mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for wireless power transfer in an electronic device comprising: a plurality of electrically conductive segments (604, 704, 804, 904, 1004, 1104) that constitute a portion of a housing (600, 700, 800, 900, 1000, 1100) configured to enclose electronic components of the electronic device, the plurality of electrically conductive segments separated from each other by a plurality of slots (612, 712, 812, 912, 1012, 1112) providing physical separation between the plurality of electrically conductive segments; an electrically conductive coil (622, 722, 822, 922, 1022, 1122) arranged relative to the plurality of electrically conductive segments; and a power receiving element comprising the electrically conductive coil and the plurality of electrically conductive segments, and configured to couple to an externally generated magnetic field to wirelessly receive power. a plurality of electrically conductive segments (604, 704, 804, 904, 1004, 1104) that constitute a portion of a housing (600, 700, 800, 900, 1000, 1100) configured to enclose electronic components of the electronic device, the plurality of electrically conductive segments separated from each other by a plurality of slots (612, 712, 812, 912, 1012, 1112) providing physical separation between the plurality of electrically conductive segments; an electrically conductive coil (622, 722, 822, 922, 1022, 1122) arranged relative to the plurality of electrically conductive segments; and a power receiving element comprising the electrically conductive coil and the plurality of electrically conductive segments, and configured to couple to an externally generated magnetic field to wirelessly receive power.
A method, implemented in a network comprising a plurality of nodes including at least a first node and a second node, the method comprising: receiving, at the first node, a packet including a first path signature, wherein a path signature represents a unique path that a packet has traversed through the network; generating, by the first node, a second path signature by inputting the first path signature and an identifier of the first node into a hash function; replacing, by the first node, the first path signature with the second path signature in the packet; and forwarding, by the first node to the second node, the packet including the second path signature. receiving, at the first node, a packet including a first path signature, wherein a path signature represents a unique path that a packet has traversed through the network; generating, by the first node, a second path signature by inputting the first path signature and an identifier of the first node into a hash function; replacing, by the first node, the first path signature with the second path signature in the packet; and forwarding, by the first node to the second node, the packet including the second path signature.
An installation for producing domestic hot water comprising at least: - a DHW heating exchanger and an energy recovery exchanger, - a first primary circuit including a hot water production device allowing to circulate hot water coming from the latter in the primary part of said DHW heating exchanger, - a second primary circuit allowing to circulate hot water coming from an energy recovery loop towards the primary part of said energy recovery exchanger, and to loop thereon, - a secondary circuit including a DHW loop and a cold water inlet, the water coming from the latter passing into the secondary part of said energy recovery exchanger, via a first branch of said secondary circuit, then into the secondary part of the DHW heating exchanger, before being distributed in said DHW loop to a distribution point, - a regulation configured to allow said energy recovery exchanger to heat the DHW loop and/or to preheat water coming from the cold water inlet, and - a recycling module connected between an area of the DHW loop located downstream of said distribution point, called DHW outlet, and said first branch, and comprising a recirculation pump allowing to take part of the DHW from the DHW outlet and to necessarily circulate it in the secondary part of said energy recovery exchanger then in the secondary part of the DHW heating exchanger, said installation being characterised in that the regulation and the second primary circuit are configured so that the hot water coming from the energy recovery loop and entering the primary part of said energy recovery exchanger is at a temperature strictly higher than that of the DHW outlet. - a DHW heating exchanger and an energy recovery exchanger, - a first primary circuit including a hot water production device allowing to circulate hot water coming from the latter in the primary part of said DHW heating exchanger, - a second primary circuit allowing to circulate hot water coming from an energy recovery loop towards the primary part of said energy recovery exchanger, and to loop thereon, - a secondary circuit including a DHW loop and a cold water inlet, the water coming from the latter passing into the secondary part of said energy recovery exchanger, via a first branch of said secondary circuit, then into the secondary part of the DHW heating exchanger, before being distributed in said DHW loop to a distribution point, - a regulation configured to allow said energy recovery exchanger to heat the DHW loop and/or to preheat water coming from the cold water inlet, and - a recycling module connected between an area of the DHW loop located downstream of said distribution point, called DHW outlet, and said first branch, and comprising a recirculation pump allowing to take part of the DHW from the DHW outlet and to necessarily circulate it in the secondary part of said energy recovery exchanger then in the secondary part of the DHW heating exchanger,
