Abstract: According to various embodiments, a circuit for determining the frequency of a signal is described, comprising an input configured to receive an analog input signal, an analog to digital converter configured to convert the analog input signal to a digital input signal, a digital mixer configured to generate a mixing result signal by mixing the digital input signal with a single bit binary signal having a reference frequency, a low pass filter configured to generate a filtered signal by filtering the mixing result signal, a measuring circuit configured to measure the period of the filtered signal and an output configured to output a value differing from the frequency of the single bit binary signal by the inverse of the measured period as the frequency to be determined.

Abstract: Systems and methods are disclosed for analyzing different media to determine if the media originated from the same source. A two-part analysis is provided. During the first part, target data streams are analyzed to determine a template for the data stream or file, based upon the encoder used to encode the media transmitted in the data stream or stored in a file. After generating templates for the different streams, the templates are compared to determine which streams have matching templates. The second part of the analysis includes monitoring streams with matching templates to identify the same piece of media content in each of the streams. Upon identifying the same content, the content of each stream is synchronized and then compared to determine if the compared pieces of content were generated using the same encoder.

Abstract: An electronic device may be provided with an antenna, a receiver, and baseband circuitry coupled to the receiver over a digital interface. The receiver may receive radio-frequency signals using the antenna and may generate digital in-phase and quadrature-phase (I/Q) samples from the radio-frequency signals. The I/Q samples may have a bit width and may be transmitted to the baseband circuitry over the digital interface. The baseband circuitry may evaluate a radio condition of the receiver based on the I/Q samples. The baseband circuitry may adjust the bit width of the I/Q samples based on the radio condition. For example, the baseband circuitry may decrease the bit width when wireless performance metric data falls below a threshold and/or may increase the bit width when the wireless performance metric data exceeds a threshold. This may minimize power consumed by the digital interface without sacrificing wireless performance.

Abstract: A safety mechanism device includes measuring whether a first output signal or results meets dynamically adjustable boundary criterion. The safety mechanism compares the first output signal with at least one boundary signal that is dynamically adjusted. The safety mechanism can produce a dynamically or automatically adjusted boundary signal using a second output signal. The second output signal can mimic the first output signal.

Abstract: Systems and methods are disclosed for analyzing different media to determine if the media originated from the same source. A two-part analysis is provided. During the first part, target data streams are analyzed to determine a template for the data stream or file, based upon the encoder used to encode the media transmitted in the data stream or stored in a file. After generating templates for the different streams, the templates are compared to determine which streams have matching templates. The second part of the analysis includes monitoring streams with matching templates to identify the same piece of media content in each of the streams. Upon identifying the same content, the content of each stream is synchronized and then compared to determine if the compared pieces of content were generated using the same encoder.

Abstract: A safety mechanism device includes measuring whether a first output signal or results meets dynamically adjustable boundary criterion. The safety mechanism compares the first output signal with at least one boundary signal that is dynamically adjusted. The safety mechanism can produce a dynamically or automatically adjusted boundary signal using a second output signal. The second output signal can mimic the first output signal.

Abstract: Processing a resolver signal by a microcontroller includes generating, by a carrier signal generator, a carrier signal for output to a resolver; receiving modulated carrier signals from a resolver via hardware that is external to the microcontroller; integrating, by an integrator, respective integrator input signals which are based on the modulated carrier signals, to generate respective envelope signals, wherein a start of an integration window of the integrator is set with respect to a start of the carrier signal; and determining an angular position sensed by the resolver based on the envelope signals.

Abstract: A modularized system for conditioning liquid fuel is provided that includes a mobile trailer and a liquid fuel conditioning skid disposed on and secured to the mobile trailer. The modularized system includes a pre-filter sub-skid disposed on and secured to the liquid fuel conditioning skid that includes a pre-filter configured to remove impurities from a processed liquid fuel prior to providing the processed liquid fuel to a last chance filter. The modularized system includes a last chance filter sub-skid disposed on and secured to the liquid fuel conditioning skid that includes a last chance filter configured to remove impurities from the processed liquid fuel prior to providing the processed liquid fuel to a gas turbine engine. The pre-filter sub-skid and the last chance filter sub-skid are coupled together via piping enabling flow the processed liquid fuel between the pre-filter sub-skid and the last chance filter sub-skid.

Abstract: A modularized system for conditioning liquid fuel is provided that includes a mobile trailer and a liquid fuel conditioning skid disposed on and secured to the mobile trailer. The modularized system includes a pre-filter sub-skid disposed on and secured to the liquid fuel conditioning skid that includes a pre-filter configured to remove impurities from a processed liquid fuel prior to providing the processed liquid fuel to a last chance filter. The modularized system includes a last chance filter sub-skid disposed on and secured to the liquid fuel conditioning skid that includes a last chance filter configured to remove impurities from the processed liquid fuel prior to providing the processed liquid fuel to a gas turbine engine. The pre-filter sub-skid and the last chance filter sub-skid are coupled together via piping enabling flow the processed liquid fuel between the pre-filter sub-skid and the last chance filter-sub-skid.

Abstract: According to one general aspect, an apparatus may include a load/store unit, an execution unit, and a first and a second data path. The load/store unit may be configured to load/store data from/to a memory and transmit the data to/from an execution unit, wherein the data includes a plurality of elements. The execution unit may be configured to perform an operation upon the data. The load/store unit may be configured to transmit the data to/from the execution unit via either a first data path configured to communicate, without transposition, the data between the load/store unit and the execution unit, or a second data path configured to communicate, with transposition, the data between the load/store unit and the execution unit, wherein transposition includes dynamically distributing portions of the data amongst a plurality of elements according to an instruction.

