mhurhangee/ep-ind-claims huggingface dataset:
Conveyor device for forming a belt conveyor, comprising: - a frame, - at least two rollers supported by the frame; - a conveyor belt, arranged movable in a length direction of the belt around the at least two rollers; - a slot, - extending in a width direction of the conveyor belt, and - arranged adjacent to an inwardly facing part of the conveyor belt; characterised in that - the slot is configured to move a weighing device comprising at least one housing fitting the slot into and configured to remove the weighing device comprising at least one housing fitting the slot from. - a frame, - at least two rollers supported by the frame; - a conveyor belt, arranged movable in a length direction of the belt around the at least two rollers; - a slot, - extending in a width direction of the conveyor belt, and - arranged adjacent to an inwardly facing part of the conveyor belt; - extending in a width direction of the conveyor belt, and - arranged adjacent to an inwardly facing part of the conveyor belt; - the slot is configured to move a weighing device comprising at least one housing fitting the slot into and configured to remove the weighing device comprising at least one housing fitting the slot from.
A rechargeable battery jump starting device, the device comprising: a first 12V battery; a second 12V battery; an electrical control switch electrically connected to the first 12V battery and second 12V battery, the electrical control switch having a parallel switch position for connecting the first 12V battery and the second 12V battery in parallel, the electrical control switch having a series switch position for connecting the first 12V battery and the second 12V battery in series; a microcontroller unit electrically connected to the electrical control switch; and characterised by: an electrical optical position sensing switch system comprising a circuit electrically connected to the first and second batteries and having an optical coupler electrically connected to the microcontroller, wherein the optical coupler is configured to provide a signal to the microcontroller for indicating the parallel switch position or the series switch position of the electrical control switch in response to current flow or lack thereof in the circuit, wherein the electrical control switch is configured to be selectively rotated to either the parallel switch position or the series switch position. a first 12V battery; a second 12V battery; an electrical control switch electrically connected to the first 12V battery and second 12V battery, the electrical control switch having a parallel switch position for connecting the first 12V battery and the second 12V battery in parallel, the electrical control switch having a series switch position for connecting the first 12V battery and the second 12V battery in series; a microcontroller unit electrically connected to the electrical control switch;
A master access node comprising: an obtaining module, configured to obtain location information of user equipment, wherein the location information of the user equipment comprises serving cell information of at least one secondary access node of the user equipment, and wherein the serving cell information of the at least one secondary access node of the user equipment is received by the master access node from the at least one secondary access node of the user equipment; and a sending module, configured to send the location information of the user equipment to a core network node by means of control plane signaling; wherein the serving cell information of at least one secondary access node of the user equipment comprises: identification information of a serving cell of the at least one secondary access node of the user equipment and a quantity of data packets transmitted in a serving cell of the at least one secondary access node of the user equipment; wherein the location information is used by the core network for a determination of a charging control policy for the user equipment. an obtaining module, configured to obtain location information of user equipment, wherein the location information of the user equipment comprises serving cell information of at least one secondary access node of the user equipment, and wherein the serving cell information of the at least one secondary access node of the user equipment is received by the master access node from the at least one secondary access node of the user equipment; and a sending module, configured to send the location information of the user equipment to a core network node by means of control plane signaling; wherein the serving cell information of at least one secondary access node of the user equipment comprises: identification information of a serving cell of the at least one secondary access node of the user equipment and a quantity of data packets transmitted in a serving cell of the at least one secondary access node of the user equipment; wherein the location information is used by the core network for a determination of a charging control policy for the user equipment.
