mhurhangee/ep-ind-claims huggingface dataset:
Industrial equipment for the hot recycling of asphalt mixes, which comprises a portable bank of hoppers which are used to meter RAP and unadulterated stone materials, which are mounted on a supporting structure, along with gear motors with frequency converter to control metering and sending a flow indicator signal to a control panel where it is recorded; a conveyor belt is provided below the hopper bank to receive the material and transport it toward the inlet of the rotary cylinder, supported on four load rollers serving also as driving system to transmit the movement from a gear motor for cylinder rotation; a tank for storing a mixture of asphalt - rejuvenating agent enhanced with polymers which is metered by a volumetric gear pump through a pipe towards the rotary cylinder, the outlet of said cylinder comprising a temperature sensor that sends the signal to the recycled asphalt mix temperature indicator in the control panel; a recycled asphalt mix lifting system adjacent to an outlet of the rotary cylinder which conveys said mix to a discharge silo; a combustion gas extractor in the rotary cylinder for discharging combustion gases from the burner; a fuel storage tank used in the industrial burner and a weight measuring element is provided under the conveyor belt at the inlet of the rotary drum, which records the amount of material to be supplied in weight, said cylinder comprises an open-flame industrial burner mounted at the beginning of the cylinder to transmit heat energy to the RAP and the supply of unadulterated stone material; an inlet and an outlet; an Internal continuous metal helix taking 30-80% of the total length of the rotary cylinder; the walls of the helix form a circular space in its center forming a flame conduction zone, between said walls of the helix there is a zone for conduction or conveyance of RAP and supply of unadulterated stone material, in the flame direction, as the cylinder rotates, and generating a zone for indirect heat energy transfer, so that the solid asphalt contained in the RAP changes to its liquid phase, without reaching combustion; an injection zone of asphalt-rejuvenating agent enhanced with polymers, adjacent to the end of the helix, a plurality of mixing paddles forming a mixing zone, which are located at the internal perimeter of said cylinder and after the metal helix, to mix the RAP and the supply of unadulterated stone material with the asphalt-rejuvenating agent modified with polymers injected; a plurality of paddles for expelling the mixed material, adjacent to the mixing paddles, for a subsequent expulsion of the hot asphalt mix which has moved from the mixing paddles, through the outlet of the metal cylinder, where such mixing and expelling paddles (23, 23b) occupy the rest of the total length of the cylinder in order to recycle 100% RAP.
A method that facilitates separating signals within a wireless communications environment, the method carried out by a wireless communications apparatus, the method comprising: verifying an Orthogonal Frequency-Division Multiplexing, OFDM, symbol duration between two or more carriers associated with an OFDM network, wherein verifying ensures a matching between the OFDM symbol duration between two or more carriers; employing a time synchronization to ensure signal receipt from the two or more carriers have a minimal time offset, wherein the minimal time offset is defined as the difference between the start of the OFDM symbols from the two or more carriers being not more than the length of the cyclic prefix; receiving a tone spacing from the two or more carriers; and calculating a carrier spacing, wherein the carrier spacing is the frequency offset between adjacent carrier frequencies, by increasing or decreasing at least one of the carrier frequencies so that the carrier spacing is an integer multiple of the tone spacing; and implementing the carrier spacing for the two or more carriers, wherein the carrier spacing is an integer multiple of the tone spacing. verifying an Orthogonal Frequency-Division Multiplexing, OFDM, symbol duration between two or more carriers associated with an OFDM network, wherein verifying ensures a matching between the OFDM symbol duration between two or more carriers; employing a time synchronization to ensure signal receipt from the two or more carriers have a minimal time offset, wherein the minimal time offset is defined as the difference between the start of the OFDM symbols from the two or more carriers being not more than the length of the cyclic prefix; receiving a tone spacing from the two or more carriers; and calculating a carrier spacing, wherein the carrier spacing is the frequency offset between adjacent carrier frequencies, by increasing or decreasing at least one of the carrier frequencies so that the carrier spacing is an integer multiple of the tone spacing; and implementing the carrier spacing for the two or more carriers, wherein the carrier spacing is an integer multiple of the tone spacing.
Motor vehicle latch, in particular a motor vehicle door latch, having a locking mechanism consisting of at least one catch and at least one pawl, and having an actuating lever mounted for rotation about a shaft, the pawl being mounted on the actuating lever for rotation about a shaft, the catch acting upon the pawl with a closing moment when the locking mechanism is in the closed state, which moment transitions into an opening moment on the pawl when the locking mechanism is opened as a result of the associated movement of the actuating lever and the displacement of the shaft for the pawl, the actuating lever being provided with a stop for limiting the angle of the rotational movement of the pawl with respect to the actuating lever, characterized in that an annular recess is implemented in the pawl, into which recess a pin of the actuating lever dips as the stop and ensures the desired limitation of rotational movement of the pawl with respect to the actuating lever.