Abstract: An overshoot compensation circuit for an input signal, having a slew rate detection circuit configured to detect a slew rate of the input signal; a run time circuit configured to initialize a predetermined run time when an absolute value of the slew rate of the input signal is greater than or equal to a predetermined threshold; and a low pass filter configured to decrease the slew rate of the input signal only during the predetermined run time.

Abstract: Electronic circuit arrangement for processing binary input values x?X of a word width n (n>1), with a first, second and third combinatory circuit components configured to process the binary input values x to form first, second and third binary output values. The arrangement further includes a majority voter element configured to receive the binary output values and provide a majority signal based on the received binary output values. The second and third combinatory circuit components are designed, as regards faults during processing of the binary input values x in the first combinatory circuit component, to process binary input values of a true non-empty partial quantity X1 of the quantity of binary input values X in a fault-tolerant manner and process binary input values of a further non-empty partial quantity X2 of the quantity of binary input values X different from the true non-empty partial quantity X1 in a fault-intolerant manner.

Abstract: According to one general aspect, an apparatus may include a load/store unit, an execution unit, and a first and a second data path. The load/store unit may be configured to load/store data from/to a memory and transmit the data to/from an execution unit, wherein the data includes a plurality of elements. The execution unit may be configured to perform an operation upon the data. The load/store unit may be configured to transmit the data to/from the execution unit via either a first data path configured to communicate, without transposition, the data between the load/store unit and the execution unit, or a second data path configured to communicate, with transposition, the data between the load/store unit and the execution unit, wherein transposition includes dynamically distributing portions of the data amongst a plurality of elements according to an instruction.

Abstract: Electronic circuit arrangement for processing binary input values x?X of a word width n (n>1), with a first, second and third combinatory circuit components configured to process the binary input values x to form first, second and third binary output values. The arrangement further includes a majority voter element configured to receive the binary output values and provide a majority signal based on the received binary output values. The second and third combinatory circuit components are designed, as regards faults during processing of the binary input values x in the first combinatory circuit component, to process binary input values of a true non-empty partial quantity X1 of the quantity of binary input values X in a fault-tolerant manner and process binary input values of a further non-empty partial quantity X2 of the quantity of binary input values X different from the true non-empty partial quantity X1 in a fault-intolerant manner.

Abstract: A steering system for a water vehicle includes a housing having a substantially cylindrical member, at least one case member extending through the substantially cylindrical member, a column shaft extending through the pair of case members, including at least one elongated hole disposed on opposed side of the column shaft, and being arranged to move relative to the pair of case members and the housing in an axial direction of the column shaft, and a telescoping mechanism partially disposed in the column shaft. One of the pair of case members includes a plurality of detents provided on an inner surface thereof. The telescoping mechanism includes at least one elongated hole disposed at one end portion of the telescoping mechanism, a locking pin extending through the at least one elongated hole in the telescoping mechanism and the at least one elongated hole in the column shaft, and a lever disposed at an opposite end portion from the one end portion of the telescoping mechanism.

Abstract: A watercraft includes a lower hull, a deck having an opening provided therein, a storage plate, and a storage space defined by a portion of the lower hull, a portion of the deck, and the storage plate. The storage plate has at least one folding line such that the storage plate can be inserted through the opening in the deck when the storage plate is folded along the at least one folding line, and such that the storage plate can be unfolded and installed inside of the hull to define the storage space.

Abstract: A duct structure for a watercraft includes a flexible tube for providing an air intake for the watercraft and a flexible member for being disposed on an inner perimeter of a hole in a hull of the watercraft for holding the flexible tube. A convex portion of the flexible tube engages at least one concave portion of the flexible member around substantially the entire circumference of the flexible member, allowing for easy insertion and removal of the flexible tube from the flexible member.

Abstract: A method and apparatus for tactile cueing of aircraft controls (21) is disclosed. The apparatus of the present invention warns pilots of approaching limits on certain aircraft performance parameters. The most common warnings are for rotor speed exceeding a moving limit. The present invention uses tactile cueing through the collective stick (21). Tactile cueing means that the pilot does not need to scan the intruments to ascertain proximity to the aforementioned limits. Instead, the pilot can operate the aircraft within proper limits by touch, while maintaining situational awareness outside of the cockpit (20). The method and apparatus of the present invention provides customary friction resistance up to a limit position that is continuously updated. According to the present invention, continued motion of the collective (21) in a direction beyond that limit position results in a breakout force and an increasing resistive force.

Abstract: A drilling device has a carriage (1) on which a drilling member (22) can be removably mounted. In a receiving region, the carriage (1) has a tightening lever (4) that can be swiveled, with its first end area having a tightening surface (5) that interacts with a clamping surface (21) of a connection region of the drilling member (22). The second end area of the tightening lever (4) interacts with a tightening element (9) that keeps the tightening lever (4) under tension of a spring so that the drilling member (22) is firmly pressed against the carriage (1). Using the two release levers (15), the tightening element (9) can be moved into a release position in which the tightening lever (4) can be swiveled into the release position and the tightening element (9) lies against a retention surface (13) on the tightening lever (4). When a drilling member (22) is secured on the carriage (1), the tightening lever (4) is automatically swiveled into a tightened position and locked the tightening element (9).

Abstract: A drilling device has a carriage (1) on which a drilling member (22) can be removably mounted. In a receiving region, the carriage (1) has a tightening lever (4) that can be swiveled, with its first end area having a tightening surface (5) that interacts with a clamping surface (21) of a connection region of the drilling member (22). The second end area of the tightening lever (4) interacts with a tightening element (9) that keeps the tightening lever (4) under tension by means of a spring so that the drilling member (22) is firmly pressed against the carriage (1). By means of two release levers (15), the tightening element (9) can be moved into a release position in which the tightening lever (4) can be swiveled into the release position and the tightening element (9) lies against a retention surface (13) on the tightening lever (4).