mhurhangee/ep-ind-claims huggingface dataset:
A signal transmission method comprising: • determining, by a sending device, a target precoding matrix V, wherein V = -1 · H̃, H indicates a channel matrix between the sending device and a receiving device, H̃ indicates an equivalent channel matrix between the sending device and the receiving device, ( H̃ H · H̃) or ( H̃ · H̃ H) is a diagonal matrix, and H̃ is related to a transmission distance D between the sending device and the receiving device and an element spacing of an antenna of the receiving device, wherein an antenna of the sending device and the antenna of the receiving device both comprise a plurality of elements (S no); and • precoding a to be sent signal using the target precoding matrix V, thereby arriving at a precoded signal, and sending, by the sending device, the precoded signal to the receiving device. • determining, by a sending device, a target precoding matrix V, wherein V = -1 · H̃, H indicates a channel matrix between the sending device and a receiving device, H̃ indicates an equivalent channel matrix between the sending device and the receiving device, ( H̃ H · H̃) or ( H̃ · H̃ H) is a diagonal matrix, and H̃ is related to a transmission distance D between the sending device and the receiving device and an element spacing of an antenna of the receiving device, wherein an antenna of the sending device and the antenna of the receiving device both comprise a plurality of elements (S no); and • precoding a to be sent signal using the target precoding matrix V, thereby arriving at a precoded signal, and sending, by the sending device, the precoded signal to the receiving device.
1-[4-(4-{3-[ -2-methyl-pyrrolidin-1-yl]-propoxy}-phenoxy)-piperidin-1-yl]-ethanone salts characterized in that based on the dynamic vapor sorption analysis at 25 °C a.) showing deliquescence only above 70% relative humidity, i.e. the critical relative humidity value, determined in the range of 10 to 90% RH of the sorption curve, indicating of the onset of deliquescence, is at least 70%; or b.) not showing deliquescence, i.e. characterized by a value of 0.5 > Δm/ΔRH in the range of 10 to 90% RH of the sorption curve, wherein Δm = m 2 -m 1, the difference of the quasi-equilibrium relative mass changes m 2 and m 1 corresponding to the RH 2 and RH 1 relative humidity values and wherein Δ RH = RH 2 − RH 1 = 10, wherein the salts are selected from the group consisting of salts formed with sulfuric acid, oxalic acid and citric acid or the dihydrobromide salt. a.) showing deliquescence only above 70% relative humidity, i.e. the critical relative humidity value, determined in the range of 10 to 90% RH of the sorption curve, indicating of the onset of deliquescence, is at least 70%; or b.) not showing deliquescence, i.e. characterized by a value of 0.5 > Δm/ΔRH in the range of 10 to 90% RH of the sorption curve, wherein Δm = m 2 -m 1, the difference of the quasi-equilibrium relative mass changes m 2 and m 1 corresponding to the RH 2 and RH 1 relative humidity values and wherein Δ RH = RH 2 − RH 1 = 10,
A fire alarm system for use in a building, comprising: a gateway connected to a system control panel for allowing mobile device access to the system; a mobile device used by a technician and connected to the control panel; a fire alarm system control application on the mobile device, wherein the fire alarm control system application gains access to the control panel via the gateway; one or more fire alarm system devices including an indicator for generating a physical identification signal; a search utility in the fire alarm control system application for identifying a particular fire alarm system device that is in a specific condition or location; and a database accessible via the fire alarm control system application wherein location and condition information about the plurality of fire alarm system devices is located, such that the search utility can search the database and identify the particular fire alarm system device from the other of the plurality of fire alarm system devices; and wherein the fire alarm system control application on the mobile device includes a schematic map depicting an actual layout of the part of building the technician is traversing, including a location of the particular fire alarm system device depicted on the map, and wherein, when the particular fire alarm system device is commanded, the indicator of the particular fire alarm system device generates the physical identification signal to help the technician identify the correct device. a gateway connected to a system control panel for allowing mobile device access to the system; a mobile device used by a technician and connected to the control panel; a fire alarm system control application on the mobile device, wherein the fire alarm control system application gains access to the control panel via the gateway; one or more fire alarm system devices including an indicator for generating a physical identification signal; a search utility in the fire alarm control system application for identifying a particular fire alarm system device that is in a specific condition or location; and a database accessible via the fire alarm control system application wherein location and condition information about the plurality of fire alarm system devices is located, such that the search utility can search the database and identify the particular fire alarm system device from the other of the plurality of fire alarm system devices; and wherein the fire alarm system control application on the mobile device includes a schematic map depicting an actual layout of the part of building the technician is traversing, including a location of the particular fire alarm system device depicted on the map, and wherein, when the particular fire alarm system device is commanded, the indicator of the particular fire alarm system device generates the physical identification signal to help the technician identify the correct device.
