Abstract: A method and system for controlling deformable micromirror devices are provided. In accordance with one embodiment of the present disclosure, a display system includes multiple deformable micromirror devices, a buffer, and a controller. Each deformable micromirror device includes a plurality of micromirrors. The buffer is communicatively coupled, at a first interface speed, to each deformable micromirror device. The buffer is operable to communicate in parallel with the deformable micromirror devices. The controller is communicatively coupled, at a second interface speed, to the buffer. The controller is operable to receive a display input and, in response, generate a plurality signals each corresponding to an optical characteristic of the display input. The controller is further operable to sequentially communicate each of the plurality of signals through the buffer to a corresponding one of the deformable micromirror devices.

Abstract: A method and system for controlling deformable micromirror devices are provided. In accordance with one embodiment of the present disclosure, a display system includes multiple deformable micromirror devices, a buffer, and a controller. Each deformable micromirror device includes a plurality of micromirrors. The buffer is communicatively coupled, at a first interface speed, to each deformable micromirror device. The buffer is operable to communicate in parallel with the deformable micromirror devices. The controller is communicatively coupled, at a second interface speed, to the buffer. The controller is operable to receive a display input and, in response, generate a plurality signals each corresponding to an optical characteristic of the display input. The controller is further operable to sequentially communicate each of the plurality of signals through the buffer to a corresponding one of the deformable micromirror devices.

Abstract: A computer system (10) includes a plurality of hot-plug sockets (30-33), each of which can be selectively uncoupled from a bus (59) during normal system operation, in order to facilitate insertion or removal of module (36). A clock signal (PCLK) is generated at one of two different frequencies, and at system power-up a clock arbitration circuit (47) is responsive to modules which are present for specifying a speed of the clock signal. A hot-plug controller circuit (18) can selectively uncouple one of the hot-plug sockets from the bus during normal operation to facilitate insertion or removal of a module, and also facilitates a determination of whether clock speed requirements of an inserted module are compatible with the current clock speed. The selected socket is recoupled to the bus only if the inserted module is compatible with the current clock speed.

Abstract: A power management method and system which includes providing a system having a plurality of clock operated circuits, each clock operated circuit being operable in response to the receipt of clock signals. A first subplurality of the clock operated circuits receives an uninterrupted stream of clock signals and thereby is uninterruptably operable and a second plurality of the clock operated circuits receives a normally off interruptable stream of clock signals and is normally inoperable. The system is sampled for the presence of data signals being input thereto. The clock signals are sent to the second plurality of circuits in response to the sampling the presence of data signals being input to the system to cause the second plurality of circuits to be operable. The data signals are transmitted to the second plurality of circuits after a time delay equal to or greater than the expired time from the sampling to the sending.