Stack of electrochemical cells (10A, 10B), o said electrochemical cells (10A, 10B) being distributed into N separate groups (A, B) of cells, N ≥ 2; o each electrochemical cell (10A, 10B) including a distribution circuit (50A, 50B) designed to distribute a reactive species at an electrode (21A, 21B) of the cell; o each group of cells (A; B) including a separate supply collector (2A; 2B) positioned upstream of an input (51A; 51B) of the distribution circuit (50A; 50B) of each cell of the stack and designed to allow said reactive species to flow to said input of the distribution circuit of the cells (10A, 10B) of said group and to block the flow of said reactive species to the cells of the other groups; characterized in that at least one first cell from among said electrochemical cells comprises a homogenization compartment including: o a plurality of longitudinal ducts designed to receive the flow of said reactive species coming from the supply collector of the corresponding group, and to distribute it at the input of the distribution circuit of the first cell; o and a transverse homogenization duct fluidically linking the longitudinal ducts to one another. o said electrochemical cells (10A, 10B) being distributed into N separate groups (A, B) of cells, N ≥ 2; o each electrochemical cell (10A, 10B) including a distribution circuit (50A, 50B) designed to distribute a reactive species at an electrode (21A, 21B) of the cell; o each group of cells (A; B) including a separate supply collector (2A; 2B) positioned upstream of an input (51A; 51B) of the distribution circuit (50A; 50B) of each cell of the stack and designed to allow said reactive species to flow to said input of the distribution circuit of the cells (10A, 10B) of said group and to block the flow of said reactive species to the cells of the other groups; o a plurality of longitudinal ducts designed to receive the flow of said reactive species coming from the supply collector of the corresponding group, and to distribute it at the input of the distribution circuit of the first cell; o and a transverse homogenization duct fluidically linking the longitudinal ducts to one another.
A light emitting device comprising: a first conductive semiconductor layer; a second conductive semiconductor layer; and an active layer interposed between the first and second conductive semiconductor layers (130, 150), wherein the first conductive semiconductor layer, the active layer, and the second conductive semiconductor layer include Al, wherein the second conductive semiconductor layer has an Al content higher than the Al content of the first conductive semiconductor layer, and wherein the first conductive semiconductor layer has an Al content higher than the Al content of the active layer, wherein the second conductive semiconductor layer includes a first layer without Al on the active layer, a second layer including Al on the first layer, and a third layer without Al on the second layer, wherein the second layer has a thickness of about 800Å to about 1200Å, and wherein the second conductive semiconductor layer includes a p-type semiconductor layer having a composition formula of Al x Ga 1-x N (0.1≤x≤0.3), characterized in that the first conductive semiconductor layer is an n-type semiconductor layer having a composition formula of Al x Ga 1-x N (0.02≤x≤0.08), and the active layer includes a plurality of quantum well layers (140b, 140d) and a plurality of barrier layers (140a, 140c, 140e), and the quantum well layers (140b, 140c) have a composition formula of Al x In y Ga 1-x-y N (0≤x≤0.005, 0.1≤y≤0.3), and the quantum barrier layers (140a, 140c, 140e) have a composition formula of Al x Ga 1-x N (0.01≤x≤0.03). a first conductive semiconductor layer; a second conductive semiconductor layer; and an active layer interposed between the first and second conductive semiconductor layers (130, 150), wherein the first conductive semiconductor layer, the active layer, and the second conductive semiconductor layer include Al, wherein the second conductive semiconductor layer has an Al content higher than the Al content of the first conductive semiconductor layer, and wherein the first conductive semiconductor layer has an Al content higher than the Al content of the active layer, wherein the second conductive semiconductor layer includes a first layer without Al on the active layer, a second layer including Al on the first layer, and a third layer without Al on the second layer, wherein the second layer has a thickness of about 800Å to about 1200Å, and wherein the second conductive semiconductor layer includes a p-type semiconductor layer having a composition formula of Al x Ga 1-x N (0.1≤x≤0.3), characterized in that the first conductive semiconductor layer is an n-type semiconductor layer having a composition formula of Al x Ga 1-x N (0.02≤x≤0.08), and the active layer includes a plurality of quantum well layers (140b, 140d) and a plurality of barrier layers (140a, 140c, 140e), and the quantum well layers (140b, 140c) have a composition formula of Al x In y Ga 1-x-y N (0≤x≤0.005, 0.1≤y≤0.3), and the quantum barrier layers (140a, 140c, 140e) have a composition formula of Al x Ga 1-x N (0.01≤x≤0.03).