A valve (400, 500, 600, 700) comprising: a valve body (430, 530, 630, 730) including a valve cavity and first and second fluid ports (436, 438, 536, 538, 636, 638, 736, 738) extending to the valve cavity; a seat carrier subassembly (460, 560, 660, 760) installed in the valve cavity, the seat carrier subassembly comprising a seat carrier body (461, 561, 661, 761) including a first annular inner wall (465, 565, 665, 765) defining a first flow aperture (466, 566, 666, 766) aligned with the first fluid port and a valve seat (440, 540, 640, 740) disposed in an annular recess (464, 564, 664, 764) surrounding the first annular inner wall, and a second annular inner wall defining a second flow aperture (468, 568, 668, 768) aligned with the second fluid port; a valve element (426, 526, 626, 726) disposed within the valve cavity and movable between a closed position sealing against the valve seat and an open position permitting fluid flow across the valve seat between the first and second flow apertures; and an orifice restriction (445, 545, 645, 745) having an outer periphery seated against an interior portion of one of the first annular inner wall and the second annular inner wall. a valve body (430, 530, 630, 730) including a valve cavity and first and second fluid ports (436, 438, 536, 538, 636, 638, 736, 738) extending to the valve cavity; a seat carrier subassembly (460, 560, 660, 760) installed in the valve cavity, the seat carrier subassembly comprising a seat carrier body (461, 561, 661, 761) including a first annular inner wall (465, 565, 665, 765) defining a first flow aperture (466, 566, 666, 766) aligned with the first fluid port and a valve seat (440, 540, 640, 740) disposed in an annular recess (464, 564, 664, 764) surrounding the first annular inner wall, and a second annular inner wall defining a second flow aperture (468, 568, 668, 768) aligned with the second fluid port; a valve element (426, 526, 626, 726) disposed within the valve cavity and movable between a closed position sealing against the valve seat and an open position permitting fluid flow across the valve seat between the first and second flow apertures; and an orifice restriction (445, 545, 645, 745) having an outer periphery seated against an interior portion of one of the first annular inner wall and the second annular inner wall.
A surfing device comprising at least one fluid projecting means and at least one fluid projecting structure for supporting and positioning said fluid projecting means, wherein said fluid projecting structure is arranged for supporting said fluid projecting means at one or more fluid projecting positions, a surface positioned such that said fluid is projected from said plurality of fluid projecting positions away from said surface and said fluid projecting means is arranged to project fluid from said one or more positions to enable a person on a surf board to surf via said projected fluid upon a surfing surface that is created via interaction by the underneath surface of said surf board and said projected fluid without making any significant contact with the surface, the surfing surface being positioned relative to each of said plurality of fluid projecting positions a distance therefrom in a direction of projection of said fluid, characterized in that said surface further comprises fluid relief means arranged for removing excess fluid from surface.
A method comprising: receiving, by a receiver, a video stream; receiving, by the receiver, transmitter metrics corresponding to the video stream, wherein receiving the transmitter metrics comprises: receiving the transmitter metrics on a per video segment basis of the video stream, and extracting the transmitter metrics from the received video stream, wherein the transmitter metrics comprise: a measure of compressed quality of a video segment metrics, and a measure of quality degradation due to packet losses as a function of packet loss rate and burstiness; determining, by the receiver, receiver metrics for the video stream received at the receiver; and determining, by the receiver, a quality score based on the received transmitter metrics and the determined receiver metrics. receiving, by a receiver, a video stream; receiving, by the receiver, transmitter metrics corresponding to the video stream, wherein receiving the transmitter metrics comprises: receiving the transmitter metrics on a per video segment basis of the video stream, and extracting the transmitter metrics from the received video stream, wherein the transmitter metrics comprise: a measure of compressed quality of a video segment metrics, and a measure of quality degradation due to packet losses as a function of packet loss rate and burstiness; wherein receiving the transmitter metrics comprises: receiving the transmitter metrics on a per video segment basis of the video stream, and extracting the transmitter metrics from the received video stream, wherein the transmitter metrics comprise: a measure of compressed quality of a video segment metrics, and a measure of quality degradation due to packet losses as a function of packet loss rate and burstiness; a measure of compressed quality of a video segment metrics, and a measure of quality degradation due to packet losses as a function of packet loss rate and burstiness; determining, by the receiver, receiver metrics for the video stream received at the receiver; and determining, by the receiver, a quality score based on the received transmitter metrics and the determined receiver metrics.
