mhurhangee/ep-ind-claims huggingface dataset:
An insulation piercing connector (100, 200, 300), comprising: an outer insulator (102, 202, 302) comprising an opening (142, 342); a tap wire housing (118, 318) comprising at least one aperture; a top housing (104, 204, 304), wherein the tap wire housing and the top housing removably connect with each other; a bottom housing (106, 206, 306), wherein the top housing and the bottom housing form a central aperture for holding a power cable; and a contact (124, 324) configured to be housed within the top housing in an assembled state, the contact configured to electrically couple a tap wire (192, 392) to the power cable, wherein the opening (142, 342), the at least one aperture, and the top housing (104, 204, 304) are arranged to receive the tap wire (192, 392) therethrough to couple the tap wire with the contact within the top housing in the assembled state. an outer insulator (102, 202, 302) comprising an opening (142, 342); a tap wire housing (118, 318) comprising at least one aperture; a top housing (104, 204, 304), wherein the tap wire housing and the top housing removably connect with each other; a bottom housing (106, 206, 306), wherein the top housing and the bottom housing form a central aperture for holding a power cable; and a contact (124, 324) configured to be housed within the top housing in an assembled state, the contact configured to electrically couple a tap wire (192, 392) to the power cable, wherein the opening (142, 342), the at least one aperture, and the top housing (104, 204, 304) are arranged to receive the tap wire (192, 392) therethrough to couple the tap wire with the contact within the top housing in the assembled state.
A wearable phototherapy eye device comprising: a facial housing having a user eye side; a light source disposed in or on the facial housing and configured to emit light towards or from the user eye side; a controller electrically coupled with the light source and configured to vary an emission property of the light based on an emission target associated with a sleep phase of at least two sleep phases, emission targets of the at least two sleep phases being different from each other and different from a zero emission, characterised in that: the emission property is varied further based on a predetermined transfer function of the light from the wearable phototherapy eye device to an eye retina; and in that a set of electrodes configured to measure an electrical response of the eye retina at different light emission levels, wherein the predetermined transfer function is defined based on the electrical response and on transmissivity levels of an eye lid at the different emission levels. a facial housing having a user eye side; a light source disposed in or on the facial housing and configured to emit light towards or from the user eye side; a controller electrically coupled with the light source and configured to vary an emission property of the light based on an emission target associated with a sleep phase of at least two sleep phases, emission targets of the at least two sleep phases being different from each other and different from a zero emission, characterised in that: the emission property is varied further based on a predetermined transfer function of the light from the wearable phototherapy eye device to an eye retina; and in that a set of electrodes configured to measure an electrical response of the eye retina at different light emission levels, wherein the predetermined transfer function is defined based on the electrical response and on transmissivity levels of an eye lid at the different emission levels.
Valve device for controlled introduction of a blowing medium of a blow moulding machine into plastic parisons, comprising at least one controllable valve body, at least one actuating device, and also a control device for controlling the actuating device, wherein the actuating device is at least indirectly operatively connected to the valve body, characterised in that the actuating device comprises at least one piezoelectric actuator, wherein by means of actuation of the actuating device and a control of the piezoelectric actuator, which is associated therewith, by the control device in dependence on the current impressed into the piezoelectric actuator and/or the voltage applied thereto the valve body can be moved from an open position into a closed position and vice versa, and in the closed position a main flow path, for introduction of the blowing medium into the plastic parisons, is closed, wherein at least one sealing surface between a sealing piston of the valve body and a housing of the valve body has a different degree of hardness from the degree of hardness of the sealing piston.
A method for decoding video data, the method comprising, for a plurality of prediction units, PUs, belonging to a current coding unit, CU: generating a CU motion candidate set by using neighbouring PUs outside the current CU, the PUs used to generate the motion candidate set consisting of neighbouring PUs left of the current CU, above the current CU, above-right of the current CU, below-left of the current CU and above-left of the current CU; for each PU in the plurality of PUs, selecting a merge mode or advanced motion vector prediction, AMVP, mode candidate for the PU by only selecting a candidate from the candidate set such that the selected candidate is generated without using motion information of any other PU belonging to the current CU; and determining, based at least in part on motion information indicated by the selected candidate for the PU, motion information of the PU; and generating, based at least in part on a reference block indicated by the motion information of the PU, a predictive video block for the PU. generating a CU motion candidate set by using neighbouring PUs outside the current CU, the PUs used to generate the motion candidate set consisting of neighbouring PUs left of the current CU, above the current CU, above-right of the current CU, below-left of the current CU and above-left of the current CU; for each PU in the plurality of PUs, selecting a merge mode or advanced motion vector prediction, AMVP, mode candidate for the PU by only selecting a candidate from the candidate set such that the selected candidate is generated without using motion information of any other PU belonging to the current CU; and determining, based at least in part on motion information indicated by the selected candidate for the PU, motion information of the PU; and generating, based at least in part on a reference block indicated by the motion information of the PU, a predictive video block for the PU.
