mhurhangee/patent-ind-claim-en huggingface dataset:
An induration machine , with • a travelling grate for transporting bulk material along a transport direction (T) from a heating zone for heating and/or drying the material to a cooling zone for cooling the material by cooling gas; • a hood disposed over the travelling grate having a first hood section in the heating zone and a second hood section in the cooling zone ; and • two recuperation ducts for guiding used cooling gas from the second hood section to the first hood section , wherein the recuperation ducts are disposed on opposite sides of the hood , are laterally offset with respect to the hood , and are connected to the second hood section by a V-shaped gas collector duct and each recuperation duct is connected to the first hood section by at least one gas supply duct and has at least one dust purge opening disposed in the lowermost part (11.1) of the recuperation duct for purging dust from the recuperation duct . • a travelling grate for transporting bulk material along a transport direction (T) from a heating zone for heating and/or drying the material to a cooling zone for cooling the material by cooling gas; • a hood disposed over the travelling grate having a first hood section in the heating zone and a second hood section in the cooling zone ; and • two recuperation ducts for guiding used cooling gas from the second hood section to the first hood section ,
Electrical circuit arrangement, configured to connect an electrical measuring device , which is used to measure partial discharges in a power grid having an operating voltage in the range from 1 kV to 69 kV, and which comprises an A/D converter for converting a measured voltage pulse into a digital signal and a microprocessor unit for evaluating the digital signal, to a measurement output of a capacitive voltage testing system of a power switching station for the power grid having the operating voltage in the range from 1 kV to 69 kV, wherein the electrical circuit arrangement comprises a frequency response matching resistor , which is connected between ground and an input line for connection to the live pole of the measurement output, and a high-pass filter connected downstream of the frequency response matching resistor .
A use solution of a mixture of a concentrated neutral floor treatment composition and water, the concentrated composition comprising: 1-50 wt-% of at least two water-insoluble surfactants, wherein a first surfactant is a branched alcohol alkoxylate and a second surfactant is an ethylene oxide/propylene oxide copolymer; and 1-50 wt-% of a water-soluble anionic hydrotrope; and 20-90 wt-% water, wherein the composition has a pH from 6 to 9, and forms a clear solution, and wherein the dilution with water provides a dispensing rate of the use solution of the concentrated neutral cleaning composition from 0.749 kg/m 3 (0.1 oz./gal) to 74.89 kg/m 3 (10 oz./gal). 1-50 wt-% of at least two water-insoluble surfactants, wherein a first surfactant is a branched alcohol alkoxylate and a second surfactant is an ethylene oxide/propylene oxide copolymer; and 1-50 wt-% of a water-soluble anionic hydrotrope; and 20-90 wt-% water, wherein the composition has a pH from 6 to 9, and
A method (M) for providing a safe operation of subsystems within a safety critical system , SCS, the method (M) comprising: assessing (M1), by a malfunctioning subsystem among the subsystems of the SCS , a malfunction within the malfunctioning subsystem ; sending (M2), by the malfunctioning subsystem of the SCS , a malfunction signal via a communication unit of the malfunctioning subsystem to communication units of the other subsystems among the subsystems of the SCS , wherein the malfunction signal includes a cryptographic key being unique to the malfunctioning subsystem ; the method further comprising the steps performed by a control unit of each of the other subsystems of the SCS of: decrypting (M3) the cryptographic key of the malfunction signal; initiating (M4) collective safety management of the malfunctioning subsystem and the other subsystems when the decrypted cryptographic key is valid; and communicating (M5) to the subsystems of the SCS that the cryptographic key of the malfunctioning subsystem is expired. assessing (M1), by a malfunctioning subsystem among the subsystems of the SCS , a malfunction within the malfunctioning subsystem ; sending (M2), by the malfunctioning subsystem of the SCS , a malfunction signal via a communication unit of the malfunctioning subsystem to communication units of the other subsystems among the subsystems of the SCS , wherein the malfunction signal includes a cryptographic key being unique to the malfunctioning subsystem ; the method further comprising the steps performed by a control unit of each of the other subsystems of the SCS of: decrypting (M3) the cryptographic key of the malfunction signal; initiating (M4) collective safety management of the malfunctioning subsystem and the other subsystems when the decrypted cryptographic key is valid; and communicating (M5) to the subsystems of the SCS that the cryptographic key of the malfunctioning subsystem is expired. decrypting (M3) the cryptographic key of the malfunction signal; initiating (M4) collective safety management of the malfunctioning subsystem and the other subsystems when the decrypted cryptographic key is valid; and communicating (M5) to the subsystems of the SCS that the cryptographic key of the malfunctioning subsystem is expired.