A power outlet/charger for a portable electric/electronic device, the power outlet/charger comprising: an electrically insulating housing having a proximal end having an opening and a distal end having a first electrical connector; a printed circuit board assembly comprising on the distal end electrical terminals for the first electrical connector for connecting to a connector on a vehicle, and a USB connector socket on the opposite proximal end, and including an electronic DC to DC converter circuit for converting the vehicle electrical supply to the DC USB voltage standard; wherein the housing receives the printed circuit board assembly through the opening for securement in the housing, further comprising a shoulder for abutting against the vehicle panel when the housing is inserted into an opening in the vehicle panel; a keying portion to line up the housing in the opening in the vehicle panel; and flexible locking tabs around the periphery of the housing to secure the housing with the printed circuit board inside assembly in the vehicle panel opening; and wherein the housing is sized to directly replace a standard vehicle electrical cigar lighter socket/power outlet and fit directly into the opening in the vehicle panel for the standard vehicle electrical cigar lighter socket/power outlet, the first electrical connector releasably connectable to an electrical wiring harness of the vehicle. an electrically insulating housing having a proximal end having an opening and a distal end having a first electrical connector; a printed circuit board assembly comprising on the distal end electrical terminals for the first electrical connector for connecting to a connector on a vehicle, and a USB connector socket on the opposite proximal end, and including an electronic DC to DC converter circuit for converting the vehicle electrical supply to the DC USB voltage standard; wherein the housing receives the printed circuit board assembly through the opening for securement in the housing, further comprising a shoulder for abutting against the vehicle panel when the housing is inserted into an opening in the vehicle panel; a keying portion to line up the housing in the opening in the vehicle panel; and flexible locking tabs around the periphery of the housing to secure the housing with the printed circuit board inside assembly in the vehicle panel opening; and wherein the housing is sized to directly replace a standard vehicle electrical cigar lighter socket/power outlet and fit directly into the opening in the vehicle panel for the standard vehicle electrical cigar lighter socket/power outlet, the first electrical connector releasably connectable to an electrical wiring harness of the vehicle.
Mobile home having a base tub arranged in the rear section adjacent to a vehicle frame, wherein the base tub is a garage tub made of composite material panels, wherein the composite material panels consist of at least one, preferably two cover sheets, in particular aluminum sheets, and a foam core, in particular XPS foam, which are milled at the folds, in particular cut in a V-shape, and bent, characterized in that at the transition between a side wall of the mobile home and the garage tub, connecting plates are intended for transferring the forces, and in that rigid foam panels made of PU foam are inserted into the composite material panel at particularly loaded points, and in that the V-shaped cut and bent folds are glued, in particular by means of high-strength adhesives.
A pin arrangement, adapted to a flexible printed circuit connector, the pin arrangement comprising: a pin lane, comprising: a pair of ground pins; a pair of differential pins, located between the pair of ground pins; and at least one middle not-connected pin, located between the pair of differential pins. a pin lane, comprising: a pair of ground pins; a pair of differential pins, located between the pair of ground pins; and at least one middle not-connected pin, located between the pair of differential pins. a pair of ground pins; a pair of differential pins, located between the pair of ground pins; and at least one middle not-connected pin, located between the pair of differential pins.
A uterine manipulator comprising: a first handle portion supporting a first shaft, the first shaft having a distal portion supporting a first expansible member; and a cervical cup assembly (30, 130), characterized in that the uterine manipulator further comprises: a second handle portion supporting a second shaft, the second shaft having a distal portion supporting a second expansible member, the first shaft extending through the second shaft such that the first expansible member is positioned distally of the second shaft and distally of the second expansible member; wherein the cervical cup assembly (30, 130) is supported on the distal portion of the second shaft, the cervical cup assembly including a cervical cup (32, 132) defining a longitudinal axis and an actuator, the cervical cup including a body including a base member (40, 140) and a plurality of slats (44, 144), the plurality of slats being coupled to the base member and being movable between a minimum diameter configuration and a maximum diameter configuration in response to movement of the actuator in relation to the cervical cup. a first handle portion supporting a first shaft, the first shaft having a distal portion supporting a first expansible member; and a cervical cup assembly (30, 130), a second handle portion supporting a second shaft, the second shaft having a distal portion supporting a second expansible member, the first shaft extending through the second shaft such that the first expansible member is positioned distally of the second shaft and distally of the second expansible member; wherein the cervical cup assembly (30, 130) is supported on the distal portion of the second shaft, the cervical cup assembly including a cervical cup (32, 132) defining a longitudinal axis and an actuator, the cervical cup including a body including a base member (40, 140) and a plurality of slats (44, 144), the plurality of slats being coupled to the base member and being movable between a minimum diameter configuration and a maximum diameter configuration in response to movement of the actuator in relation to the cervical cup.