An agricultural distribution apparatus for spreading granular material, the distribution apparatus comprising - a receptacle for the granular material; - a plurality of metering devices, which can separate granular material by means of a positive pressure and/or by means of a pressure difference; - a flow generating device, which has a housing as well as at least one fan wheel rotating in the housing, wherein the fan wheel and the housing are in operative connection to each other such that at least one first area and at least one second area can be formed in the housing, which areas have different flow velocities and/or different static pressure levels of an air stream; - at least one first line connection, which is in connection to the receptacle and which fluidically couples the one flow generating device to the plurality of metering devices in order to feed granular material to the metering devices by means of an air stream; - at least one second line connection, which fluidically couples the one flow generating device to the plurality of metering devices in order to separate the granular material in the metering devices by means of an air stream; and characterised in that the at least one first line connection line connection leads into the first area of the housing of the flow generating device, and wherein the at least one second line connection leads into the second area of the housing of the flow generating device, such that a particular air flow from the areas (10, 20) can be guided further to the particular line connection (12, 14) leading into the particular area (10, 20). - a receptacle for the granular material; - a plurality of metering devices, which can separate granular material by means of a positive pressure and/or by means of a pressure difference; - a flow generating device, which has a housing as well as at least one fan wheel rotating in the housing, wherein the fan wheel and the housing are in operative connection to each other such that at least one first area and at least one second area can be formed in the housing, which areas have different flow velocities and/or different static pressure levels of an air stream; - at least one first line connection, which is in connection to the receptacle and which fluidically couples the one flow generating device to the plurality of metering devices in order to feed granular material to the metering devices by means of an air stream; - at least one second line connection, which fluidically couples the one flow generating device to the plurality of metering devices in order to separate the granular material in the metering devices by means of an air stream; and characterised in that the at least one first line connection line connection leads into the first area of the housing of the flow generating device, and wherein the at least one second line connection leads into the second area of the housing of the flow generating device, such that a particular air flow from the areas (10, 20) can be guided further to the particular line connection (12, 14) leading into the particular area (10, 20).
A pneumatic control valve assembly for regulating the brake cylinder pressure of an automatic indirect compressed-air brake according to a pressure difference between a control pressure and a reference pressure acting oppositely upon a control piston, wherein means for a closing valve function are provided for the compressed air brake's accelerating device which stop the de-aeration of a KDR channel, that is provided for additional de-aeration, for terminating the initial acceleration, characterized in that the means for the closing valve function are configured in the form of a separate closing valve having a closing valve housing, wherein the separate closing valve comprises two overflow channels and so as to realize a connection between a control pressure chamber containing the control pressure and a reference pressure chamber containing the reference pressure, wherein a closing valve control piston cooperating with at least one return spring is arranged within the closing valve housing which can be actuated by the control pressure on the one hand, and the reference pressure on the other, and actuates a seat valve assembly via a piston rod for closing the KDR channel with respect to a de-aeration port (Ex) or a brake cylinder pressure port, wherein the seat valve assembly comprises an associated valve seat having a closing body that is arranged at the end side of the piston rod.
Method for operating a hydraulic vehicle brake system which has an anti-lock control device and a master brake cylinder with a controllable brake booster, at least one wheel brake, which is connected to the master brake cylinder via a brake pressure-increasing valve, a brake pressure-decreasing valve by which a wheel brake pressure of the at least one wheel brake can be decreased, and a hydraulic pump whose suction side is connected to the brake pressure-decreasing valve and whose pressure side is connected between the brake pressure-increasing valve and the master brake cylinder, and wherein during an anti-lock control operation, an extraneous force of the brake booster is reduced, characterized in that if the hydraulic pump is operated during an anti-lock control operation, an extraneous force of the brake booster is increased as a function of a pressure difference between the pressure side and the suction side of the hydraulic pump.
The use of a vapor space anticorrosive composition comprising at least one alkoxylated castor oil as a corrosion inhibitor and at least one surfactant, wherein the at least one surfactant is selected from alkylamine ethoxylates as a coolant used as an engine run-in composition.