Domestic appliance , preferably a vacuum cleaner , particularly preferably an upright vacuum cleaner , the domestic appliance being designed to detect at least one vibration of at least one portion of the domestic appliance and/or at least one vibration-generating component of the domestic appliance , the domestic appliance being further designed to identify an operating state of the domestic appliance and/or of the vibration-generating component based on the detected vibration, the vibration-generating component being an electric motor, characterised in that the domestic appliance is further designed to determine a rotational speed of the electric motor based on the detected vibration, and the domestic appliance is further designed to regulate the rotational speed of the electric motor based on the determined rotational speed. the domestic appliance being designed to detect at least one vibration of at least one portion of the domestic appliance and/or at least one vibration-generating component of the domestic appliance , the domestic appliance being further designed to identify an operating state of the domestic appliance and/or of the vibration-generating component based on the detected vibration, the vibration-generating component being an electric motor, the domestic appliance is further designed to determine a rotational speed of the electric motor based on the detected vibration, and the domestic appliance is further designed to regulate the rotational speed of the electric motor based on the determined rotational speed.
A method to generate an amplitude-based modulated wireless signal based on orthogonal frequency-division multiplexing, OFDM, to be received by at least one low-power non-coherent receiver, the method comprising: generating, by a transmitter, the amplitude-based modulated wireless signal having Peak and Flat OFDM Symbols to be transmitted to the at least one low-power non-coherent receiver through a radio interface by coding binary data generating a given bit sequence using an OFDM block structure compliant with a given communication standard, characterized in that : the given bit sequence is uniform and is pre-scrambled before being introduced to the OFDM block structure using the same bit sequence that a Scrambler of the OFDM block structure will generate, has a length equal to the length of a payload OFDM symbol according to the given communication standard, and is aligned with OFDM symbol boundaries of the communication standard, so that the entire bit sequence is encoded jointly in the same OFDM symbol, and the amplitude-based modulated wireless signal having Peak and Flat OFDM Symbols is generated using a Peak to Average Power Ratio, PAPR, of the OFDM symbols to encode information, the Peak Symbols presenting a higher PAPR than the Flat Symbols. the given bit sequence is uniform and is pre-scrambled before being introduced to the OFDM block structure using the same bit sequence that a Scrambler of the OFDM block structure will generate, has a length equal to the length of a payload OFDM symbol according to the given communication standard, and is aligned with OFDM symbol boundaries of the communication standard, so that the entire bit sequence is encoded jointly in the same OFDM symbol, and the amplitude-based modulated wireless signal having Peak and Flat OFDM Symbols is generated using a Peak to Average Power Ratio, PAPR, of the OFDM symbols to encode information, the Peak Symbols presenting a higher PAPR than the Flat Symbols.
A method for transmitting reference signals for 8 antenna ports at a base station, the method comprising: transmitting common reference signals, CRSs, for M antenna ports in a downlink subframe including a first slot and a second slot, wherein the downlink subframe has an extended cyclic prefix, CP, and the downlink subframe having the extended CP has 12 orthogonal frequency division multiplexing, OFDM, symbols, where the OFDM symbol index starts from 0; and transmitting channel state information-reference signals, CSI-RSs, for the 8 antenna ports, the CSI-RSs being mapped to the downlink subframe according to a predetermined pattern, wherein the predetermined pattern defines the CSI-RSs for the 8 antenna ports to be mapped to two OFDM symbols in a data region of the downlink subframe, wherein the two OFDM symbols defined in the predetermined pattern for the CSI-RSs are second and third OFDM symbols of the second slot, and, wherein M is 1 or 2, wherein the CSI-RSs for the 8 antenna ports are subjected to code division multiplexing, CDM, using orthogonal codes, such that CSI-RSs for two antenna ports are multiplexed by CDM to the same OFDM symbol and the same subcarrier, and wherein the CSI-RSs for two antenna ports are spread in the time domain by CDM over the two OFDM symbols at the same subcarrier location. transmitting common reference signals, CRSs, for M antenna ports in a downlink subframe including a first slot and a second slot, wherein the downlink subframe has an extended cyclic prefix, CP, and the downlink subframe having the extended CP has 12 orthogonal frequency division multiplexing, OFDM, symbols, where the OFDM symbol index starts from 0; and transmitting channel state information-reference signals, CSI-RSs, for the 8 antenna ports, the CSI-RSs being mapped to the downlink subframe according to a predetermined pattern, wherein the predetermined pattern defines the CSI-RSs for the 8 antenna ports to be mapped to two OFDM symbols in a data region of the downlink subframe, wherein the two OFDM symbols defined in the predetermined pattern for the CSI-RSs are second and third OFDM symbols of the second slot, and, wherein M is 1 or 2, wherein the CSI-RSs for the 8 antenna ports are subjected to code division multiplexing, CDM, using orthogonal codes, such that CSI-RSs for two antenna ports are multiplexed by CDM to the same OFDM symbol and the same subcarrier, and wherein the CSI-RSs for two antenna ports are spread in the time domain by CDM over the two OFDM symbols at the same subcarrier location.
