mhurhangee/ep-ind-claims huggingface dataset:
Downmixer for downmixing at least two channels of a multichannel audio signal having the at least two channels, comprising: a processor for calculating a partial downmix signal from the at least two channels using adding the at least two channels; a complementary signal calculator for calculating a complementary signal from the multichannel audio signal, the complementary signal being different from the partial downmix signal, wherein the complementary signal calculator is configured to use, for calculating the complementary signal, one signal of the following group of signals comprising a first channel of the at least two channels, a second channel of the at least two channels, a difference between the first channel and the second channel, a difference between the second channel and the first channel, a decorrelated first channel, a decorrelated second channel, a decorrelated further channel, a decorrelated difference involving the first channel and the second channel, and a decorrelated partial downmix signal; and an adder for adding the partial downmix signal and the complementary signal to obtain a downmix signal of the multichannel audio signal. a processor for calculating a partial downmix signal from the at least two channels using adding the at least two channels; a complementary signal calculator for calculating a complementary signal from the multichannel audio signal, the complementary signal being different from the partial downmix signal, wherein the complementary signal calculator is configured to use, for calculating the complementary signal, one signal of the following group of signals comprising a first channel of the at least two channels, a second channel of the at least two channels, a difference between the first channel and the second channel, a difference between the second channel and the first channel, a decorrelated first channel, a decorrelated second channel, a decorrelated further channel, a decorrelated difference involving the first channel and the second channel, and a decorrelated partial downmix signal; and an adder for adding the partial downmix signal and the complementary signal to obtain a downmix signal of the multichannel audio signal.
Method of measuring dose distribution in a phantom for radiation therapy treatment verification, wherein a plurality of diode detectors are arranged in said phantom and wherein said phantom is irradiated using a patient specific treatment, said method comprising the steps of: irradiating said phantom, using a patient specific treatment, in several projections, obtaining information regarding the dose distribution inside said phantom by performing measurements using said detectors; characterized by: arranging said detectors as two non-parallel detector planes (20, 21, 40, 40',40"), each detector plane comprising a plurality of detectors arranged as one of a number of detector lines, each line representing a one-dimensional array or a zigzag pattern, and/or a two-dimensional array, and said obtaining information comprising measuring the dose distribution for each projection, and integrating the measured dose distribution for each projection and for all projections; dividing the measurements in time-intervals, each time-interval having maximum length of approximately 100 msec; and using said information in the treatment verification.
Mirror replacement system as a camera monitor system of a motor vehicle, in particular a commercial vehicle, having at least one camera which captures and records an environment of the motor vehicle in a camera image in real time, having at least one control device which is supplied with image data from the at least one camera for processing, and having at least one monitor (5, 11) as a screen in the field of view of a driver, which monitor is connected to the at least one control device for the purpose of representing a monitor image of the current camera image captured by the at least one camera, wherein the control device is used to display information representations in the monitor image, which information representations are obtained by evaluating a vehicle sensor system and/or are produced by processing information from the camera image and/or are generated by evaluating data wirelessly transmitted by other vehicles or stationary objects, and wherein the displayed information representation is respectively inserted into an image representation in a perspectively correct manner as so-called "augmented reality" in the monitor image, characterized in that lettering shown in an inverted manner and/or traffic signs shown in an inverted manner is/are recognized by means of character recognition and/or traffic sign recognition in the representation of the monitor image which is similar to a rear-view mirror and is/are reflected by means of an algorithm and is/are represented in a true-sided manner.
A method of making, manufacturing and/or producing engineered orthopedic soft tissue comprising applying more than one force to a polymer and crosslinking the polymer while the more than one forces are applied under conditions and for a time to allow the fiber orientation of the engineered orthopedic soft tissue to mimic or recapitulate the fiber orientation of naturally occurring orthopedic soft tissue and wherein the more than one forces are applied in multiple directions.
A power generation system that includes a battery charging system comprising: a first generator; a first battery charger that is adapted to charge a first battery and a second battery, wherein the first battery and the second battery are each adapted to provide power to start the first generator, a second battery charger that is adapted to charge the second battery, and a controller adapted to determine a state of charge for each of the first battery and the second battery, characterized in that the controller is further adapted to operate the first battery charger to provide charging current to one of the first battery and the second battery based on the state of charge for each of the first battery and the second battery, wherein the first battery charger is connected to the second battery charger such that the first battery charger and the second battery charger are able to exchange power. a first generator; a first battery charger that is adapted to charge a first battery and a second battery, wherein the first battery and the second battery are each adapted to provide power to start the first generator, a second battery charger that is adapted to charge the second battery, and a controller adapted to determine a state of charge for each of the first battery and the second battery, characterized in that the controller is further adapted to operate the first battery charger to provide charging current to one of the first battery and the second battery based on the state of charge for each of the first battery and the second battery, wherein the first battery charger is connected to the second battery charger such that the first battery charger and the second battery charger are able to exchange power.