A method for discovering an augmented reality,AR, object, comprising: when it is determined, according to a pre-generated navigation route and a movement speed of a terminal, that a vicinity of a preselected AR object is reached, determining a status of the terminal; when it is determined that the terminal is in a searching state, starting a camera and acquiring a picture; extracting N objects from the picture using an image recognition algorithm, wherein N is an integer greater than one, processing M of the N objects using a high speed and low precision recognition algorithm, which is adapted to prevent the identification of an AR object as a non-AR object, but which is not adapted to prevent the identification of a non-AR-object as an AR-object, wherein M is an integer greater than or equal to one and less than N, processing N-M of the N objects using a low speed and precise recognition algorithm, which takes a relatively long time and which is adapted to precisely identify an AR object and a non-AR object, determining whether the M and the N-M of the objects in the picture include the preselected AR object, and when the acquired picture comprises the preselected AR object, notifying of the preselected AR object. when it is determined, according to a pre-generated navigation route and a movement speed of a terminal, that a vicinity of a preselected AR object is reached, determining a status of the terminal; when it is determined that the terminal is in a searching state, starting a camera and acquiring a picture; extracting N objects from the picture using an image recognition algorithm, wherein N is an integer greater than one, processing M of the N objects using a high speed and low precision recognition algorithm, which is adapted to prevent the identification of an AR object as a non-AR object, but which is not adapted to prevent the identification of a non-AR-object as an AR-object, wherein M is an integer greater than or equal to one and less than N, processing N-M of the N objects using a low speed and precise recognition algorithm, which takes a relatively long time and which is adapted to precisely identify an AR object and a non-AR object, determining whether the M and the N-M of the objects in the picture include the preselected AR object, and when the acquired picture comprises the preselected AR object, notifying of the preselected AR object.
A method for locating an object by means of a reference grid, the object moving in a plane parallel to or identical to that of the grid, said grid being defined by a plurality of so-called horizontal lines, aligned along a first direction and a plurality of so-called vertical lines, aligned along a second direction distinct from the first one, the vertical lines being separated by a first distance ( L x) along the first direction and the horizontal lines being separated by a second distance ( L y) along the second direction, characterised in that each time the object crosses a line of the grid, - the heading of the object is determined with respect to a reference direction; - as a function of the heading thus determined, the probabilities p ( dy i | φ i), p ( dx i | φ i) of the line thus crossed being respectively a horizontal line and a vertical line of the grid, are obtained when the object moves in the direction given by the course; - from said probabilities and the first and second distances, the displacement d x i ^ d y i ^ of the object since the last time it crossed the line of the grid is assessed; - the position of the object is updated from the displacement thus assessed. - the heading of the object is determined with respect to a reference direction; - as a function of the heading thus determined, the probabilities p ( dy i | φ i), p ( dx i | φ i) of the line thus crossed being respectively a horizontal line and a vertical line of the grid, are obtained when the object moves in the direction given by the course; - from said probabilities and the first and second distances, the displacement d x i ^ d y i ^ of the object since the last time it crossed the line of the grid is assessed; - the position of the object is updated from the displacement thus assessed.
