Abstract: Example embodiments in accordance with the present disclosure are directed to methods comprising contacting a plant part with a nucleotide sequence encoding a gene that induces plant cell matrix (PCM) formation, and culturing the plant part under growth conditions to enhance PCM formation.

Abstract: A computer-implemented method includes: receiving a declaration of a variable as a secret type for source code; designating a data record including the variable as secret; creating metadata for the data record, wherein the metadata for the data record labels the data record as secret; allocating a first memory buffer for the data record; updating metadata for the first memory buffer to label the first memory buffer as secret; and if, while executing the source code, the data record is copied from the first memory buffer to a second memory buffer whose metadata labels the second memory buffer as other than secret, updating metadata for the second memory buffer to label the second memory buffer as secret.

Abstract: Source code verification, including receiving a declaration of a variable as a secret type, determining if any source code is configured to use the variable as a type other than secret, and if it is determined that there is source code that will use the variable as a type other than secret, creating an exception in the source code verification process.

Abstract: In one embodiment, a method is disclosed that includes executing, by a device, one or more programs that use asynchronous message passing. The one or more programs comprise instrumentation code that causes message context information to be generated regarding asynchronous messages passed by the one or more programs. The message context information is indicative of one or more points within the one or more programs at which a particular message is sent or received. The method includes maintaining a current message context associated with a particular portion of the one or more programs. The method includes receiving a first asynchronous message that includes message context information for the received message. The method includes updating the current message context to include the message context information received via the first asynchronous message.

Abstract: In one embodiment, a method is disclosed that includes executing, by a device, one or more programs that use asynchronous message passing. The one or more programs comprise instrumentation code that causes message context information to be generated regarding asynchronous messages passed by the one or more programs. The message context information is indicative of one or more points within the one or more programs at which a particular message is sent or received. The method includes maintaining a current message context associated with a particular portion of the one or more programs. The method includes receiving a first asynchronous message that includes message context information for the received message. The method includes updating the current message context to include the message context information received via the first asynchronous message.

Abstract: Source code verification, including receiving a declaration of a variable as a secret type, determining if any source code is configured to use the variable as a type other than secret, and if it is determined that there is source code that will use the variable as a type other than secret, creating an exception in the source code verification process.

Abstract: Methods and apparatus for managing latency of memory commands are disclosed. An example method includes receiving memory operation commands for execution by a data storage device, each memory operation command being associated, for execution, with one of a plurality of memory devices. The example method also includes maintaining, for each memory device, a respective cumulative latency estimate. The example method also includes, for each memory operation command, when received by the memory controller, comparing the respective cumulative latency estimate of the associated memory device with a latency threshold for the received memory operation command. In the event the cumulative latency estimate is at or below the latency threshold, the received memory operation command is provided to a respective command queue operatively coupled with the respective memory device. In the event the cumulative latency estimate is above the latency threshold, the received memory operation command is returned to a host device.

Abstract: A desiccating device includes a rigid container having an end sealed by a selectively permeable membrane, operative to admit water vapor into the container, but not allow water to pass out of the container. A desiccant separates water from water vapor that has entered the container. A removable impermeable membrane seals the container, and prevents water vapor from entering the container when the impermeable membrane is in place. A reinforcing member having apertures is placed above the selectively permeable membrane, enabling a thinner and weaker selectively permeable membrane. The container shape defines angles of less than 90 degrees, as in a triangle or other truncated rectangle, where the device may be placed in a corner, projecting into the area to be dried less than a rectangular or circular container.

Abstract: A packaging system for repeatably storing chemical moth and insect repellent products that hinders oxygen and ultraviolet lighting from penetrating to prevent sublimation of the product prior to purchase. A user can store unused products after initial use and reopen the package at a later time to minimize the unused product's exposure to oxygen. Such storage prevents color and physical degradation of the product and adverse interaction of the product with ink used on the packaging material. Also provided is a method for using naphthalene, para-dichlorobenzene, camphor as an outdoor rodent, pest, moth, and insect repellent. The outdoor product can be scented and can be in various shapes or chemical forms, such as crystals.

Abstract: A dynamic volume control system in an audio processor uses gain and delay signals from a digital signal processor to dynamically control the user-selected volume of the audio processor. The digital signal processor executes audio signal processing operations that affect the gain applied to the audio signal so that the signal gain inherent in the signal processing path is known. The digital signal processor transfers the known gain and a predicted group delay signal to the dynamic volume control system to dynamically adjust the user-selected volume of the system. The digital signal processor is integrated with a digital-to-analog converter (DAC) in a dynamic volume control system that exploits the known gain and group delay to perform DAC volume control.