A method for generating an image that depicts blood flow in a subject's vasculature using an ultrasound imaging system, the steps of the method comprising: (a) acquiring ultrasound signal data from a field-of-view in a subject; (b) dividing the acquired ultrasound data into a plurality of ultrasound data submatrices each corresponding to a subvolume of the field-of-interest; (c) performing a low-rank matrix decomposition on each ultrasound data submatrix, thereby generating decomposed data that includes decomposed matrix values for each ultrasound data submatrix; (d) estimating at least one of a low-order cutoff value based on the decomposed data or a high-order cutoff value based on the decomposed data, wherein the low-order cutoff value differentiates signals attributable to tissue from signals attributable to blood flow and the high-order cutoff value differentiates signals attributable to blood flow from signal attributable to noise; (e) extracting signals that are attributable to blood flow in the subject's vasculature from each ultrasound data submatrix using the at least one of the low-order cutoff value or high-order cutoff value; and (f) combining the extracted signals to generate an image that depicts blood flow in the subject's vasculature in the field-of-view. (a) acquiring ultrasound signal data from a field-of-view in a subject; (b) dividing the acquired ultrasound data into a plurality of ultrasound data submatrices each corresponding to a subvolume of the field-of-interest; (c) performing a low-rank matrix decomposition on each ultrasound data submatrix, thereby generating decomposed data that includes decomposed matrix values for each ultrasound data submatrix; (d) estimating at least one of a low-order cutoff value based on the decomposed data or a high-order cutoff value based on the decomposed data, wherein the low-order cutoff value differentiates signals attributable to tissue from signals attributable to blood flow and the high-order cutoff value differentiates signals attributable to blood flow from signal attributable to noise; (e) extracting signals that are attributable to blood flow in the subject's vasculature from each ultrasound data submatrix using the at least one of the low-order cutoff value or high-order cutoff value; and (f) combining the extracted signals to generate an image that depicts blood flow in the subject's vasculature in the field-of-view.
A wireless communication method, wherein the method comprises: determining, by a first base station, a second timing for sending a first symbol to a terminal; determining, by the first base station, a first timing for sending the first symbol to a second base station, wherein the first timing is at least determined by the second timing and a time offset between base stations; and sending, by the first base station, the first symbol to the second base station by using the first timing, characterized in that a second symbol before the first symbol is not used for signal communication, and the second symbol and the first symbol are consecutive. determining, by a first base station, a second timing for sending a first symbol to a terminal; determining, by the first base station, a first timing for sending the first symbol to a second base station, wherein the first timing is at least determined by the second timing and a time offset between base stations; and sending, by the first base station, the first symbol to the second base station by using the first timing, characterized in that a second symbol before the first symbol is not used for signal communication, and the second symbol and the first symbol are consecutive.
Locking mechanism for cargo vehicle doors, comprising - a handle attached to - a base fastened to the outer side of a door of the cargo vehicle by means of - a rotation axis, actuating said handle upon - a slider arranged on the base, having a first wedge-shaped end and a second end, and sliding relative to - an anchorage being arranged on the outer frame of the door, and - a compression spring contacting the second end of the slider, in such a way that - in a locking position the first wedge-shaped end of the slider is retained in the anchorage, - and the compression spring pushes the slider towards its initial position allowing fitting the first slider in the anchorage and closing the door by it being pushed by the user, the locking mechanism being characterized in that it comprises - a double torsion spring arranged on the rotation axis and fastened to the handle, which in turn comprises a central protrusion, wherein - the anchorage comprises a cylinder, in which the first wedge-shaped end of the slider is retained in the locking position, - rotation of the handle around the rotation axis causes rotation of the double torsion spring and pushing of its central protrusion over the slider which slides releasing the first end thereof from the cylinder of the anchorage, thus opening the door. - a handle attached to - a base fastened to the outer side of a door of the cargo vehicle by means of - a rotation axis, actuating said handle upon - a slider arranged on the base, having a first wedge-shaped end and a second end, and sliding relative to - an anchorage being arranged on the outer frame of the door, and - a compression spring contacting the second end of the slider, in such a way that - in a locking position the first wedge-shaped end of the slider is retained in the anchorage, - and the compression spring pushes the slider towards its initial position allowing fitting the first slider in the anchorage and closing the door by it being pushed by the user, the locking mechanism being characterized in that it comprises - a double torsion spring arranged on the rotation axis and fastened to the handle, which in turn comprises a central protrusion, wherein - the anchorage comprises a cylinder, in which the first wedge-shaped end of the slider is retained in the locking position, - rotation of the handle around the rotation axis causes rotation of the double torsion spring and pushing of its central protrusion over the slider which slides releasing the first end thereof from the cylinder of the anchorage, thus opening the door.