Solar collector comprising a containment box-like structure, having a lower face, four perimeter faces and an upper face closed by an at least partially transparent surface, inside said box-like structure being housed: an upper absorber for exposure to solar radiation, arranged below said at least partially transparent surface, a primary circuit for accumulation and circulation of a primary thermovector fluid, at least a secondary conduit of accumulation and circulation of a secondary fluid, and at least a heat exchanger between said primary thermovector fluid and said secondary fluid, said at least a secondary conduit comprising at least one inlet opening and at least an outlet opening of said secondary fluid which are accessible externally to said box-like containment structure, said primary circuit comprising at least a first portion (5, 6, 7), thermally connected to said upper absorber and provided in its lower part, and at least a second portion (9, 16, 17) thermally connected to said at least a secondary conduit in correspondence of said heat exchanger, said at least a second portion (9, 16, 17) and said at least a secondary conduit being provided below said at least one first portion (5, 6, 7) and between said at least a first portion (5, 6, 7) of said primary circuit and said at least a secondary conduit at least one layer of insulating material being provided in such a way that, during use, when said primary thermovector fluid flows in said primary circuit, said primary thermovector fluid and said secondary fluid circulate in countercurrent in said heat exchanger, said at least a secondary conduit being configured so as to present at least a portion, having predominantly linear sections connected with each other two by two in series by means of union portions (3, 4, 3', 4') between said sections predominantly linear so as to form a coil duct, said at least a second portion (9, 16, 17) of said primary circuit being configured in such a way to comprise a plurality of pairs of predominantly straight sections connected in series by means of first and second unions in such a way to form said coil duct characterised in that said coil duct of said second portion (9, 16, 17) of said primary circuit is at least partially inserted in said at least a secondary conduit, so as to be in direct thermal contact with said secondary fluid, and in that said first unions are external to said secondary conduit and in that said second unions are disposed inside said at least a secondary conduit.
Filling nozzle for delivering a fluid into a tank, said filling nozzle having: a. a first fluid connector which is connectable to a fluid infeed line; b. a second fluid connector which is connectable to a connector port of the tank; c. a duct for directing the fluid from the first fluid connector to the second fluid connector; d. a main valve which is disposed in the duct; e. a coupling installation for establishing a connection between the filling nozzle and the connector port; and f. an activation device for activating the coupling installation and the main valve, wherein the activation device has a hand lever which is movable between a closed position and an opened position, wherein the activation device is specified for converting a movement of the hand lever between the closed position and the opened position to a temporally offset activation of the coupling installation and the main valve, characterized in that the coupling installation in a displacement of the second fluid connector in the direction of the connector port is configured for establishing automatic locking between the second fluid connector and the connector port, wherein the activation device in a movement of the hand lever from the opened position to the closed position is configured for first activating the main valve and for subsequently releasing the locking mechanism between the second fluid connector and the connector port. a. a first fluid connector which is connectable to a fluid infeed line; b. a second fluid connector which is connectable to a connector port of the tank; c. a duct for directing the fluid from the first fluid connector to the second fluid connector; d. a main valve which is disposed in the duct; e. a coupling installation for establishing a connection between the filling nozzle and the connector port; and f. an activation device for activating the coupling installation and the main valve, wherein the activation device has a hand lever which is movable between a closed position and an opened position, wherein the activation device is specified for converting a movement of the hand lever between the closed position and the opened position to a temporally offset activation of the coupling installation and the main valve, characterized in that the coupling installation in a displacement of the second fluid connector in the direction of the connector port is configured for establishing automatic locking between the second fluid connector and the connector port, wherein the activation device in a movement of the hand lever from the opened position to the closed position is configured for first activating the main valve and for subsequently releasing the locking mechanism between the second fluid connector and the connector port.
Underwater cooling device for cooling electrical or chemical heat generators, having a pressure container with a wall, a first end, a second end, a first flue within the wall, a heat generator receiving region within the first flue and a primary coolant within the wall, characterized by a second flue, wherein the second flue is configured as a hollow cylinder and extends externally around the pressure container, and wherein the second flue is thermally insulated.
An LED system comprising: a direct current power supply unit having a first channel and a second channel and a chassis ground; a first circuit in electrical communication with the first channel of the direct current power supply unit wherein the direct current power supply unit provides a constant current to the first circuit; a second circuit in electrical communication with the second channel of the direct current power supply unit wherein the direct current power supply unit provides a constant current to the second circuit; characterized in that the LED system further comprises: a third circuit in electrical communication with the chassis ground of the direct current power supply unit; a plurality of driverless luminaires connected in series wherein each driverless luminaire in the plurality of driverless luminaires has a first LED array electrically connected in series to the first circuit and a second LED array electrically connected in series to the second circuit and a driverless luminaire chassis ground electrically connected to the third circuit. a direct current power supply unit having a first channel and a second channel and a chassis ground; a first circuit in electrical communication with the first channel of the direct current power supply unit wherein the direct current power supply unit provides a constant current to the first circuit; a second circuit in electrical communication with the second channel of the direct current power supply unit wherein the direct current power supply unit provides a constant current to the second circuit; characterized in that the LED system further comprises: a third circuit in electrical communication with the chassis ground of the direct current power supply unit; a plurality of driverless luminaires connected in series wherein each driverless luminaire in the plurality of driverless luminaires has a first LED array electrically connected in series to the first circuit and a second LED array electrically connected in series to the second circuit and a driverless luminaire chassis ground electrically connected to the third circuit. a third circuit in electrical communication with the chassis ground of the direct current power supply unit; a plurality of driverless luminaires connected in series wherein each driverless luminaire in the plurality of driverless luminaires has a first LED array electrically connected in series to the first circuit and a second LED array electrically connected in series to the second circuit and a driverless luminaire chassis ground electrically connected to the third circuit.