A furnace tube having on its external surface one or more thick longitudinal fins having a thickness at its base from 1/3 to 1/2 of the of the radius of said furnace tube and having parallel sides or sides with an upward inward taper of less than 15° relative to the major axis of said fin, said fin having on at least one major surface an array selected from the group consisting of: outwardly open grooves in a form selected from an outwardly open V, a truncated outwardly open V, an outwardly open U, and an outwardly open parallel sided channel in a regular or semi-regular pattern covering at least 10% of the surface area, said grooves having a depth of less than a quarter of the maximum thickness of the fin; protuberances having a base dimension not exceeding 10 % of the maximum thickness of the fin, and a height not exceeding 15% of the maximum thickness of the fin; or both in a regular or semi-regular pattern covering at least 10% of the surface area of at least one major surface of said fin; wherein the furnace tube comprises: (a) from 55 to 65 weight % of Ni; from 20 to 10 weight % of Cr; from 20 to 10 weight % of Co; and from 5 to 9 weight % of Fe and the balance one or more of the trace elements; or (b) from 40 to 65 weight % of Co; from 15 to 20 weight % of Cr; from 20 to 13 weight % of Ni; less than 4 weight % of Fe and the balance of one or more trace elements and up to 20 weight % of W the sum of the components adding up to 100 weight %; or (c) from 20 to 38 weight % of chromium, from 25 to 48 weight % of Ni, further comprising from 0.2 up to 3 weight % of Mn, from 0.3 to 2 weight % of Si; less than 5 weight % of titanium, niobium and all other trace metals; and carbon in an amount of less than 0.75 weight % and the balance substantially iron, the sum of the components adding up to 100 weight %. (a) from 55 to 65 weight % of Ni; from 20 to 10 weight % of Cr; from 20 to 10 weight % of Co; and from 5 to 9 weight % of Fe and the balance one or more of the trace elements; or (b) from 40 to 65 weight % of Co; from 15 to 20 weight % of Cr; from 20 to 13 weight % of Ni; less than 4 weight % of Fe and the balance of one or more trace elements and up to 20 weight % of W the sum of the components adding up to 100 weight %; or (c) from 20 to 38 weight % of chromium, from 25 to 48 weight % of Ni, further comprising from 0.2 up to 3 weight % of Mn, from 0.3 to 2 weight % of Si; less than 5 weight % of titanium, niobium and all other trace metals; and carbon in an amount of less than 0.75 weight % and the balance substantially iron, the sum of the components adding up to 100 weight %.
An insulation and heat radiation structure of a power device, comprising: a power device, an insulation ceramic piece, and a heat radiator, wherein the power device is of a sheet structure, the insulation ceramic piece is an alumina ceramic piece, a heat radiator pin is disposed on the heat radiator, and the heat radiator pin is used for being mechanically connected to a circuit board, wherein a power device pin is disposed on the power device, and the power device pin is used for being electrically connected to the circuit board; and the power device, the insulation ceramic piece, and the heat radiator are sequentially fixed in a transverse direction with regard to the plane of the sheet structure, a heating surface of the power device is adhesively fixed to one surface of the insulation ceramic piece through a first insulating thermal conductive adhesive, and the other surface of the insulation ceramic piece is adhesively fixed to a contact heat radiation surface of the heat radiator through a second insulating thermal conductive adhesive, wherein the second insulating thermal conductive adhesive is an organic insulating thermal conductive adhesive with a thermal conductivity coefficient greater than 0.3 w/mk and with a modulus of elasticity of less than 5 GPa after being cured at a temperature of 25°C. a power device, an insulation ceramic piece, and a heat radiator, wherein the power device is of a sheet structure, the insulation ceramic piece is an alumina ceramic piece, a heat radiator pin is disposed on the heat radiator, and the heat radiator pin is used for being mechanically connected to a circuit board, wherein a power device pin is disposed on the power device, and the power device pin is used for being electrically connected to the circuit board; and the power device, the insulation ceramic piece, and the heat radiator are sequentially fixed in a transverse direction with regard to the plane of the sheet structure, a heating surface of the power device is adhesively fixed to one surface of the insulation ceramic piece through a first insulating thermal conductive adhesive, and the other surface of the insulation ceramic piece is adhesively fixed to a contact heat radiation surface of the heat radiator through a second insulating thermal conductive adhesive, wherein the second insulating thermal conductive adhesive is an organic insulating thermal conductive adhesive with a thermal conductivity coefficient greater than 0.3 w/mk and with a modulus of elasticity of less than 5 GPa after being cured at a temperature of 25°C.
