefrom, - wherein the activator is operable to control the amount of scent released from the scented material by contacting the surface of the solid scented material to disrupt the surface thereof and allow volatile scent to be released or to increase the amount of volatile scent released by further disrupting the surface of the scented material; and - wherein the activator is operable from the external surface of the housing.
A sensor, in particular an optoelectronic sensor, comprising a housing, which has a main housing part and a connection part with a connection (18, 20, 22), wherein the connection part is movably attached at the main housing part in such a way that the connection (18, 20, 22) is selectively accessible from two sides of the housing, characterized in that the connection part has at least three connections (18, 20, 22) arranged in a row and is movable at the main housing part in such a way that the at least three connections (18, 20, 22) are selectively accessible from two sides of the housing, in that the connection part has a common feedthrough in order to guide lines therein from the at least three connections (18, 20, 22) into the interior of the housing and in that the common feedthrough is designed as a double-walled cylinder having a first chamber in the interior and further chambers (30, 32) as sections of the concentrically surrounding region between the two lateral surfaces of the double cylinder, the sections being separated from one another by a wall (34a-b).
A window comprising: - a transparent or semi-transparent panel comprising a perimetral edge portion and - a frame, which comprises a plurality of framework elements (11, 12) arranged so as to form the perimeter of an opening closed by said panel; said framework elements defining a seat, which is engaged by said perimetral edge portion and is defined by: - a bottom surface spaced from said perimetral edge portion by a gap, and - a first and a second shoulder (38,39) transverse to said bottom surface and coupled directly or indirectly to respective lateral faces (23,24) of said perimetral edge portion; said framework elements (11,12) comprising respective section elements comprising foamed polymer material which defines at least said bottom surface; said panel comprising: - two sheets (17,18), parallel to and spaced from one another so as to form an air space between one another, and - a spacer element arranged between said sheets (17,18) along said perimetral edge portion; said gap being defined, on one side, by said bottom surface and, on the other side, by respective end faces (28,29) of the sheets (17,18) and by an outer face of said spacer element characterized in that said gap is completely engaged by an adhesive sealant which fixes the foamed polymer material of said bottom surface directly to said end faces (28,29) and outer face. - a transparent or semi-transparent panel comprising a perimetral edge portion and - a frame, which comprises a plurality of framework elements (11, 12) arranged so as to form the perimeter of an opening closed by said panel; said framework elements defining a seat, which is engaged by said perimetral edge portion and is defined by: - a bottom surface spaced from said perimetral edge portion by a gap, and - a first and a second shoulder (38,39) transverse to said bottom surface and coupled directly or indirectly to respective lateral faces (23,24) of said perimetral edge portion; - a bottom surface spaced from said perimetral edge portion by a gap, and - a first and a second shoulder (38,39) transverse to said bottom surface and coupled directly or indirectly to respective lateral faces (23,24) of said perimetral edge portion; said framework elements (11,12) comprising respective section elements comprising foamed polymer material which defines at least said bottom surface; said panel comprising: - two sheets (17,18), parallel to and spaced from one another so as to form an air space between one another, and - a spacer element arranged between said sheets (17,18) along said perimetral edge portion; - two sheets (17,18), parallel to and spaced from one another so as to form an air space between one another, and - a spacer element arranged between said sheets (17,18) along said perimetral edge portion; said gap being defined, on one side, by said bottom surface and, on the other side, by respective end faces (28,29) of the sheets (17,18) and by an outer face of said spacer element characterized in that said gap is completely engaged by an adhesive sealant which fixes the foamed polymer material of said bottom surface directly to said end faces (28,29) and outer face.
Structure for mounting, on a building wall, at least one panel-supporting assembly (50, 80), said assembly (50, 80) consisting of a rectangular frame, characterised in that it comprises a framework consisting of at least two uprights and at least two crossbars, assembled so as to form at least one rectangular chassis adapted to receive said assembly and means for fixing at least one assembly to the framework, each upright having a central core bordered by two lateral wings (32, 33) comprising notches (38, 39) receiving the crossbars, each crossbar having a central core and lateral wings (41, 42) comprising notches (43, 44) which come opposite the uprights at the intersections between the crossbars and the uprights, so that the wings (32, 33, 41, 42) of the uprights and crossbars, which extend at the internal periphery of the rectangular chassis, form a projecting border onto which said assembly can fit.
A surgical hub configured to communicate with a surgical instrument, the surgical hub comprising: a processor; and a memory coupled to the processor, the memory storing instructions executable by the processor to: receive a first data set associated with a surgical procedure, wherein the first data set is generated at a first time; receive a second data set associated with the efficacy of the surgical procedure, wherein the second data set is generated at a second time, wherein the second time is separate and distinct from the first time; anonymize the first and second data sets by removing information that identifies a patient, a surgery, or a scheduled time of the surgery; and store the first and second anonymized data sets to generate a data pair grouped by surgery, and characterized in that the first data set is a force-to-close curve and force-to-fire curve characterizing the firing of a surgical stapler device, and the second data set is an image suitable for inspecting seals along staple lines (4180a, 4180b, 4182a) and for visualizing a bleeding of any defective seals, wherein the image is provided by a laser Doppler. a processor; and a memory coupled to the processor, the memory storing instructions executable by the processor to: receive a first data set associated with a surgical procedure, wherein the first data set is generated at a first time; receive a second data set associated with the efficacy of the surgical procedure, wherein the second data set is generated at a second time, wherein the second time is separate and distinct from the first time; anonymize the first and second data sets by removing information that identifies a patient, a surgery, or a scheduled time of the surgery; and store the first and second anonymized data sets to generate a data pair grouped by surgery, and receive a first data set associated with a surgical procedure, wherein the first data set is generated at a first time; receive a second data set associated with the efficacy of the surgical procedure, wherein the second data set is generated at a second time, wherein the second time is separate and distinct from the first time; anonymize the first and second data sets by removing information that identifies a patient, a surgery, or a scheduled time of the surgery; and store the first and second anonymized data sets to generate a data pair grouped by surgery, and characterized in that the first data set is a force-to-close curve and force-to-fire curve characterizing the firing of a surgical stapler device, and the second data set is an image suitable for inspecting seals along staple lines (4180a, 4180b, 4182a) and for visualizing a bleeding of any defective seals, wherein the image is provided by a laser Doppler.
A method for addressing potential interference in a wireless communication system including at least a first network, a second network and a third network, the method comprising: receiving, by the third network, information indicating a first pattern, the first pattern indicating a first set of time periods during which data transmissions on a communication channel in the second network is limited while the data transmissions on a communication channel in the first network is scheduled; obtaining, by the third network, a current load value in the third network; and scheduling, by the third network, data transmissions on a communication channel in the third network based on the first pattern if the current load value is lower than a pre-determined load threshold value.