Abstract:
A method for micro-code execution for an electronic device is disclosed. The method includes: providing the electronic device with a micro-code partitioned into a main core and at least a function code, the micro-code being stored in a first storage module of the electronic device; and when the electronic device is powered on, loading the main core from the first storage module into a second storage module of the electronic device, and switching between the second storage module for executing the main core and the first storage module for executing the function code to control operation of the electronic device. The function code is executed when called by execution of the main core.
Abstract:
A method for micro-code execution for an electronic device is disclosed. The method includes: providing the electronic device with a micro-code partitioned into a main core and at least a function code, the micro-code being stored in a first storage module of the electronic device; and when the electronic device is powered on, loading the main core from the first storage module into a second storage module of the electronic device, and switching between the second storage module for executing the main core and the first storage module for executing the function code to control operation of the electronic device. The function code is executed when called by execution of the main core.
Abstract:
A side-type backlight module including a lampshade, a light guide plate (LGP), a plurality of point light sources and a reflection structure is provided. The LGP has a light incident surface disposed at an opening of the lampshade. The point light sources are disposed between the lampshade and the LGP. The reflection structure is disposed between the LGP and the lampshade, and has first light outlets, at least a second light outlet, sinks, first reflecting elements and at least a second reflecting element. The sinks are disposed corresponding to the first light outlets. The point light sources are disposed in the sinks. The second light outlet is located between and adjacent to the first light outlets. The first reflecting elements are disposed at the junctions of each first light outlet and the second light outlet. The second reflecting element is disposed corresponding to the second light outlet.
Abstract:
An anti-cancer drug composition includes a Ganoderma extract having a concentration of 1-5 mg/ml and an amphotericin B having a concentration of 3-10 μM. The Ganoderma extract and the amphotericin B are medicated at different times by pre-treating cancer cells with the Ganoderma extract for a period of time followed by administration of the amphotericin B to enhance an anti-cancer effect of the amphotericin B.
Abstract:
The method of the invention promotes single crystal growth during fabrication of melt growth semiconductors. A growth ampoule and its tip have a semiconductor source material placed therein. The growth ampoule is placed in a first thermal environment that raises the temperature of the semiconductor source material to its liquidus temperature. The growth ampoule is then transitioned to a second thermal environment that causes the semiconductor source material in the growth ampoule's tip to attain a temperature that is below the semiconductor source material's solidus temperature. The growth ampoule so-transitioned is then mechanically perturbed to induce single crystal growth at the growth ampoule's tip.
Abstract:
An anti-cancer drug composition includes a Ganoderma extract having a concentration of 1-5 mg/ml and an amphotericin B having a concentration of 3-10 μM. The Ganoderma extract and the amphotericin B are medicated at different times by pre-treating cancer cells with the Ganoderma extract for a period of time followed by administration of the amphotericin B to enhance an anti-cancer effect of the amphotericin B.