A BTE hearing aid comprising a BTE hearing aid housing to be worn behind the pinna of a user and accommodating at least one BTE sound input transducer configured for conversion of acoustic sound into a BTE audio sound signal, an ITE microphone housing configured to be positioned in the outer ear of the user and accommodating at least one ITE microphone configured for conversion of acoustic sound into an ITE audio sound signal, a signal detector configured for determination of ITE signal magnitudes of the ITE audio sound signal at a plurality of frequencies, and determination of BTE signal magnitudes of the BTE audio sound signal at the plurality of frequencies, a gain processor for determining gain values at respective frequencies of the plurality of frequencies based on the determined ITE signal magnitudes and BTE signal magnitudes, a multiplier configured for multiplying the BTE audio sound signal with the gain values at the respective frequencies, characterized by a signal combiner configured for outputting a weighted sum of the ITE audio sound signal and the gain modified BTE audio sound signal to a processor configured to generate a hearing loss compensated output signal based on the weighted sum. at least one BTE sound input transducer configured for conversion of acoustic sound into a BTE audio sound signal, at least one ITE microphone configured for conversion of acoustic sound into an ITE audio sound signal, determination of ITE signal magnitudes of the ITE audio sound signal at a plurality of frequencies, and determination of BTE signal magnitudes of the BTE audio sound signal at the plurality of frequencies,
A method performed by a source integrated access and backhaul, IAB, donor device and the method comprising: sending, to a target IAB donor device, a request message for a handover from the source IAB donor device to the target IAB donor device for an IAB node, the request message including a first cell configuration of the IAB node associated with the source IAB donor device, the first cell configuration comprising an identifier of at least one original cell to be removed from the IAB node during the handover; and receiving, from the target IAB donor device, a response message acknowledging to the request message, the response message including a resource configuration for a connection between the IAB node and the target IAB donor device and a second cell configuration of the IAB node associated with the target IAB donor device, the second cell configuration comprising an identifier of at least one new cell to be provided by the IAB node after the completion of the handover, the second cell configuration being different from the first cell configuration; and sending the resource configuration and the second cell configuration to the IAB node via a radio resource control reconfiguration message. sending, to a target IAB donor device, a request message for a handover from the source IAB donor device to the target IAB donor device for an IAB node, the request message including a first cell configuration of the IAB node associated with the source IAB donor device, the first cell configuration comprising an identifier of at least one original cell to be removed from the IAB node during the handover; and receiving, from the target IAB donor device, a response message acknowledging to the request message, the response message including a resource configuration for a connection between the IAB node and the target IAB donor device and a second cell configuration of the IAB node associated with the target IAB donor device, the second cell configuration comprising an identifier of at least one new cell to be provided by the IAB node after the completion of the handover, the second cell configuration being different from the first cell configuration; and sending the resource configuration and the second cell configuration to the IAB node via a radio resource control reconfiguration message.
A diving mask comprising: a body having a faceplate and a flexible skirt, said flexible skirt including a partition separating a top chamber for vision from a bottom chamber for breathing, the partition being arranged to bear on the user's nose so that the user's mouth and nose are situated in the bottom chamber while the user's eyes are situated in the top chamber, the partition including at least one passage arranged to allow fresh air to flow between the top chamber and the bottom chamber during a stage in which the user is breathing in; and a snorkel arranged to extend a top portion of the body, the snorkel including at least one air duct; wherein the body includes an exhaled air exhaust device putting the bottom chamber into fluid-flow connection with the air duct of the snorkel; the diving mask being characterized in that the exhaled air exhaust device includes at least a first check valve, located between the bottom chamber and the exhaled air exhaust device, to allow exhaled air from the bottom chamber to flow towards the air duct of the snorkel during a stage in which the user is breathing out, the first check valve being closed during a stage in which the user is breathing in. a body having a faceplate and a flexible skirt, said flexible skirt including a partition separating a top chamber for vision from a bottom chamber for breathing, the partition being arranged to bear on the user's nose so that the user's mouth and nose are situated in the bottom chamber while the user's eyes are situated in the top chamber, the partition including at least one passage arranged to allow fresh air to flow between the top chamber and the bottom chamber during a stage in which the user is breathing in; and a snorkel arranged to extend a top portion of the body, the snorkel including at least one air duct; wherein the body includes an exhaled air exhaust device putting the bottom chamber into fluid-flow connection with the air duct of the snorkel; the diving mask being characterized in that the exhaled air exhaust device includes at least a first check valve, located between the bottom chamber and the exhaled air exhaust device, to allow exhaled air from the bottom chamber to flow towards the air duct of the snorkel during a stage in which the user is breathing out, the first check valve being closed during a stage in which the user is breathing in.