A transparency comprising: at least two sheets joined together; at least one sensor element responsive to moisture positioned between the at least two sheets ; sensor electronics operatively connected to the sensor element to measure an electrical property of the sensor element that changes as a function of corrosion caused by moisture, and at least one power source operatively connected to the sensor element and to the sensor electronics , characterized in that : the sensor electronics measure the electrical property of the sensor element to determine if the sensor element is a new sensor element, an operating sensor element, a saturated sensor element, or a broken sensor element, and in that a moisture seal overlays at least a portion of marginal edges of outer opposed surfaces and peripheral edges of the transparency . at least two sheets joined together; at least one sensor element responsive to moisture positioned between the at least two sheets ; sensor electronics operatively connected to the sensor element to measure an electrical property of the sensor element that changes as a function of corrosion caused by moisture, and at least one power source operatively connected to the sensor element and to the sensor electronics , characterized in that : the sensor electronics measure the electrical property of the sensor element to determine if the sensor element is a new sensor element, an operating sensor element, a saturated sensor element, or a broken sensor element, and in that a moisture seal overlays at least a portion of marginal edges of outer opposed surfaces and peripheral edges of the transparency . the sensor electronics measure the electrical property of the sensor element to determine if the sensor element is a new sensor element, an operating sensor element, a saturated sensor element, or a broken sensor element, and in that a moisture seal overlays at least a portion of marginal edges of outer opposed surfaces and peripheral edges of the transparency .
A system for the remote live auditing of biological samples while contained in a vessel filled with coolant fluid , the system comprising: one or more canisters , each of which comprises a connector and is configured to hold at least one container , each of which contains one or more biological samples and has associated therewith an RFID tag identifying the container in question; a docking assembly mountable on said vessel and comprising a plurality of connectors , each of which is configured to engage with the connector of one of said canisters , thereby providing an electrical connection between the docking assembly and the canister in question; wherein each canister is operable to wirelessly interrogate the RFID tags of the containers held therein, to receive information identifying the containers as a result of said interrogation, and to communicate this identifying information to the docking assembly via said electrical connection between the canister in question and the docking assembly ; characterized in that the docking assembly comprises a neck module configured to be mounted around the neck of the vessel and wherein the plurality of connectors for the docking assembly are provided on said neck module . one or more canisters , each of which comprises a connector and is configured to hold at least one container , each of which contains one or more biological samples and has associated therewith an RFID tag identifying the container in question; a docking assembly mountable on said vessel and comprising a plurality of connectors , each of which is configured to engage with the connector of one of said canisters , thereby providing an electrical connection between the docking assembly and the canister in question; wherein each canister is operable to wirelessly interrogate the RFID tags of the containers held therein, to receive information identifying the containers as a result of said interrogation, and to communicate this identifying information to the docking assembly via said electrical connection between the canister in question and the docking assembly ; characterized in that the docking assembly comprises a neck module configured to be mounted around the neck of the vessel and wherein the plurality of connectors for the docking assembly are provided on said neck module .
