mhurhangee/patent-ind-claim-en huggingface dataset:
An adjustment system for a flame detector, the adjustment system comprising: a flame detector ; a camera coupled to the flame detector , wherein the flame detector and the camera are moveably mounted on a mounting device ; a mobile device , wherein the mobile device comprises a transceiver , a processor , and a memory , wherein an adjustment application is stored in the memory that, when executed upon the processor , configures the processor to: receive an image of an environment from the camera ; determine a field of view of the flame detector based on an offset of the flame detector from the camera ; display an indicator of the field of view of the flame detector overlaid on the image; receive an input to adjust the field of view of the flame detector ; generate a movement signal; send the movement signal to the mounting device , wherein the flame detector and the camera are repositioned relative to the mounting device in response to the movement signal; receiving a second image from the camera after being repositioned; and displaying the second image with the indicator of the field of view of the flame detector overlaid on the second image. a flame detector ; a camera coupled to the flame detector , wherein the flame detector and the camera are moveably mounted on a mounting device ; a mobile device , wherein the mobile device comprises a transceiver , a processor , and a memory , wherein an adjustment application is stored in the memory that, when executed upon the processor , configures the processor to: receive an image of an environment from the camera ; determine a field of view of the flame detector based on an offset of the flame detector from the camera ; display an indicator of the field of view of the flame detector overlaid on the image; receive an input to adjust the field of view of the flame detector ; generate a movement signal; send the movement signal to the mounting device , wherein the flame detector and the camera are repositioned relative to the mounting device in response to the movement signal; receiving a second image from the camera after being repositioned; and displaying the second image with the indicator of the field of view of the flame detector overlaid on the second image. receive an image of an environment from the camera ; determine a field of view of the flame detector based on an offset of the flame detector from the camera ; display an indicator of the field of view of the flame detector overlaid on the image; receive an input to adjust the field of view of the flame detector ; generate a movement signal; send the movement signal to the mounting device , wherein the flame detector and the camera are repositioned relative to the mounting device in response to the movement signal; receiving a second image from the camera after being repositioned; and displaying the second image with the indicator of the field of view of the flame detector overlaid on the second image.
A device comprising: a. an anode contained in an anode chamber and a cathode contained in a cathode chamber, the two chambers being separated by at least one membrane which allows water molecules, either neutral or positively charged, to pass through the membrane from one chamber to the other, wherein the anode chamber consists of deionized water therein in contact with the anode and optionally oxygen and proton; b. an aqueous medium containing a biological system in the cathode chamber, the aqueous medium being in contact with the cathode, said biological system being capable of performing a NADH or NADPH dependent reductive biological process; c. a member for continuously recirculating the aqueous medium from an external vessel through the cathode chamber and back in to the external vessel, wherein the external vessel is a fermentation tank containing a fermentation broth comprising cells; d. an ultrafiltration system for filtering the aqueous medium to collect and recycle the cells therein into the fermentation tank, while allowing the cell-free broth to continue to the cathode chamber; e. an external power source providing a voltage between the anode and the cathode; and f. a detection instrumentation having control means for controlling the reductive biological process, wherein the control means is a continuous fluorometric detector for monitoring intracellular NADH or NADPH. a. an anode contained in an anode chamber and a cathode contained in a cathode chamber, the two chambers being separated by at least one membrane which allows water molecules, either neutral or positively charged, to pass through the membrane from one chamber to the other, wherein the anode chamber consists of deionized water therein in contact with the anode and optionally oxygen and proton; b. an aqueous medium containing a biological system in the cathode chamber, the aqueous medium being in contact with the cathode, said biological system being capable of performing a NADH or NADPH dependent reductive biological process; c. a member for continuously recirculating the aqueous medium from an external vessel through the cathode chamber and back in to the external vessel, wherein the external vessel is a fermentation tank containing a fermentation broth comprising cells; d. an ultrafiltration system for filtering the aqueous medium to collect and recycle the cells therein into the fermentation tank, while allowing the cell-free broth to continue to the cathode chamber; e. an external power source providing a voltage between the anode and the cathode; and f. a detection instrumentation having control means for controlling the reductive biological process, wherein the control means is a continuous fluorometric detector for monitoring intracellular NADH or NADPH.