Continuous flow machine, in particular jet engine of an aircraft, with a rotor apparatus and a stator apparatus, a sealing device (32; 60) being arranged between the rotor apparatus and the stator apparatus, which sealing device (32; 60) has a carrier arm (35; 61) which extends substantially in the axial direction, is connected fixedly to the rotor apparatus so as to rotate with it, and has a sealing lip on its side which faces the stator apparatus and an overlap with an adjoining surface of the rotor apparatus on its inner side, wherein at least one cooling air opening is arranged in the surface of the rotor apparatus in a region of the overlap of the carrier arm (35; 61) of the sealing device (32; 60) with the rotor apparatus, wherein the surface of the rotor apparatus forms, in the region of the overlap with the carrier arm (35; 61) of the sealing device (32; 60), two supporting regions (39, 40) for the carrier arm (35; 61) which are spaced apart in the axial direction, wherein the at least one cooling air opening is arranged between the supporting regions (39, 40) in the axial direction, characterized in that the rotor apparatus has further cooling air openings (46, 47) outside the overlap of the carrier arm (35; 61) of the sealing device with the rotor apparatus, via which cooling air can be conducted into a space which surrounds the sealing device, and wherein the carrier arm is moveable, dependent on the operating state, into a position in which an end region of the carrier arm is spaced apart from the downstream supporting region on the rotor surface, and in which the sealing lip can come into contact with a running-in layer of the stator apparatus.
A method of manufacturing nano-structures on a substrate, the method comprising: depositing a material layer on the substrate, wherein the material layer has a thickness below 1 μm; cutting out portions of the material layer; and removing the cut-out portions from the substrate; characterized in that cutting out portions of the material layer includes applying a cutting die (14, 14a-14e) to the material layer, wherein the cutting die (14, 14a-14e) has protruding portions with sharp circumferential edges, the edges cutting through the material layer when the cutting die (14, 14a-14e) is applied to the material layer; and the cut-out portions of the material layer are removed from the substrate by withdrawing the cutting die (14, 14a-14e), thereby pulling the cut-out portions off the substrate. depositing a material layer on the substrate, wherein the material layer has a thickness below 1 μm; cutting out portions of the material layer; and removing the cut-out portions from the substrate; characterized in that cutting out portions of the material layer includes applying a cutting die (14, 14a-14e) to the material layer, wherein the cutting die (14, 14a-14e) has protruding portions with sharp circumferential edges, the edges cutting through the material layer when the cutting die (14, 14a-14e) is applied to the material layer; and the cut-out portions of the material layer are removed from the substrate by withdrawing the cutting die (14, 14a-14e), thereby pulling the cut-out portions off the substrate.
A method for executing a machine learning model with a controller, the method comprising: writing, by a processor within the controller, one or more input values to a process image within the controller, wherein the process image is a predefined address space within volatile memory of the controller; reading, by a co-processor connected to the controller, the input values from the process image; applying, by the co-processor, a machine learning model to the one or more input values to generate one or more output values; writing, by the co-processor, the one or more output values to the process image; reading, by the processor, the one or more output values from the process image; and executing, by the processor, an application program that utilizes the one or more output values. writing, by a processor within the controller, one or more input values to a process image within the controller, wherein the process image is a predefined address space within volatile memory of the controller; reading, by a co-processor connected to the controller, the input values from the process image; applying, by the co-processor, a machine learning model to the one or more input values to generate one or more output values; writing, by the co-processor, the one or more output values to the process image; reading, by the processor, the one or more output values from the process image; and executing, by the processor, an application program that utilizes the one or more output values.
Method for regenerating a soot particle filter for purifying the exhaust gas of diesel engines, in particular in motor vehicles, characterised in that, in a first stage for measuring and detecting the flow rate, a gaseous medium flows through the removed soot particle filter to be regenerated, in that in a second stage the soot particle filter is rinsed with a first cleaning liquid "A" at a temperature between 60°C and 95°C for a period of approximately 5 to 30 minutes, in that in a third stage the soot particle filter is filled with an acidic cleaning liquid "B" and is also rinsed with the same after a residence time of approximately 100 to 220 minutes, in that in a fourth stage the soot particle filter is rinsed with heated clear water at a temperature of 60°C to 90°C for a period of approximately 10 minutes, and in that, in a fifth stage for measuring and detecting the flow rate, a gaseous medium again flows through and cleans the soot particle filter.