A method for preparing an antimicrobial elastomeric article, comprising: coating an elastomeric article with an antimicrobial coating composition comprising chlorhexidine to form an antimicrobial elastomeric article with a minimum concentration of chlorhexidine at its surface of greater than 7.6 μg/cm 2 ; and exposing the elastomeric article and the antimicrobial elastomeric article to an environment comprising 10.3 g/m 3 or less absolute humidity for a period of from 12 to 48 hours, wherein the temperature of the environment is from 10° C to 30° C; wherein the antimicrobial elastomeric article has an antimicrobial efficacy such that the number of microorganisms present on a surface of the antimicrobial elastomeric article is reduced by at least 4 log 10 within 5 minutes. coating an elastomeric article with an antimicrobial coating composition comprising chlorhexidine to form an antimicrobial elastomeric article with a minimum concentration of chlorhexidine at its surface of greater than 7.6 μg/cm 2 ; and exposing the elastomeric article and the antimicrobial elastomeric article to an environment comprising 10.3 g/m 3 or less absolute humidity for a period of from 12 to 48 hours, wherein the temperature of the environment is from 10° C to 30° C; wherein the antimicrobial elastomeric article has an antimicrobial efficacy such that the number of microorganisms present on a surface of the antimicrobial elastomeric article is reduced by at least 4 log 10 within 5 minutes.
Display apparatus for a motor vehicle , which is in the form of a head-up display apparatus and comprises, as components, - an image generating device and an optics device , wherein the image generating device is designed to emit light and the optics device is designed to project the light emitted by the image generating device onto a display element , which has a semi-transparent mirror surface, in order to provide a virtual display , - a control device , which is designed to determine a deviation of the determined position and/or inclination of the at least one of the components of the display apparatus from a predetermined reference position and/or reference inclination, and also - an adjustment device for adjusting the position and/or the inclination of the at least one of the components of the display apparatus in dependence on the deviation determined using the control device , wherein the display apparatus has a position sensor for determining a relative position and/or inclination of at least one of the components of the display apparatus with respect to a reference element of the motor vehicle , characterized in that the position sensor is in the form of a gyroscope. - an image generating device and an optics device , wherein the image generating device is designed to emit light and the optics device is designed to project the light emitted by the image generating device onto a display element , which has a semi-transparent mirror surface, in order to provide a virtual display , - a control device , which is designed to determine a deviation of the determined position and/or inclination of the at least one of the components of the display apparatus from a predetermined reference position and/or reference inclination, and also - an adjustment device for adjusting the position and/or the inclination of the at least one of the components of the display apparatus in dependence on the deviation determined using the control device , wherein the display apparatus has a position sensor for determining a relative position and/or inclination of at least one of the components of the display apparatus with respect to a reference element of the motor vehicle ,
An actuator controller comprising: an input interface configured to receive input signals from a site controller ; an output interface configured to send output signals to a valve actuator ; a processor in operative communication with the input interface and in operative communication with the output interface , the processor being configured to: employ the input interface to read a first input signal indicative of a first actuator position from the site controller ; after reading the first input signal, employ the input interface to read a second input signal indicative of a second actuator position from the site controller ; determine a difference value indicative of a difference between the actuator positions indicated by the first input signal and by the second input signal; determine a first output signal as a function of the first input signal and as a function of the second input signal; characterized in that if and only if the difference value exceeds a predetermined threshold: employ the output interface to send the first output signal to the valve actuator . an input interface configured to receive input signals from a site controller ; an output interface configured to send output signals to a valve actuator ; a processor in operative communication with the input interface and in operative communication with the output interface , the processor being configured to: employ the input interface to read a first input signal indicative of a first actuator position from the site controller ; after reading the first input signal, employ the input interface to read a second input signal indicative of a second actuator position from the site controller ; determine a difference value indicative of a difference between the actuator positions indicated by the first input signal and by the second input signal; determine a first output signal as a function of the first input signal and as a function of the second input signal; characterized in that if and only if the difference value exceeds a predetermined threshold: employ the output interface to send the first output signal to the valve actuator . employ the input interface to read a first input signal indicative of a first actuator position from the site controller ; after reading the first input signal, employ the input interface to read a second input signal indicative of a second actuator position from the site controller ; determine a difference value indicative of a difference between the actuator positions indicated by the first input signal and by the second input signal; determine a first output signal as a function of the first input signal and as a function of the second input signal; characterized in that if and only if the difference value exceeds a predetermined threshold: employ the output interface to send the first output signal to the valve actuator .