Hall Aluminum LLC

Microsoft Technology Licensing, LLC

Jeffrey G Ort

Eric G Engstrom

Peter Zatloukal

Mohanraj Dharmarajan

Philip Peter Reunert

A non-blocking always visible display application is provided to copy and save first pixel values corresponding to a first display screen area, blend the copied first pixel values with second pixel values corresponding to a non-blocking always visible display to generate third pixel values, and replace the original first pixel values with the third pixel values to effectuate display of the non-blocking always visible display. In one embodiment, the application further monitors for display operations that impact the first display screen area, and re-blend accordingly. In one embodiment, the re-blending and replacement are advantageously delayed. In another embodiment, the application further intercepts and causes cursor events to be handled properly, based at least in part on a current blending bias between the non-blocking always visible display, and the underlying display windows.

Techniques for displaying non-blocking always visible displays and their applications

A computing device is provided with a number of programming instructions to cause display of first execution results of a first set of applications in a first plane of a metaphoric desktop, and display of second execution results of a second set of applications in a second plane of the metaphoric desktop. In one embodiment, the programming instructions are further designed to morph the metaphoric desktop from one plane to another. In one embodiment, the second set of applications are on-line applications, and the programming instructions are designed to cause the metaphoric desktop to morph from the first plane to the second plane when the computing device is being connected on line; and cause the metaphoric desktop to morph back to the first plane in response to a user request to return to the first plane.

Multi-plane metaphoric desktop and methods of operation associated therewith

In many computer systems, the rate of data from an input source may become significantly faster than a processor's ability to respond. This situation occurs when a faster and more modern system writes to an older and slower legacy system. The result of this interaction between disparate capacity systems may be system failure or data corruption, particularly due to overloading the slower system's input queue to the point where it can no longer catch up to its workload. The invention provides a method, system, and computer-readable medium having computer-executable instructions for transferring data between disparate capacity systems. The method comprises the steps of receiving transactions from a first computer system at a first rate and providing the transactions to a second computer system, wherein the second computer system receives the transactions at a second rate. The second computer system may be a database legacy database server and the first computer system may be an updated database server The second rate is set at a capacity of the second computer system. The method further delays for a predetermined period of time the transactions when the first rate exceeds the second rate. The predetermined period of time is a function of the second rate.

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Redmond, WA, United States of America

Jeffrey G Ort