Here's a rewrite attempt for possible applications.
"An example of this could be an autopilot system for an automobile, in which output control signals must be generated with a consistent frequency and adhering to a latency maximum. The parallel floating-point processing power of the APU facilitates real-time processing of video and radar inputs to provide the system with a virtual model of the physical environment, and the real-time operating system ensures that steering, throttle and brake control signals do not suffer from latencies induced by process switching, memory refresh cycles, hard disk access times, software interrupts, and other unpredictable events that could otherwise occupy one or more cores for several milliseconds."
Long ago (in a galaxy not so far away) I worked at a factory equipment manufacturer. This equipment had to respond to one particular input within 0.2 milliseconds or the equipment would not work properly for the intended purpose. The original design they employed to control a high-performance stepper motor was a custom-designed PCB with a combination of analog and digital circuits, user input controls, and output amplifiers. They tried to replace this design with a computer-controlled stepper motor that used a proprietary operating system, programming language, and set of control signals in the hopes of reducing materials and assembly costs. The problem was that this "improvement" randomly introduced up to a 20 msec delay into the response times for that critical event. In practice, about one out of every 10 or so (randomly seelcted) responses were delayed by up to 20 milliseconds. This effect was caused by a poorly-written hardware interrupt handler in that proprietary operating system. The new device was useless for the intended application, because it was not a real-time operating system.