Abstract: Disclosed embodiments may provide techniques for modifying hue, saturation, and luminance (HSL) parameters across different colors depicted on an image. A computer-implemented method can include providing a set of color sub-spectrums extracted from an image. The method can also include displaying, on a graphical user interface, an interactive graph for a particular color sub-spectrum of the set of color sub-spectrums. The method can also include selecting one or more colors of the particular color sub-spectrum in response to a first interaction relative to a first dimension of the interactive graph. The method can also modifying HSL parameters associated with the one or more colors in response to a second interaction relative to a second dimension of the interactive graph. The method can also include generating a color-adjusted image by applying the modified HSL parameters to one or more pixels of the image.

Abstract: Disclosed embodiments may provide techniques for adjusting color parameters using an integrated color-control interface. A computer-implemented method includes generating an integrated color-control interface for a first color parameter and a second color parameter. In some instances, the integrated color-control interface includes a visual-feedback indicator that conveys color distribution of pixels of an image. The method also includes receiving a gesture-based interaction within the integrated color-control interface. The gesture-based interaction includes using one or more gestures to adjust the first color parameter, the second color parameter, or both. The method also includes transforming the image in accordance with the adjusted first and second color parameters.

Abstract: A system for a boom assembly can include a cylinder including a piston rod and a housing. The cylinder can be operably coupled between a first boom section and a second boom section of the boom assembly. A control circuit can be fluidly coupled with the cylinder. The control circuit includes a first pressure relief assembly including a first pressure relief valve and a first flow control device. The first flow control device can be positioned between the cylinder and the first pressure relief valve in the control circuit.

Abstract: A multidirectional support device is configured to move upon a traversed surface and includes a base. A multiaxial mobility element is attached to the base and includes main and secondary rolling elements having a main rolling axis and a secondary rolling axis The main rolling element is configured to allow rolling about the main rolling axis, and the secondary rolling element is configured to allow rolling about the secondary rolling axis. The multiaxial mobility element is arranged to support the base in a first stabilized equilibrium when the base is moving on the traversed surface and supported by the multiaxial mobility element. A controlled-mobility element is configured for controlled mobility and attached to the base. In the first stabilized equilibrium, the controlled-mobility element does not impede multidirectional movement of the device; and in a second stabilized equilibrium, the controlled-mobility element engages the traversed surface, impeding the multidirectional movement.

Abstract: A system is provided herein that may include a boom assembly. A first actuator and a second actuator may be operably coupled with the boom assembly and configured to alter a position of the boom assembly. A control circuit may be fluidly coupled with the first actuator and the second actuator. The control circuit may include a fluid control valve configured to restrict a flow of hydraulic fluid in a first position to allow movement of the first actuator and the second actuator and restrict the flow of hydraulic fluid in a second position to allow movement of the first actuator and the second actuator.

Abstract: An agricultural boom assembly may include an inner boom section and a breakaway boom section. A hinge assembly may be configured to guide movement of the breakaway boom section relative to the inner boom section. A damper system may be operably coupled with the inner boom section and the breakaway boom section. The damper system may include a cylinder configured to house a piston and a rod coupled to the piston and extending from the cylinder. The cylinder may define a piston-side chamber and a rod-side chamber within the cylinder. A pressure reducing-reliving valve may be fluidly coupled with the piston-side chamber and the rod-side chamber. A flow control valve may be positioned between the pressure reducing-reliving valve and the rod-side chamber. A relief valve may be positioned in parallel with the flow control valve.

Abstract: A transmitter includes: an input configured to receive, via an electrical interface, encoded data from a host device, the encoded data being encoded at the host device according to a first code; processing circuitry configured to process the encoded data to provide processed data; an encoder configured to encode the processed data according to a second code that is different than the first code, where encoding the processed data includes concatenating one or more parity bits to the processed data to provide forward error correction (FEC) blocks of data; and transmit circuitry to transmit the FEC data over an optical medium.

Abstract: An optical transmitter includes a first encoder, a first interleaver, a second encoder, a mapper, a second interleaver, and a frame generator. The first encoder is configured to encode data using a staircase code to generate first codewords. The first interleaver is configured to interleave the first codewords using convolutional interleaving to spread a transmission order of the first codewords. The second encoder is configured to encode the interleaved first codewords using a second code to generate second codewords. The mapper is configured to map the second codewords to transmit symbols. The second interleaver is configured to interleave the transmit symbols to distribute the transmit symbols between pilot symbols. The frame generator is configured to generate a transmit frame including the interleaved transmit symbols and the pilot symbols.

Abstract: An input signal is sampled at a current sampling phase by a sampler device of a receiver device. The sampled input signal is equalized by an adaptive equalizer of the receiver device. One or more parameters of the adaptive equalizer are adapted, based on the equalized input signal, under one or more adaptation constraints. Phase gradient information indicative of an offset of the current sampling phase from an optimal sampling phase is determined, and the one or more adaptation constraints of the adaptive equalizer are updated based on the phase gradient information to move the current sampling phase towards the optimal sampling phase.