A method for determining a local frequency in a wireless communication system, the method comprising: identifying frequency bands in use for communication; identifying, based on a first frequency band being in use for communication, a first subcarrier located at the center of the first frequency band among multiple subcarriers constituting the first frequency band; determining the local frequency based on a starting frequency of the first frequency band and an ending frequency of the first frequency band when no subcarrier is arranged in a direct current, DC, component of the first frequency band; and determining the frequency between the first subcarrier and a second subcarrier closest to the first subcarrier as the local frequency when a subcarrier is arranged in the DC component of the first frequency band. identifying frequency bands in use for communication; identifying, based on a first frequency band being in use for communication, a first subcarrier located at the center of the first frequency band among multiple subcarriers constituting the first frequency band; determining the local frequency based on a starting frequency of the first frequency band and an ending frequency of the first frequency band when no subcarrier is arranged in a direct current, DC, component of the first frequency band; and determining the frequency between the first subcarrier and a second subcarrier closest to the first subcarrier as the local frequency when a subcarrier is arranged in the DC component of the first frequency band.
An absorption refrigerator having an alternating current (AC) powered heater for providing heat to an absorption cooling unit , characterized by : a heater power control electronics subsystem including a voltage measurement subsystem , the voltage measurement subsystem configured to measure a magnitude of an AC mains voltage being used to power the absorption refrigerator , and to detect when the AC mains voltage varies from a nominal voltage rating; and an electronic controller in communication with the heater power control electronics subsystem , and configured to use a measured value of the AC mains voltage to determine a pulse width modulated (PWM) duty cycle value needed for powering the heater when the AC mains voltage varies from the nominal voltage rating, and to provide a PWM AC drive signal to the heater having a power level that takes into account the variation from the nominal mains voltage. a heater power control electronics subsystem including a voltage measurement subsystem , the voltage measurement subsystem configured to measure a magnitude of an AC mains voltage being used to power the absorption refrigerator , and to detect when the AC mains voltage varies from a nominal voltage rating; and an electronic controller in communication with the heater power control electronics subsystem , and configured to use a measured value of the AC mains voltage to determine a pulse width modulated (PWM) duty cycle value needed for powering the heater when the AC mains voltage varies from the nominal voltage rating, and to provide a PWM AC drive signal to the heater having a power level that takes into account the variation from the nominal mains voltage.
An apparatus , comprising: processing circuitry responsive to a bounded pointer generation request to perform a generation operation to generate a bounded pointer from specified data provided at least one generation condition is met, the bounded pointer comprising a pointer value and associated attributes, the associated attributes including range information indicative of an allowable range of addresses when using said pointer value; the processing circuitry being responsive to detection from the specified data that the bounded pointer to be generated is a signed bounded pointer incorporating a signature, to perform as part of the generation operation, at least when a signing condition is met, an insert signature operation during which the signature is determined from a portion of the specified data and incorporated within the generated bounded pointer within a plurality of specified bits whose content within an unsigned version of the bounded pointer is reproducible from other bits of the bounded pointer; and storage to store the bounded pointer generated by the processing circuitry. processing circuitry responsive to a bounded pointer generation request to perform a generation operation to generate a bounded pointer from specified data provided at least one generation condition is met, the bounded pointer comprising a pointer value and associated attributes, the associated attributes including range information indicative of an allowable range of addresses when using said pointer value; the processing circuitry being responsive to detection from the specified data that the bounded pointer to be generated is a signed bounded pointer incorporating a signature, to perform as part of the generation operation, at least when a signing condition is met, an insert signature operation during which the signature is determined from a portion of the specified data and incorporated within the generated bounded pointer within a plurality of specified bits whose content within an unsigned version of the bounded pointer is reproducible from other bits of the bounded pointer; and storage to store the bounded pointer generated by the processing circuitry.