A sulfur recovery system comprising: a reaction furnace; a sulfur recovery block connected to the reaction furnace for receiving an effluent stream from the reaction furnace; a pressure control valve positioned downstream from the sulfur recovery block for controlling the operating pressure of the sulfur recovery block; an ejector connected to the reaction furnace for providing a mixture comprising a motive fluid and a fresh acid gas to the reaction furnace; a motive fluid supply line for providing the motive fluid to the ejector; an acid gas supply line for providing the fresh acid gas to the ejector; and a combustion gas supply line connected to the reaction furnace for providing a combustion gas comprising oxygen to the reaction furnace. a reaction furnace; a sulfur recovery block connected to the reaction furnace for receiving an effluent stream from the reaction furnace; a pressure control valve positioned downstream from the sulfur recovery block for controlling the operating pressure of the sulfur recovery block; an ejector connected to the reaction furnace for providing a mixture comprising a motive fluid and a fresh acid gas to the reaction furnace; a motive fluid supply line for providing the motive fluid to the ejector; an acid gas supply line for providing the fresh acid gas to the ejector; and a combustion gas supply line connected to the reaction furnace for providing a combustion gas comprising oxygen to the reaction furnace.
A multilayer luminous film having a plurality of light-emitting diodes, a conductor layer for the electrical connection of the light-emitting diodes and a carrier layer, the luminous film having a micro-optical layer with micro-optical components for producing homogeneous illumination, the light-emitting diodes having a spacing of between 8 millimeters and 100 millimeters, the microoptical layer having a structured surface having repeating microoptical regions, the microoptical regions being predominantly rotationally symmetrical starting from an optical center, which lies precisely above a light-emitting diode, the microoptical regions having a larger area than the light-emitting diodes, wherein the neighboring microoptical regions overlap and wherein the luminous film is designed to be rollable, the bending and/or rolling radius being between 1 cm and 10 cm.
A deployment module for a sensor array having a plurality of sensors and a cable connecting the plurality of sensors, the deployment module comprising: a deployment body that is expandable to hold the cable and retain a shape of the sensor array after deployment; and a support shell configured to support the sensor array and the expandable deployment body in a stowage state before deployment, the support shell having spaced walls configured to retain the cable separately from the plurality of sensors, characterised in that the deployment body is formed of a shape memory alloy and the spaced walls define discrete slots that each accommodate a segment of the cable corresponding to one of the plurality of sensors. a deployment body that is expandable to hold the cable and retain a shape of the sensor array after deployment; and a support shell configured to support the sensor array and the expandable deployment body in a stowage state before deployment, the support shell having spaced walls configured to retain the cable separately from the plurality of sensors, characterised in that the deployment body is formed of a shape memory alloy and the spaced walls define discrete slots that each accommodate a segment of the cable corresponding to one of the plurality of sensors.
A pusher base device for a double-action pusher centrifuge for separating a mixture into a solid cake (14, 15) and into a liquid, wherein a plurality of axial passage openings are provided in an outer ring region of the pusher base device which connect a front region and a rear region of a screen drum of the double-action pusher centrifuge in the installed state and the pusher base device comprises an inflow disk so that the mixture can be introduced into an empty space arising on the screen drum on a displacement of the solid cake (14, 15) in the operating state, characterized in that an inflow gap which is not interrupted in the peripheral direction and via which the mixture can be applied into the empty space on the screen drum is formed between an inflow edge of the inflow disk and a pusher base plate of the pusher base device with an inflow region.
A motorized door assembly comprising: a door positioned between opposing jambs (120a, 120b) of a door frame and movable between an open position and a closed position, wherein the door is pivotable about a pivot axis extending across the opposing jambs (120a, 120b); and a motor assembly mounted adjacent to the door, the motor assembly comprising: an electric motor; a plurality of drive gears; and a driven shaft operably connected to the door to pivot the door about the pivot axis; characterized in that the motor assembly further comprises a slip clutch, wherein the slip clutch includes a clutch plate that is slideable along the driven shaft, a drive plate driven by the electric motor via the drive gears, and a clutch spring urging the clutch plate into engagement with the drive plate, the clutch plate having a profiled face and the drive plate having a counter-profiled face for engagement with the profiled face. a motor assembly mounted adjacent to the door, the motor assembly comprising: an electric motor; a plurality of drive gears; and a driven shaft operably connected to the door to pivot the door about the pivot axis; characterized in that the motor assembly further comprises a slip clutch, an electric motor; a plurality of drive gears; and a driven shaft operably connected to the door to pivot the door about the pivot axis; characterized in that the motor assembly further comprises a slip clutch, wherein the slip clutch includes a clutch plate that is slideable along the driven shaft, a drive plate driven by the electric motor via the drive gears, and a clutch spring urging the clutch plate into engagement with the drive plate, the clutch plate having a profiled face and the drive plate having a counter-profiled face for engagement with the profiled face.
