Abstract
In today’s scenario, almost every user involuntarily generates and utilizes several Gigabytes and Terabytes of data. It is due to the accessibility of diverse and inexpensive digital hard disk drives (HDDs) that have facilitated users with comparably large storage capacities. Almost every digital crime is directly or indirectly associated with storage devices. The ever increasing storage strength of HDD has elevated the forensic examination cost and complexities for the digital forensic investigator. The considerable amount of time is consumed during identification and analysis phase of Digital Forensic (DF) process which creates huge backlog of cases, as a result remarkable delay occurs for availing justice from judicial body. In this research, we propose a methodology to identify forensically significant data regions of suspected drive that can be helpful in accelerating overall digital investigation process. A proof-of-concept technique is developed that utilizes Differential Evolution (DE) for determining the significant data regions and data storage pattern of HDD. The proposed approach incorporates DE which internally utilizes the geometry information of the HDD, i.e. cylinder, track and sector values, for population generation and decision making. Throughout the paper DE samples are defined using the geometry information and entropy as fitness value. Storage devices with different storage capabilities were considered for the experiment and analysis. Detailed case study using the analysis on formatted suspected storage drives highlights the relevance of the proposed approach. The end result is series of output files, providing information about significant regions of the HDD, using which investigator can easily interpret and analyze the suspected drive. Finally, the proposed method is compared with the important functionalities of existing approaches.
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Bharadwaj, N.K., Singh, U. (2017). Differential Evolution Based Significant Data Region Identification on Large Storage Drives. In: Sangaiah, A., Abraham, A., Siarry, P., Sheng, M. (eds) Intelligent Decision Support Systems for Sustainable Computing. Studies in Computational Intelligence, vol 705. Springer, Cham. https://doi.org/10.1007/978-3-319-53153-3_8
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DOI: https://doi.org/10.1007/978-3-319-53153-3_8
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