An apparatus for inline storage of fluids from an animal, the apparatus comprising: a body having at least a first wall and a second wall forming an interior space; a fluid storage material disposed within the interior space; a first port coupled to the body and configured to be connected to a first multi-lumen conduit connectable to the animal at one end and having at least one sensing lumen and at least one reduced pressure lumen adapted to be fluidly coupled to the interior space; and a second port coupled to the body and configured to be connected to a second multi-lumen conduit connectable to a source of reduced pressure at one end and having at least one sensing lumen and at least one reduced pressure lumen adapted to be coupled to the interior space, characterised in that the apparatus comprises a first bypass conduit disposed within the interior space and having a first end fluidly connected to the first port to be fluidly coupled to the at least one sensing lumen of the first multi-lumen conduit and a second end fluidly connected to the second port to be fluidly coupled to the at least one sensing lumen of the second multi-lumen conduit. a body having at least a first wall and a second wall forming an interior space; a fluid storage material disposed within the interior space; a first port coupled to the body and configured to be connected to a first multi-lumen conduit connectable to the animal at one end and having at least one sensing lumen and at least one reduced pressure lumen adapted to be fluidly coupled to the interior space; and a second port coupled to the body and configured to be connected to a second multi-lumen conduit connectable to a source of reduced pressure at one end and having at least one sensing lumen and at least one reduced pressure lumen adapted to be coupled to the interior space, characterised in that the apparatus comprises a first bypass conduit disposed within the interior space and having a first end fluidly connected to the first port to be fluidly coupled to the at least one sensing lumen of the first multi-lumen conduit and a second end fluidly connected to the second port to be fluidly coupled to the at least one sensing lumen of the second multi-lumen conduit.
A vehicle, having bodywork which has a bodywork contour, having a headlamp which has a low-beam light source and light sectors (L1, L2, L3), wherein the low-beam light source projects a standard light distribution defining a center axis forward of the vehicle, the light sectors (L1, L2, L3) are provided to project light beams (21, 23, 25) for a cornering lighting function, which light beams (21, 23, 25) have center axes (22, 24, 26), at different angles (β1, β2, β3) from the center axis of the standard light distribution, having a control system which processes vehicle parameters and controls the standard light distribution and the light beams (21, 23, 25), and having an exterior mirror which contains at least one lighting unit that comprises at least one mirror blinker, wherein the lighting unit has means for illuminating the short-range area for a short-range cornering light, the short-range area extends forward at least outwardly from an extension of the exterior mirror in the driving direction to the body contour of the vehicle, and the control system is designed to activate the means below a threshold speed of the vehicle.
A system, for providing air to an inlet of a compressor of a non-aircraft-propelling auxiliary gas turbine engine of an aircraft having an aircraft-propelling gas turbine engine, characterized by comprising: a) a system turbine having an inlet and an outlet, wherein the inlet of the system turbine is adapted to receive compressed air from the aircraft; b) a system compressor mechanically coupled to the system turbine and having an inlet and an outlet, wherein the inlet of the system compressor is adapted to receive atmospheric air, and wherein the outlets of the system turbine and the system compressor are fluidly connectable to the inlet of the compressor of the auxiliary gas turbine engine. a) a system turbine having an inlet and an outlet, wherein the inlet of the system turbine is adapted to receive compressed air from the aircraft; b) a system compressor mechanically coupled to the system turbine and having an inlet and an outlet, wherein the inlet of the system compressor is adapted to receive atmospheric air, and wherein the outlets of the system turbine and the system compressor are fluidly connectable to the inlet of the compressor of the auxiliary gas turbine engine.
A method implemented by a Message Scripting Service, MSS, for a service layer supporting an IoT service through a set of Application Programming Interfaces, APIs, the method comprising: detecting a first device to connect to the IoT service; identifying a first API by performing a lookup to a library based on a type of the first device, wherein the library comprises RESTful APIs for publicly available devices; instantiating a first scripted request resource defined in the first API, wherein the first scripted request resource defines how an IoT application interacts with the first device; configuring an attribute of the first scripted request resource in accordance with a request received from the IoT application to interact with the first device; and controlling behaviors of the first device based on the first scripted request resource. detecting a first device to connect to the IoT service; identifying a first API by performing a lookup to a library based on a type of the first device, wherein the library comprises RESTful APIs for publicly available devices; instantiating a first scripted request resource defined in the first API, wherein the first scripted request resource defines how an IoT application interacts with the first device; configuring an attribute of the first scripted request resource in accordance with a request received from the IoT application to interact with the first device; and controlling behaviors of the first device based on the first scripted request resource.