Abstract: Various embodiments relating to reducing memory bandwidth consumed by a continuous scan display screen are provided. In one embodiment, an indication of a static image period of a continuous scan display screen is determined. A reference image of a first image format having a first bit depth is converted into a modified image of a second image format having a second bit depth that is less than the first bit depth. During the static image period, the modified image is scanned onto the continuous scan display screen.

Abstract: A system, method, and computer program product are provided for changing a display refresh rate in an active period. In operation, a request is received to change a display refresh rate. Further, in response to the request, the display refresh rate is changed in an active period during which pixels are being written to a display device.

Abstract: Various embodiments relating to reducing memory bandwidth consumed by a continuous scan display screen are provided. In one embodiment, scoring criteria are applied to a reference image of a first image format having a first bit depth to generate an image conversion score. The scoring criteria are based on a histogram of one or more characteristics of the reference image. If the image conversion score is greater than a threshold value, then the reference image is converted to a modified image of a second image format having a second bit depth less than the first bit depth, and the modified image is scanned onto the continuous scan display screen. If the image conversion score is less than the threshold value, then the reference image is scanned onto the continuous scan display screen.

Abstract: Various embodiments relating to reducing memory bandwidth consumed by a continuous scan display screen are provided. In one embodiment, an indication of a static image period of a continuous scan display screen is determined. A reference image of a first image format having a first bit depth is converted into a modified image of a second image format having a second bit depth that is less than the first bit depth. During the static image period, the modified image is scanned onto the continuous scan display screen.

Abstract: Embodiments disclosed herein generally relate to the collection and correlation of power consumption data for mobile devices. Power consumption data for a mobile device is collected and correlated with system activity by monitoring what processes are being run on the CPU and measuring the power being consumed within the mobile device. The power being consumed within the mobile device is measured via a plurality of power monitors, such as sensors, disposed within the mobile device and buffered using an auxiliary microcontroller that resides separately from the CPU. Further, in some embodiments, temperature data also is measured via a temperature sensor.

Abstract: The invention provides a method for adaptively adjusting a framerate of a graphic processing unit (GPU). For example, when the GPU workload is high and the temperature of the GPU is close to high temperature, the framerate can be decreased to reduce the workload; when the GPU workload is low, the framerate can be permitted to increase to raise the workload. By the present invention, the GPU is permitted to operate at maximum temperature. The method comprises the steps of: (a) receiving an execution parameter associated with at least one GPU; (b) comparing if the execution parameter is greater than a first reference value; and (c) in the event the execution parameter is greater than the first reference value, increasing a sleep time and power-gating the at least one GPU based on the sleep time to adjust the framerate.

Abstract: A method and system for upgrading a software component in a computing device are disclosed. Specifically, one embodiment of the present invention sets forth a method, which includes the steps of storing a first software component in a first memory segment, maintaining a second software component in a second memory segment, wherein the second software component enables the computing device to boot up, and modifying at least one of a plurality of address lines to access the second memory segment after exiting a reset condition, if the execution of the first software component fails to satisfy a predetermined test condition.

Abstract: A bandwidth-driven system, method, and computer program product are provided for changing a refresh rate of a display system. In use, a bandwidth associated with a display system is identified. To this end, a refresh rate of the display system may be changed for controlling the bandwidth.

Abstract: A system, method, and computer program product are presented for providing access to graphics processor central processing unit (CPU) cores, to both a graphics processor and a central processing unit. In operation, access is provided to a plurality of central processing unit cores of a graphics processor, to both the graphics processor and a central processing unit. Additionally, first requests are received from the central processing unit to execute first code utilizing at least one of the central processing unit cores of the graphics processor. Furthermore, second requests are received from the graphics processor to execute second code utilizing at least one of the central processing unit cores of the graphics processor. Still yet, there is arbitrating among the first requests and the second requests.

Abstract: A system, method, and computer program product are provided for changing a refresh rate of a display system. In use, an aspect of hardware of a display system is identified. To this end, a refresh rate of the display system may be changed based on the identified aspect.

Abstract: A system and method are provided for changing a display refresh rate. A first register is provided for storing at least one first refresh parameter in association with a first refresh rate. Additionally, a second register is provided for storing at least one second refresh parameter in association with a second refresh rate. Furthermore, logic is in communication with the first register and the second register. Such logic is adopted for selecting the first refresh parameter or the second refresh parameter, for the purpose of reducing artifacts resulting from a change from the first refresh rate and the second refresh rate.