Self-similar and fractal nature of Internet traffic data

Author(s):  
G. Mansfield ◽  
T.K. Roy ◽  
N. Shiratori
2004 ◽  
Vol 14 (2) ◽  
pp. 119-129 ◽  
Author(s):  
D. Chakraborty ◽  
A. Ashir ◽  
T. Suganuma ◽  
G. Mansfield Keeni ◽  
T. K. Roy ◽  
...  

Author(s):  
Sasmita Acharya ◽  
Sasmita Mishra ◽  
S.N. Mishra

The Internet traffic data have been found to possess extreme variability and bursty structures in a wide range of time-scales, so that there is no definite duration of busy or silent periods. But there is a self-similarity for which it is possible to characterize the data. The self-similar nature was first proposed by Leland et a1 [l] and subsequently established by others in a flood of research works on the subject [2]-[5]. It was then a new concept against the long believed idea of Poisson traffic. The traditional Poison model, a short ranged process, assumed the variation of data flow to be finite but the observations on Internet traffic proved otherwise. It is this large variance that leads to the self-similar nature of the data almost at all scales of resolution. Such a feature is always associated with a fractal structure of the data. The fractal characteristics can exist both in temporal and spatial scales. This was indicated by Willinger and Paxson [6], as due to the extreme variability and long range dependence in the process. Presently, one of the main research interests in the field of Internet traffic is that of prediction of data which will help a network manager to render a satisfactory quality of service. Before preparing a model of prediction, one of the important tasks is to determine its statistics. Any model to predict the future values will have to preserve these characteristics.


2018 ◽  
Vol 26 (3) ◽  
pp. 1137-1150 ◽  
Author(s):  
Kun Xie ◽  
Can Peng ◽  
Xin Wang ◽  
Gaogang Xie ◽  
Jigang Wen ◽  
...  

2002 ◽  
Vol 357 (1421) ◽  
pp. 619-626 ◽  
Author(s):  
James H. Brown ◽  
Vijay K. Gupta ◽  
Bai-Lian Li ◽  
Bruce T. Milne ◽  
Carla Restrepo ◽  
...  

Underlying the diversity of life and the complexity of ecology is order that reflects the operation of fundamental physical and biological processes. Power laws describe empirical scaling relationships that are emergent quantitative features of biodiversity. These features are patterns of structure or dynamics that are self–similar or fractal–like over many orders of magnitude. Power laws allow extrapolation and prediction over a wide range of scales. Some appear to be universal, occurring in virtually all taxa of organisms and types of environments. They offer clues to underlying mechanisms that powerfully constrain biodiversity. We describe recent progress and future prospects for understanding the mechanisms that generate these power laws, and for explaining the diversity of species and complexity of ecosystems in terms of fundamental principles of physical and biological science.


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