A high-speed disk drive allows raw data from all 48 channels to be stored simultaneously while the analyses are being preformed.
In this study, a system was configured to capture image sequences from an on-board high-resolution digital camera at a live video rate, record the images into a high-speed disk array through a fiber channel, and process the images using a Datacube MaxPCI machine with multiple pipelined processors to perform real-time obstacle detection.
This study is dedicated to the design of a ball-type balancer system installed on the high-speed disk drive in order to reduce radial vibrations of rotors caused by eccentricities of disk's center of gravity and circular runway of the ball balancer.
We consider the video server as having a hierarchical architecture which consists of a set of high-speed disk drives located in the front end for caching a subset of videos, and another set of high-capacity tertiary devices located in the back end for archiving the entire video collection.
Therefore, different computer configurations have an important impact on the parallel performance, and the use of a high-speed disk (such as Solid State Drive, SSD) should improve the parallel performance.
A high-speed disk-to-disk type wear tests under a mineral oil environment were performed and the results from various surface conditions were compared with each other.
The high-speed disks are used in e-commerce servers and data storage.
Experiments could also be replicated in an environment with clustered nodes and high-speed disks (SSD).
The system consists of a high speed camera, processor core, disk drive interface, RAM interface and serial link to an external PC.
Combine that with the storage media change, which is a new thing called flash... of high speed write to the disk... is really changing the landscape.