A method for the removal of heat stable amine salts from a regenerated amine absorbent having a reduced concentration of carbon dioxide (CO 2), formed in a CO 2 capture process by scrubbing a flue gas stream having CO 2, wherein a CO 2 -rich amine absorbent is formed by removing the CO 2 from the flue gas stream in a CO 2 absorber and the regenerated amine absorbent is formed from the CO 2 -rich amine absorbent in a regenerator by heating to cause desorption of CO 2 gas from the CO 2 -rich amine absorbent, the regenerated amine absorbent comprising at least one amine compound, residual CO 2, and the heat stable amine salts, the method characterized by: withdrawing a slipstream of the regenerated amine absorbent from the regenerator or from a liquid conduit between the regenerator and a lean absorbent/rich absorbent heat exchanger; subjecting the slipstream to a residual CO 2 removal comprising flashing the slipstream in a residual CO 2 unit to remove residual CO 2 to form a CO 2 -lean amine absorbent; then subjecting the CO 2 -lean amine absorbent to a separation in an amine reclaimer to remove heat stable amine salts from the CO 2 -lean amine absorbent to form a reclaimed amine absorbent, wherein the separation in the reclaimer includes subjecting the CO 2 -lean amine absorbent to electrodialysis and/or ion exchange; and returning the reclaimed amine absorbent having a reduced concentration of heat stable amine salts to the CO 2 capture process. withdrawing a slipstream of the regenerated amine absorbent from the regenerator or from a liquid conduit between the regenerator and a lean absorbent/rich absorbent heat exchanger; subjecting the slipstream to a residual CO 2 removal comprising flashing the slipstream in a residual CO 2 unit to remove residual CO 2 to form a CO 2 -lean amine absorbent; then subjecting the CO 2 -lean amine absorbent to a separation in an amine reclaimer to remove heat stable amine salts from the CO 2 -lean amine absorbent to form a reclaimed amine absorbent, wherein the separation in the reclaimer includes subjecting the CO 2 -lean amine absorbent to electrodialysis and/or ion exchange; and returning the reclaimed amine absorbent having a reduced concentration of heat stable amine salts to the CO 2 capture process.
An electronic device comprising: a processor configured to operate a kernel, and a secure execution environment, configured to receive a security policy, verify the integrity and authenticity of the security policy, transmit the verified security policy to the kernel, wherein the kernel further is configured to apply the verified security policy to the electronic device, characterized in that the secure execution environment is implemented in a discrete circuit separate from the processor. a processor configured to operate a kernel, and a secure execution environment, configured to receive a security policy, verify the integrity and authenticity of the security policy, transmit the verified security policy to the kernel, wherein the kernel further is configured to apply the verified security policy to the electronic device, characterized in that the secure execution environment is implemented in a discrete circuit separate from the processor.
Car transport unit for a car of a passenger transport system, the car transport unit comprising the car, a shaft segment of the passenger transport system, and a plurality of detachable transport devices, the car being arranged in the shaft segment and being connected to the shaft segment in a safe-to-transport manner using the transport devices, characterized in that each of the transport devices comprises a car side, a shaft side, and an intermediate part, adjustable in length, between the car side and the shaft side, the car side comprising at least one contact surface for abutting the car, and the shaft side comprising at least one contact surface for abutting a shaft segment of the passenger transport system.
A gear housing for planetary gears of a turbomachine, comprising: a stationary carrier that is disposable between a forward planetary gear assembly and an aft planetary gear assembly such that forward planet gears of the forward planetary gear assembly and aft planet gears of the aft planetary gear assembly are each rotatably mountable to the stationary carrier; and a mount extending radially from the stationary carrier that is connectable to a stationary portion of the turbomachine.