An Energy-Efficient VM Prediction and Migration Framework for Overcommitted Clouds

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An Energy-Efficient VM Prediction and Migration Framework for Overcommitted Clouds

An Energy-Efficient VM Prediction and Migration Framework for Overcommitted Clouds

Abstract

The An Energy-Efficient VM Prediction and Migration Framework for Overcommitted Clouds makes great energy savings by minimizing physical machine (PM) overload occurrences through monitoring and prediction of the use of VM resources, and reducing the number of active PMs through efficient VM migration and placement. Using real Google data consisting of 29-day traces collected from a cluster containing more than 12 K PMs, we show that our proposed framework outperforms existing overload avoidance techniques and prior VM migration strategies by reducing the number of unforeseen overloads, minimizing overload migration, increasing resource utilization and reducing cloud energy consumption.

System Configuration

H/W System Configuration
Speed                   : 1.1 GHz
 
RAM                      : 256 MB(min)
 
Hard Disk              : 20 GB
 
Floppy Drive          : 1.44 MB
 
Key Board             : Standard Windows Keyboard
 
Mouse                  : Two or Three Button Mouse
 
Monitor                : SVGA
 
S/W System Configuration
 
 
Platform                     :  cloud computing

 
Operating system       : Windows Xp,7,
 
Server                       : WAMP/Apache
 
Working on                : Browser Like Firefox, IE

Conclusion

An energy-efficient VM Prediction and Migration Framework for Overcommitted Clouds, We propose an integrated energy-efficient, predictive-based VM placement and migration framework for cloud resource allocation with overcommitment. We show that our proposed framework reduces performance degradation caused by overloads while also reducing the number of PMs needed to be ON and overhead migration, resulting in significant energy savings. All of our findings are supported by evaluations and comparative studies with existing techniques conducted from a Google cluster on real traces.