An adaptive system for automatic tracking of a target in at least one video stream, comprising: - at least one dynamically configurable tracking device (14 1,..., 14 n), receiving said at least one video stream, adapted for detection and automatic tracking of at least one target by analysis of said at least one video stream, - a calculator to determine at least one metric performance value from a target tracking result (R 1,..., R n) provided by said at least one tracking device (14 1,..., 14 n), - a corrector of at least one configuration parameter of said least one tracking device (14 1,..., 14 n) as a function of said at least one metric performance value, and - at least one dynamic configurator (16 1,..., 16 n) of said at least one tracking device (14 1,..., 14 n) by application of said at least one corrected configuration parameter, characterized in that it further comprises at least one supplementary reference tracking device (14 MSTR) differing from the at least one tracking device (14 1,..., 14 n) by higher performance hardware resources, receiving at least one portion (P 1,..., P n) of said at least one video stream, and in that the calculator is more specifically adapted to calculate said at least one metric performance value based on a comparison on said at least one video stream portion, of the target tracking result (R 1,..., R n) supplied by said at least one tracking device (14 1,..., 14 n) and a reference tracking result (S 1,..., S n) supplied by said at least one supplementary reference tracking device (14 MSTR) thanks to its higher performance hardware resources. - at least one dynamically configurable tracking device (14 1,..., 14 n), receiving said at least one video stream, adapted for detection and automatic tracking of at least one target by analysis of said at least one video stream, - a calculator to determine at least one metric performance value from a target tracking result (R 1,..., R n) provided by said at least one tracking device (14 1,..., 14 n), - a corrector of at least one configuration parameter of said least one tracking device (14 1,..., 14 n) as a function of said at least one metric performance value, and - at least one dynamic configurator (16 1,..., 16 n) of said at least one tracking device (14 1,..., 14 n) by application of said at least one corrected configuration parameter,
A gas turbine engine inlet sensor fault detection and accommodation system comprising: an engine model configured to produce a real-time model-based estimate of engine parameters; an engine parameter comparison block configured to produce residuals indicating the difference between the real-time model-based estimate of engine parameters and sensed values of the engine parameters; characterized by comprising: an inlet condition estimator configured to iteratively adjust an estimate of inlet conditions based on the residuals; control laws configured to produce engine control parameters for control of gas turbine engine actuators based on the inlet conditions; and a fault detection and accommodation system configured to detect faults in inlet condition sensors, select sensed inlet conditions for use by the control laws in the event of no fault, and select estimated inlet conditions for use by the control laws in the event of inlet condition sensor fault. an engine model configured to produce a real-time model-based estimate of engine parameters; an engine parameter comparison block configured to produce residuals indicating the difference between the real-time model-based estimate of engine parameters and sensed values of the engine parameters; characterized by comprising: an inlet condition estimator configured to iteratively adjust an estimate of inlet conditions based on the residuals; control laws configured to produce engine control parameters for control of gas turbine engine actuators based on the inlet conditions; and a fault detection and accommodation system configured to detect faults in inlet condition sensors, select sensed inlet conditions for use by the control laws in the event of no fault, and select estimated inlet conditions for use by the control laws in the event of inlet condition sensor fault. an inlet condition estimator configured to iteratively adjust an estimate of inlet conditions based on the residuals; control laws configured to produce engine control parameters for control of gas turbine engine actuators based on the inlet conditions; and a fault detection and accommodation system configured to detect faults in inlet condition sensors, select sensed inlet conditions for use by the control laws in the event of no fault, and select estimated inlet conditions for use by the control laws in the event of inlet condition sensor fault.
A sub-wavelength structural material having compatibility of low detectability for infrared, laser, and microwave, comprising: a metal type frequency selective surface layer I, the metal type frequency selective surface layer I being a sub-wavelength patch type array; a dielectric layer I disposed below the metal type frequency selective surface layer I; a metal type frequency selective surface layer II disposed below the dielectric layer I, the metal type frequency selective surface layer II being also a sub-wavelength patch type array; a dielectric layer II disposed below the metal type frequency selective surface layer II; a resistive film layer disposed below the dielectric layer II; and a dielectric layer III disposed below the resistive film layer, wherein the metal type frequency selective surface layer I, the dielectric layer I and the metal type frequency selective surface layer II are used to realize low detectability for laser and infrared, and the dielectric layer II, the resistive film layer, the dielectric layer III, and a metal reflective plate are used to realize absorption of microwaves. a metal type frequency selective surface layer I, the metal type frequency selective surface layer I being a sub-wavelength patch type array; a dielectric layer I disposed below the metal type frequency selective surface layer I; a metal type frequency selective surface layer II disposed below the dielectric layer I, the metal type frequency selective surface layer II being also a sub-wavelength patch type array; a dielectric layer II disposed below the metal type frequency selective surface layer II; a resistive film layer disposed below the dielectric layer II; and a dielectric layer III disposed below the resistive film layer, wherein the metal type frequency selective surface layer I, the dielectric layer I and the metal type frequency selective surface layer II are used to realize low detectability for laser and infrared, and the dielectric layer II, the resistive film layer, the dielectric layer III, and a metal reflective plate are used to realize absorption of microwaves.