Abstract: An optical transmitter includes a first encoder, a first interleaver, a second encoder, a mapper, a second interleaver, and a frame generator. The first encoder is configured to encode data using a staircase code to generate first codewords. The first interleaver is configured to interleave the first codewords using convolutional interleaving to spread a transmission order of the first codewords. The second encoder is configured to encode the interleaved first codewords using a second code to generate second codewords. The mapper is configured to map the second codewords to transmit symbols. The second interleaver is configured to interleave the transmit symbols to distribute the transmit symbols between pilot symbols. The frame generator is configured to generate a transmit frame including the interleaved transmit symbols and the pilot symbols.

Abstract: Disclosed herein are methods for chromatography, including cleaning methods for chromatography medium that make use of a linear salt gradient. The disclosed methods may be used for frontal chromatography operations and for cleaning frontal chromatography media for reuse in biologics manufacturing.

Abstract: A system for a boom assembly can include a cylinder including a piston rod and a housing. The cylinder can be operably coupled between a first boom section and a second boom section of the boom assembly. A control circuit can be fluidly coupled with the cylinder. The control circuit includes a first pressure relief assembly including a first pressure relief valve and a first flow control device. The first flow control device can be positioned between the cylinder and the first pressure relief valve in the control circuit.

Abstract: A system can include a boom assembly operably coupled with a chassis. A first actuator can be operably coupled with a first pair of sections of the boom assembly. A second actuator can be operably coupled with a second pair of sections of the boom assembly. A sensor system can be configured to capture data indicative of one or more operating conditions of the boom assembly. A computing system can be communicatively coupled to the first actuator, the second actuator, and the sensor system. The computing system can be configured to receive the data from the sensor system, determine a current boom profile of the boom assembly, determine a current ground profile relative to the boom assembly, and determine a first position for the first actuator to place the boom assembly in a target boom profile.

Abstract: A system for a boom assembly can include a cylinder including a piston and a housing. The cylinder can be operably coupled between a first boom section and a second boom section of the boom assembly. A control circuit can be fluidly coupled with the cylinder. The control circuit can include a directional control valve configured to control a position of the cylinder, a first pressure relief assembly including a first pressure relief valve operably coupled with a rod side of the housing, and a second pressure relief assembly including a second pressure relief valve operably coupled with a base side of the housing.

Abstract: An input signal is sampled at a current sampling phase by a sampler device of a receiver device. The sampled input signal is equalized by an adaptive equalizer of the receiver device. One or more parameters of the adaptive equalizer are adapted, based on the equalized input signal, under one or more adaptation constraints. Phase gradient information indicative of an offset of the current sampling phase from an optimal sampling phase is determined, and the one or more adaptation constraints of the adaptive equalizer are updated based on the phase gradient information to move the current sampling phase towards the optimal sampling phase.

Abstract: A data transmission device includes a de-interleaver configured to receive, from a host device at a first data rate, a data stream including encoded data, de-interleave the data stream into a plurality of forward error correction (FEC) data streams, and output the plurality of FEC data streams at a second data rate less than the first data rate. Each of a plurality of interleavers is configured to interleave a respective one of the plurality of FEC data streams into an intermediate data stream including first data blocks and second data blocks. An encoder module configured to generate, for each of the intermediate data streams, FEC blocks including a first parity section and a first data section, the first parity section including a first parity bit corresponding to the first data blocks and a second parity bit corresponding to the second data blocks, and the first data section including the first data blocks and the second data blocks, and output the FEC blocks at the second data rate.

Abstract: Embodiments herein relate to a working machine that may include one or more batteries. The working machine may further include logic that is configured to: identify an operation plan to be performed by the working machine in a work area; identify an amount of power required to complete the operation plan; identify an amount of power remaining in the one or more batteries; alter, based on a comparison of the amount of power required to complete the operation plan to the amount of power remaining in the one or more batteries, the operation plan to generate a revised operation plan; and facilitate implementation, by the working machine, of the revised operation plan. Other embodiments may be described and/or claimed.

Abstract: Provided herein are compositions, methods, kits and systems for treating cells, tissues and subjects to alter age-related biology (e.g., to study or to treat age-related diseases and conditions). In particular, provided herein are compositions, methods, and uses for inhibition or modification of sialic acid or its cognate receptor to restore phagocytosis in aged cells.

Abstract: A faucet system comprising a faucet; an electronic valve associated with the faucet; and a faucet controller associated with the electronic valve; wherein the faucet controller is configured to receive a faucet command from a command server; and actuate the electronic valve upon receiving the faucet command; wherein the command server is configured to receive a speech-based command from a natural language processing (NLP) server; generate the faucet command from the speech-based command and transmit the faucet command to the faucet controller; and wherein the NLP server is remote to the faucet.

Abstract: An automatic angle stop assembly for a urinal or toilet may include an angle stop adjustment device and an angle stop. The automatic angle stop assembly may automatically control flow through the angle stop to a flush valve. The automatic angle stop assembly may include a motor and an adjustment screw. A method for closing the angle stop may include sensing a flow condition, automatically rotating a motor based on the flow condition, and closing the angle stop.