An electronic device , comprising: a housing having a transparent layer ; adjustable decoration that is overlapped by the transparent layer , wherein the adjustable decoration is adjustable between a first appearance and a second appearance when viewed through the transparent layer ; and control circuitry configured to adjust the adjustable decoration repeatedly between the first appearance and the second appearance in response to an event, wherein the adjustable decoration includes a first decoration layer having a fixed pattern and includes a second decoration layer with an adjustable optical component. a housing having a transparent layer ; adjustable decoration that is overlapped by the transparent layer , wherein the adjustable decoration is adjustable between a first appearance and a second appearance when viewed through the transparent layer ; and control circuitry configured to adjust the adjustable decoration repeatedly between the first appearance and the second appearance in response to an event, wherein the adjustable decoration includes a first decoration layer having a fixed pattern and includes a second decoration layer with an adjustable optical component.
A method for performing an over the air calibration for wireless communications by a user equipment, UE, comprising: sending a first reference signal, RS, to a base station, BS, wherein the first RS comprises a sounding reference signal, SRS, and wherein the SRS has a particular SRS sequence indicating a calibration request; estimating a first channel from the BS to the UE based on a second RS received from the BS; receiving , from the BS, a representation of a second channel from the UE to the BS determined based on the first RS, wherein the representation of the second channel comprises: a subset of an estimate of the second channel, or an estimate of a covariance matrix for the second channel, or one or more eigenvectors and/or eigenvalues of the estimate of the second channel, or the covariance matrix for the second channel; and performing a calibration for a transmission to the BS based in part on the first channel estimate and the representation of the second channel. sending a first reference signal, RS, to a base station, BS, wherein the first RS comprises a sounding reference signal, SRS, and wherein the SRS has a particular SRS sequence indicating a calibration request; estimating a first channel from the BS to the UE based on a second RS received from the BS; receiving , from the BS, a representation of a second channel from the UE to the BS determined based on the first RS, wherein the representation of the second channel comprises: a subset of an estimate of the second channel, or an estimate of a covariance matrix for the second channel, or one or more eigenvectors and/or eigenvalues of the estimate of the second channel, or the covariance matrix for the second channel; and a subset of an estimate of the second channel, or an estimate of a covariance matrix for the second channel, or one or more eigenvectors and/or eigenvalues of the estimate of the second channel, or the covariance matrix for the second channel; and performing a calibration for a transmission to the BS based in part on the first channel estimate and the representation of the second channel.
Tool pivot unit that can be mounted at a mounting point of a tool carrier of a lathe, comprising a mounting shank for insertion into a mounting opening in the tool carrier , comprising a drive shaft which is coupled to a rotary drive of a servomotor or can be coupled to a rotary drive of the tool carrier and can be driven so as to pivot about a drive shaft axis by means of a rotational movement of the rotary drive , comprising an output shaft driven by the drive shaft , and comprising a tool holder which is connected to the output shaft for conjoint rotation and is intended for holding a cutting plate , the cutting edge (4, 4', 4") of which lies in a pivot plane which extends perpendicularly to the output shaft axis and in which the cutting plate can be pivoted by means of the rotary drive , characterised in that the mounting shank lies in the pivot plane .
Measurement apparatus for analyzing a measurement signal, comprising: an input port , adapted to receive a measurement signal; a touch-screen , adapted to display a waveform of the received measurement signal and to receive a multi-digit touch gesture, the multi-digit touch gesture comprising at least a first touch gesture and a second touch gesture ; and a measurement signal processing device , adapted to determine an operation and a range of the measurement signal based on the received multi-digit touch gesture, and to perform a processing of the measurement signal based on the determined operation and the determined range, characterized in that the measurement signal processing device is configured to analyze the measurement signal to identify a characteristic parameter in the determined range of the measurement signal, wherein the characteristic parameter comprises at least one of a minimum value of the measurement signal, a maximum value of the measurement signal, a rising time of the measurement signal, a falling time of the measurement signal, a duty cycle of the measurement signal, and an uptime of the measurement signal. an input port , adapted to receive a measurement signal; a touch-screen , adapted to display a waveform of the received measurement signal and to receive a multi-digit touch gesture, the multi-digit touch gesture comprising at least a first touch gesture and a second touch gesture ; and a measurement signal processing device , adapted to determine an operation and a range of the measurement signal based on the received multi-digit touch gesture, and to perform a processing of the measurement signal based on the determined operation and the determined range, characterized in that the measurement signal processing device is configured to analyze the measurement signal to identify a characteristic parameter in the determined range of the measurement signal, wherein the characteristic parameter comprises at least one of a minimum value of the measurement signal, a maximum value of the measurement signal, a rising time of the measurement signal, a falling time of the measurement signal, a duty cycle of the measurement signal, and an uptime of the measurement signal.