A data transmission method, comprising: determining, by a network device, a transmission resource used to transmit data, wherein a time domain resource occupied by the transmission resource is at least one time unit of a plurality of M time units comprised in one subframe, each time unit of the M time units is one of N types of time domain resources, a time length of at least one type of time domain resource in the N types of time domain resources is less than 1 ms, the N types of time domain resources comprise time domain resources whose time lengths are respectively one symbol, two symbols, three symbols, four symbols, seven symbols, and N is a positive integer and greater than 1; and performing, by the network device, data transmission with a terminal device on the determined transmission resource, wherein the transmission resource comprises a first transmission resource and a third transmission resource, the time domain resource occupied by the first transmission resource and the third transmission resource are respectively an i th time unit and a j th time unit in M time units included in one subframe, M is a positive integer greater than 1, i is a positive integer and no greater than M, j is a positive integer and no greater than M, i is not equal to j, wherein the first transmission resource and the third transmission resource occupy different frequency domain resources and carry same data. determining, by a network device, a transmission resource used to transmit data, wherein a time domain resource occupied by the transmission resource is at least one time unit of a plurality of M time units comprised in one subframe, each time unit of the M time units is one of N types of time domain resources, a time length of at least one type of time domain resource in the N types of time domain resources is less than 1 ms, the N types of time domain resources comprise time domain resources whose time lengths are respectively one symbol, two symbols, three symbols, four symbols, seven symbols, and N is a positive integer and greater than 1; and performing, by the network device, data transmission with a terminal device on the determined transmission resource, wherein the transmission resource comprises a first transmission resource and a third transmission resource, the time domain resource occupied by the first transmission resource and the third transmission resource are respectively an i th time unit and a j th time unit in M time units included in one subframe, M is a positive integer greater than 1, i is a positive integer and no greater than M, j is a positive integer and no greater than M, i is not equal to j, wherein the first transmission resource and the third transmission resource occupy different frequency domain resources and carry same data.
A composition based on tin tetrachloride anhydrous consisting of: - At least 5 % in weight of tin tetrachloride anhydrous - Between 3-15 % in weight of hydrochloric acid in water or - at least 5% in weight of tin tetrachloride anhydrous - between 3-15 % in weight of hydrochloric acid in water and - between 1-45 % in weight of a mixture of aliphatic polyalcohols - At least 5 % in weight of tin tetrachloride anhydrous - Between 3-15 % in weight of hydrochloric acid in water - at least 5% in weight of tin tetrachloride anhydrous - between 3-15 % in weight of hydrochloric acid in water and - between 1-45 % in weight of a mixture of aliphatic polyalcohols
A composition comprising a synthetic nanostructure that controls cholesterol influx and efflux in cancer cells for use in a method of treating cancer in a subject, wherein the synthetic nanostructure is a biomimic of mature, spherical high-density lipoprotein and/or is adapted to sequester cholesterol and wherein the synthetic nanostructure comprises a nanostructure core comprising an inorganic material and a shell and wherein the cancer is B-cell lymphoma, melanoma, or lymphoma, and wherein the cancer comprises cancer cells having an SR-B1 cell surface receptor.
An aerosol generating device comprising: at least one component accommodating space having an opening on an outer surface of the aerosol generating device and allowing a removable component to be accommodated therein through the opening; a controller configured to periodically generate a test signal; a detection signal generator configured to generate a flooding detection signal based on the test signal when a liquid is introduced through the opening; and a detection signal transmitter configured to receive a generated flooding detection signal and transmit the received flooding detection signal to the controller, wherein the controller is further configured to determine whether the aerosol generating device is flooded based on the flooding detection signal. at least one component accommodating space having an opening on an outer surface of the aerosol generating device and allowing a removable component to be accommodated therein through the opening; a controller configured to periodically generate a test signal; a detection signal generator configured to generate a flooding detection signal based on the test signal when a liquid is introduced through the opening; and a detection signal transmitter configured to receive a generated flooding detection signal and transmit the received flooding detection signal to the controller, wherein the controller is further configured to determine whether the aerosol generating device is flooded based on the flooding detection signal.