A laser processing method, comprising a step of processing a workpiece by relatively moving the workpiece with respect to a plurality of laser spots including a first spot, a second spot, and a third spot which are linearly arranged so that the first spot, the second spot, and the third spot pass through a processing target portion of the workpiece in this order, characterized in that to a total amount of energy of laser beam in the first spot, the second spot, and the third spot, a ratio of energy in the first spot is not less than 20% and not more than 30%, a ratio of energy in the second spot is not less than 20% and not more than 30%, and a ratio of energy in the third spot is not less than 45% and not more than 55%. characterized in that to a total amount of energy of laser beam in the first spot, the second spot, and the third spot, a ratio of energy in the first spot is not less than 20% and not more than 30%, a ratio of energy in the second spot is not less than 20% and not more than 30%, and a ratio of energy in the third spot is not less than 45% and not more than 55%.
Sensor having a substrate having a first side and an opposite second side, wherein at least one waveguide containing or consisting of diamond is arranged on the first side, wherein at least one NV centre is arranged in the waveguide, the substrate contains or consists of silicon oxide and/or silicon nitride and/or silicon oxynitride and/or silicon carbide and/or silicon, the substrate contains a component selected from at least one conductor loop and/or at least one antenna and/or at least one transistor and/or at least one capacitance and/or at least one resistor and/or at least one optoelectronic component, and the diamond layer is homoepitaxially produced on an auxiliary substrate and bonded onto the substrate and the diamond layer contains monocrystalline diamond, characterized in that the sensor contains at least one electrode on the top side of the waveguide, an electric field being able to be generated by means of said at least one electrode at least at the location of the NV centre.
Use of a polymer layer comprising a first area and a further area as a security feature that can be can visualised through moisture, wherein the polymer layer is comprised in a composite comprising: a) a substrate, comprising a substrate surface; b) the polymer layer comprising a polymer layer surface, wherein the polymer layer i) comprises a polymer, ii) at least partly superimposes the substrate surface; wherein the polymer layer surface comprises the first area and the further area; wherein an absolute value of a difference between a wetting angle for wetting with water of the first area and a wetting angle for wetting with water of the further area is at least 10°; wherein the polymer is an electrically conductive polymer. a) a substrate, comprising a substrate surface; b) the polymer layer comprising a polymer layer surface, wherein the polymer layer i) comprises a polymer, ii) at least partly superimposes the substrate surface; i) comprises a polymer, ii) at least partly superimposes the substrate surface;
A microfluidic chip for focussing of a stream of particulate containing fluid and analysis of the focussed stream, comprising: a microfluidic channel configured to receive the stream of particulate containing fluid; and a detection zone comprising one or more electrical sensors including at least one pair of electrodes including an excitation electrode (6, 6') and a detection electrode (7, 7') configured to detect AC impedance changes in the microfluidic channel corresponding to the stream of particulates passing between the electrodes, characterised in that the microfluidic chip comprises: a sample microfluidic channel configured to receive the stream of particulate containing fluid; a guidance microfluidic channel configured to receive a stream of guidance fluid and having a polygonal cross section; and a common microfluidic channel formed by the merging of the sample microfluidic channel and the guidance microfluidic channel at an oblique angle of 5° to 60° along a part of one side of the guidance microfluidic channel, wherein the merging of the sample microfluidic channel and the guidance microfluidic channel is configured to provide a composite fluid stream containing a focussed beam of particulates that is disposed asymmetrically in the common microfluidic channel adjacent a corner or a side of the common channel, wherein the at least one pair of electrodes is configured to detect AC impedance changes in the common microfluidic channel corresponding to the focussed beam of particulates passing between the electrodes. a microfluidic channel configured to receive the stream of particulate containing fluid; and a detection zone comprising one or more electrical sensors including at least one pair of electrodes including an excitation electrode (6, 6') and a detection electrode (7, 7') configured to detect AC impedance changes in the microfluidic channel corresponding to the stream of particulates passing between the electrodes, a sample microfluidic channel configured to receive the stream of particulate containing fluid; a guidance microfluidic channel configured to receive a stream of guidance fluid and having a polygonal cross section; and a common microfluidic channel formed by the merging of the sample microfluidic channel and the guidance microfluidic channel at an oblique angle of 5° to 60° along a part of one side of the guidance microfluidic channel, wherein the merging of the sample microfluidic channel and the guidance microfluidic channel is configured to provide a composite fluid stream containing a focussed beam of particulates that is disposed asymmetrically in the common microfluidic channel adjacent a corner or a side of the common channel, wherein the at least one pair of electrodes is configured to detect AC impedance changes in the common microfluidic channel corresponding to the focussed beam of particulates passing between the electrodes.