A surgical assembly, comprising, a first surgical instrument ; a second surgical instrument for use by an operator in a surgical procedure, said second surgical instrument comprising: a handle assembly comprising a primary interface, said primary interface comprising a plurality of primary controls; an elongate shaft extending distally from said handle assembly; and an end effector extending distally from said elongate shaft, wherein said plurality of primary controls are manually operable to actuate said end effector; characterized in that the surgical assembly further comprises a remote operating unit comprising a secondary interface , said secondary interface comprising a plurality of secondary controls, wherein said plurality of secondary controls are operable to remotely actuate said end effector ; wherein the remote operating unit is included or integrated with the first surgical instrument and is utilized to operate the second surgical instrument. a first surgical instrument ; a second surgical instrument for use by an operator in a surgical procedure, said second surgical instrument comprising: a handle assembly comprising a primary interface, said primary interface comprising a plurality of primary controls; an elongate shaft extending distally from said handle assembly; and an end effector extending distally from said elongate shaft, wherein said plurality of primary controls are manually operable to actuate said end effector; characterized in that the surgical assembly further comprises an elongate shaft extending distally from said handle assembly; and an end effector extending distally from said elongate shaft, wherein said plurality of primary controls are manually operable to actuate said end effector; characterized in that the surgical assembly further comprises a remote operating unit comprising a secondary interface , said secondary interface comprising a plurality of secondary controls, wherein said plurality of secondary controls are operable to remotely actuate said end effector ; wherein the remote operating unit is included or integrated with the first surgical instrument and is utilized to operate the second surgical instrument.
A wide array printhead module comprising: a plurality of printhead die , each of the printhead die comprising: a number of nozzles to eject ink on a print medium, the number of nozzles forming a number of primitives , each printhead die comprising a plurality of primitives; and a nozzle firing heater coupled to each of the nozzles; and one application specific integrated circuit (ASIC) with delay circuitry configured to control a number of activation pulses that activate the nozzle firing heaters for each of the nozzles associated with the primitives; in which the activation pulses are delayed between each of the primitives via internal delays which are delays between the plurality of primitives of each printhead die and external delays which are delays between the ejections of ink between the plurality of printhead die to reduce peak power demands of the printhead die, and characterized in that the ASIC with delay circuitry is configured to calibrate the internal delays within each printhead die. a plurality of printhead die , each of the printhead die comprising: a number of nozzles to eject ink on a print medium, the number of nozzles forming a number of primitives , each printhead die comprising a plurality of primitives; and a nozzle firing heater coupled to each of the nozzles; and one application specific integrated circuit (ASIC) with delay circuitry configured to control a number of activation pulses that activate the nozzle firing heaters for each of the nozzles associated with the primitives; in which the activation pulses are delayed between each of the primitives via internal delays which are delays between the plurality of primitives of each printhead die and external delays which are delays between the ejections of ink between the plurality of printhead die to reduce peak power demands of the printhead die, and a number of nozzles to eject ink on a print medium, the number of nozzles forming a number of primitives , each printhead die comprising a plurality of primitives; and a nozzle firing heater coupled to each of the nozzles; and one application specific integrated circuit (ASIC) with delay circuitry configured to control a number of activation pulses that activate the nozzle firing heaters for each of the nozzles associated with the primitives; in which the activation pulses are delayed between each of the primitives via internal delays which are delays between the plurality of primitives of each printhead die and external delays which are delays between the ejections of ink between the plurality of printhead die to reduce peak power demands of the printhead die, and characterized in that the ASIC with delay circuitry is configured to calibrate the internal delays within each printhead die.