An apparatus configured with mechanics for providing at least three degrees of freedom of motion, comprising: one or more x-axis and y-axis brakes corresponding to an x-axis and a y-axis of movement of the apparatus; one or more z-axis brakes corresponding to a z-axis of movement of the apparatus; a motor, wherein said motor is operationally connected to said one or more x-axis, y-axis and z-axis brakes (2908, 2910); one or more surfaces (2914, 2912), wherein a curved x and y axis movement surface correlates to one or more x-axis and y-axis brakes, and a z-axis surface correlates to one or more z-axis brakes; and, when said motor is activated, one or more x-axis, y-axis and z-axis brakes (2908, 2910) are selectively advanced by said motor to make contact with said one or more x-axis, y-axis and z-axis surfaces (2914, 2912) causing friction between said one or more x-axis, y-axis and z-axis brakes (2908, 2910) and said one or more x-axis, y-axis and z-axis surfaces (2914, 2912) and thus causing variable resistance in at least two of said at least three degrees of freedom of said apparatus based on the extent of advancement of said x-axis, y-axis and z-axis brakes (2908, 2910). one or more x-axis and y-axis brakes corresponding to an x-axis and a y-axis of movement of the apparatus; one or more z-axis brakes corresponding to a z-axis of movement of the apparatus; a motor, wherein said motor is operationally connected to said one or more x-axis, y-axis and z-axis brakes (2908, 2910); one or more surfaces (2914, 2912), wherein a curved x and y axis movement surface correlates to one or more x-axis and y-axis brakes, and a z-axis surface correlates to one or more z-axis brakes; and, when said motor is activated, one or more x-axis, y-axis and z-axis brakes (2908, 2910) are selectively advanced by said motor to make contact with said one or more x-axis, y-axis and z-axis surfaces (2914, 2912) causing friction between said one or more x-axis, y-axis and z-axis brakes (2908, 2910) and said one or more x-axis, y-axis and z-axis surfaces (2914, 2912) and thus causing variable resistance in at least two of said at least three degrees of freedom of said apparatus based on the extent of advancement of said x-axis, y-axis and z-axis brakes (2908, 2910).
A method comprising: conveying baggage through a baggage claim system (100; receiving a code from a first passenger in a queue; scanning codes on the baggage in the baggage claim system for a baggage item that matches with the code received from the first passenger; detecting the bagging item that matches with the code received from the first passenger; and diverting the baggage item from the baggage conveyed through the baggage claim system for retrieval by the first passenger; and characterized in that: diverting includes dropping a gate that diverts the baggage item off of a main conveyor and that then lifts to allow remaining baggage on the conveyor to continue along the conveyor. conveying baggage through a baggage claim system (100; receiving a code from a first passenger in a queue; scanning codes on the baggage in the baggage claim system for a baggage item that matches with the code received from the first passenger; detecting the bagging item that matches with the code received from the first passenger; and diverting the baggage item from the baggage conveyed through the baggage claim system for retrieval by the first passenger; and characterized in that: diverting includes dropping a gate that diverts the baggage item off of a main conveyor and that then lifts to allow remaining baggage on the conveyor to continue along the conveyor.
A device, in particular for use as a door contact switch, containing a sensor and an actuator, wherein the sensor has a receiving circuit with a sensor element, a receiving circuit signal and a detector element, as well as a computer unit connected to the detector element, wherein - the sensor element is configured in order to co-operate with the actuator to generate a first receiving circuit signal during a normal operation when a switching distance between the sensor and the actuator is undershot, - the detector element is configured to generate a first output signal as a function of the first receiving circuit signal, and to transmit this output signal to the computer unit, - the receiving circuit additionally has a signal emulator and a switch-over element, - the signal emulator is configured to generate a second receiving circuit signal during a test operation, - the detector element is configured to generate a second output signal as a function of the second receiving circuit signal, and to transmit this output signal to the computer unit, - the device is configured and/or programmed to switch over from normal operation into test operation and in each case to switch back into normal operation by means of the switch-over element repeatedly, in particular periodically or aperiodically, characterized in that the receiving circuit signal is formed by a continuous succession of data packets. - the sensor element is configured in order to co-operate with the actuator to generate a first receiving circuit signal during a normal operation when a switching distance between the sensor and the actuator is undershot, - the detector element is configured to generate a first output signal as a function of the first receiving circuit signal, and to transmit this output signal to the computer unit, - the receiving circuit additionally has a signal emulator and a switch-over element, - the signal emulator is configured to generate a second receiving circuit signal during a test operation, - the detector element is configured to generate a second output signal as a function of the second receiving circuit signal, and to transmit this output signal to the computer unit, - the device is configured and/or programmed to switch over from normal operation into test operation and in each case to switch back into normal operation by means of the switch-over element repeatedly, in particular periodically or aperiodically,
A multi-ply article comprising a first ply and a second ply, wherein at least one of the first and second plies comprises a fibrous structure comprising one or more fibrous elements wherein at least one of the fibrous elements comprises one or more filament-forming materials and one or more active agents releasable from the fibrous elements, wherein the multi-ply article exhibits an Average Inter-Ply Peak Peel Force of greater than 0.03 N to 5.00 N as measured according to the Inter-Ply, Intra-Ply, and Whole 180° Peel Test Method.