Search In this Thesis
   Search In this Thesis  
العنوان
Modeling the Temporal Behavior in Dynamic
Networks /
المؤلف
Ismail,Aya Mohamed Zaki.
هيئة الاعداد
باحث / Aya Mohamed Zaki Ismail
مشرف / Safaa Amin
مشرف / Doaa A. El-Kereem Hegazy
تاريخ النشر
2016
عدد الصفحات
87p.;
اللغة
الإنجليزية
الدرجة
ماجستير
التخصص
Computer Science (miscellaneous)
تاريخ الإجازة
1/1/2016
مكان الإجازة
اتحاد مكتبات الجامعات المصرية - الحسابات علمية
الفهرس
Only 14 pages are availabe for public view

from 32

from 32

Abstract

Most of the critical real-world networks are continuously changing and evolving with time. The dynamic nature of these networks have gained a lot of attention motivated by the growing
importance and wide spread impact of this type of networks.
Because of their intrinsic and special characteristics, these networks are best represented by dynamic graph models. In order
to cope with their evolving nature, the representation model
must keep the historical information of the network along with
its temporal time. Storing such amount of data, poses many
problems from the perspective of dynamic graph data management.
In this thesis, we provide an in depth overview on dynamic
graph related problems. A novel categorization and classification of the state of the art dynamic graph models is also presented in a systematic and comprehensive way. Moreover, we
discuss processing on dynamic graphs including both its algorithms and output representation, and give an insight on how
to manage and handle the added time parameter to dynamic
graph models.
With the notable flourish of real-world networks based on
graphs, it becomes crucial to find a dynamic graph model that
is able to manage efficiently network evolution. So, this study
proposes Modified G* (MG*) system that is able to manage the
network consuming efficient performance. MG* consumes minimum update time, retrieve time, and minimum memory storage
in an efficient manner compared to the existing dynamic graph
models. Moreover, it provides results with a better quality.
iii
Most of the existing models use data structures to store sequence of snapshots, which are either historical or retrieved for
processing purposes. Despite consuming minimal update time,
these data structures induce storage redundancy, since consecutive snapshots share most of their nodes and edges in common.
Compressed variants reduce this redundancy, but at the cost
of increasing the update time, required to insert a new snapshot into the structure. Therefore, we propose Fast-CGI data
structure to balance handling these downsides.