Use of a low-temperature coolant cooler for the indirect charge air cooling of an internal combustion engine, having a plurality of flat tubes which, in operation, are traversed by 700 to 1800 litres of coolant per hour and open out into coolant collecting tanks (4, 8; 34, 42) at both ends, wherein air guide devices, in particular air guide plates, are arranged between the flat tubes, around which charge air which is to be cooled flows, characterised by the following features: a) the flat tubes have a depth (23; 51) which is less than/equal to 20 millimetres; b) the coolant which traverses the flat tubes is deflected once or two times and a maximum of two times in the collecting tanks (4, 8; 34, 42); and c) the flat tubes are equipped at the inside with turbulence-generating devices. a) the flat tubes have a depth (23; 51) which is less than/equal to 20 millimetres; b) the coolant which traverses the flat tubes is deflected once or two times and a maximum of two times in the collecting tanks (4, 8; 34, 42); and c) the flat tubes are equipped at the inside with turbulence-generating devices.
A preparation method of an oxide stannate luminescent material, comprising the steps of: S1, providing raw materials of Ln compound, Eu compound and Sn compound according to the mole ratio of each element of the chemical formula Ln 2-x Eu x Sn 2 O 7, grinding and uniform mixing to form a mixture; wherein Ln is a metal selected from the group consisting of Gd, Y and La, and the scope of x is: 0.1≤x≤1.5; S2, pre-roasting the mixture for 3 to 5 hours under temperature of 300°C to 500°C, cooling to room-temperature, then grinding into mixing powder; S3, roasting the mixing powder for 1 to 24 hours under temperature of 1200°C to 1400°C, cooling to room-temperature, grinding, and obtaining the oxide stannate luminescent material. S1, providing raw materials of Ln compound, Eu compound and Sn compound according to the mole ratio of each element of the chemical formula Ln 2-x Eu x Sn 2 O 7, grinding and uniform mixing to form a mixture; wherein Ln is a metal selected from the group consisting of Gd, Y and La, and the scope of x is: 0.1≤x≤1.5; S2, pre-roasting the mixture for 3 to 5 hours under temperature of 300°C to 500°C, cooling to room-temperature, then grinding into mixing powder; S3, roasting the mixing powder for 1 to 24 hours under temperature of 1200°C to 1400°C, cooling to room-temperature, grinding, and obtaining the oxide stannate luminescent material.
An RFID tag (200; 300; 400; 500) comprising: first, second, and third RFID inlays (406; 506) included on a tag housing (202; 302; 402; 502), the first, second, and third RFID inlays (406; 506) each corresponding to a different rate identifier; a panel (204; 304; 404; 504) engaged with the housing (202; 302; 402; 502) and movable among first, second and third positions relative to the first, second, and third RFID inlays (406; 506), and including a plurality of RFID shorting structures (412; 512) each positioned to electrically contact one of the first, second, and third RFID inlays (406; 506) such that, in any of the first, second, and third positions, only one of the first, second, and third RFID inlays (406; 506) remains disconnected from any of the plurality of RFID shorting structures. first, second, and third RFID inlays (406; 506) included on a tag housing (202; 302; 402; 502), the first, second, and third RFID inlays (406; 506) each corresponding to a different rate identifier; a panel (204; 304; 404; 504) engaged with the housing (202; 302; 402; 502) and movable among first, second and third positions relative to the first, second, and third RFID inlays (406; 506), and including a plurality of RFID shorting structures (412; 512) each positioned to electrically contact one of the first, second, and third RFID inlays (406; 506) such that, in any of the first, second, and third positions, only one of the first, second, and third RFID inlays (406; 506) remains disconnected from any of the plurality of RFID shorting structures.
Lithium-ion battery having a first electrode, a second electrode and a gas-tight housing, wherein the electrodes are each in the form of a battery winding, wherein the first electrode, the second electrode and a separator which is situated between the said electrodes are wound into one another in a spiral manner, wherein the housing has a bottom face, a top face and at least one side face, and an electrolyte is arranged within the housing, characterized in that the battery winding extends only over a portion of the bottom face of the housing, so that a gap is formed circumferentially between the battery winding and the side face of the housing, it being possible for mass transport of the electrolyte to be performed through the said gap, wherein at least one capillary structure is arranged on the inside of a side face of the housing, wherein the at least one capillary structure extends from the bottom face to the top face of the housing.