Open Source Software has been helped in selecting the appropriate software in online towards
supporting the functionality of hardware infrastructure and enhances the innovation. Forensic analysis of mobile devices can be done in an Open Source Software environment due to the availability of recourses and applications it contains. However, preventing the originality of data contents of the recovered mobile devices in the crime scene from being altered is one of the predicaments baffles the digital forensic domain. Therefore, this study presents framework to preserve integrity of data during mobile device forensic investigation with focus on Open Source Software environment. The presented framework can assist the forensic investigators to proof the reliability and consistency of gathered data from the recovered mobile devices in the crime scene.
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FREE AND OPEN SOURCE SOFTWARE CONFERENCE (FOSSC-17) MUSCAT, FEBRUARY 14-15, 2017
© SQU-2017 ISSN: 1813-419X -22-
Abstract - Open Source Software has been helped in
selecting the appropriate software in online towards
supporting the functionality of hardware infrastructure and
enhances the innovation. Forensic analysis of mobile devices
can be done in an Open Source Software environment due to
the availability of recourses and applications it contains.
However, preventing the originality of data contents of the
recovered mobile devices in the crime scene from being altered
is one of the predicaments baffles the digital forensic domain.
Therefore, this study presents framework to preserve integrity
of data during mobile device forensic investigation with focus
on Open Source Software environment. The presented
framework can assist the forensic investigators to proof the
reliability and consistency of gathered data from the recovered
mobile devices in the crime scene.
Index Terms - Data Integrity, Digital Forensic, Mobile
Device Forensic, Open Source Software
I. INTRODUCTION
Open Source Software (OSS) is the software that is
developed by volunteers rather than the traditional approach
of software development and freely available in online for
the use of software engineers and individuals towards
meeting their respective specifications. The OSS has
sometimes referred to as Free or Libre as a result of
autonomous practices given to the independent volunteer
developers in a geographically distributed community-based
form.
1
School of Computing, College of Arts and Sciences, Universiti Utara
Malaysia, 06010 Sintok Kedah Malaysia (phone: +6 017 403 6641; e-mail:
ishod@uum.edu.my)
2
School of Computing, College of Arts and Sciences, Universiti Utara
Malaysia, 06010 Sintok Kedah Malaysia
3
School of Computing, College of Arts and Sciences, Universiti Utara
Malaysia, 06010 Sintok Kedah Malaysia
This OSS has helped in solving some of complex projects
due to the availability of software and provided platform
which act as problem solving mechanisms. Thus, OSS
environment has been helped in selecting the appropriate
software online to support the functionality of hardware
infrastructure and enhances the innovation brings by the
Information Technology [1, 22]. On the other hands, the
study of Gallego et al. [2] stressed that OSS may not be
freed in terms of cost, but the platform could be used to run
program freely, distribute copies and updated version to the
users. Besides, Roberts et al. [3] argued that many of the
projects that are generally being in use today like Linux
Operating Systems, Mozilla browser and the Apache web
browser were developed using OSS platform. This shows
that many analysis or evaluation of programs can be run
using OSS platform, while forensic analysis of the mobile
devices is not exempted.
Forensic is the act of investigating the crime scene and the
related offences in forms of child exploitation, financial
fraud, drug trafficking and homicide [4, 5]. Bringing the
forensic analysis into reality has gone beyond the use of
manual forms of investigations, thus require the digital
approach. Over the years, digital forensic has been involved
the use of computer systems, electronic devices, network
level-logs and social media to execute investigation that
require digital contents and evidences [5, 6] as shown in
Figure 1.
A Framework for Preserving Data Integrity
during Mobile Device Forensic in Open
Source Software Environment
Ishola D. Muraina
1
, Mustafa Muwafak Alobaedy
2
, Huda Haji Ibrahim
3
FREE AND OPEN SOURCE SOFTWARE CONFERENCE (FOSSC-17) MUSCAT, FEBRUARY 14-15, 2017
© SQU-2017 ISSN: 1813-419X -23-
Fig. 1: Fields of Digital Forensics (Source: Lutui, R., 2016)
This shows the effectiveness of digital forensic towards
obtaining the truth and avoids bias while carry out
investigations in network logs and digital devices,
specifically through the use of mobile devices.
Mobile devices have been individual companion in the
present emerging technological world for interacting with
one another, transacting businesses, transferring and sharing
of information with friends and colleagues over social media
sites [7]. Studies have shown that some of the smart mobile
devices run operating systems that can be sourced free in the
open source platform through fast internet streaming called
broadband [8]. Besides, the mobile devices are capable of
reading both logical and physical locations of the owner,
applications in use during conversations, time, type and
owner of data in use, which are useful during mobile device
forensic activities.
However, studies have shown that paramount issue in
mobile device forensic is preventing data alteration from its
originality during forensic processes which may sometimes
difficult to achieve [5]. Giving protection to the originality of
data or data integrity from the mobile devices that operate
with the aid of open source applications is necessary towards
proofing and acceptability of the forensics’ outcomes.
Previous studies in the field of digital forensics have focused
on the designing of model for the investigation, approach for
selecting appropriate tools, threats, challenges, and future
trends of mobile device forensic [7, 9, 10]. On the other
hands, there has not been study that presents the framework
to preserve the originality of the data from alteration during
investigation. Therefore, this study presents a framework to
preserve the originality of the data content of mobile device
during forensic processes in OSS environment.
II. RELATED WORKS
Study has shown that forensics investigation of mobile
devices is not limited to data content of mobile devices but
also given the opportunity to big data analysis in terms of
tracking the bearer’s locations through the internet of thing
(IoT) infrastructure [11]. Thus, biometric features and face
recognition have been suggested to be taken into
consideration while carrying out forensic activities in mobile
computing platform. On the other hand, Wang [12] argued
that face recognition approach in obtaining the information
of the carrier of mobile devices is simply dealing with
intrinsic mood of the owner of mobile devices. This implies
that these metrics are impacted in preserving the data
content of mobile devices.
Instant messages in the mobile devices of people under
investigation could be extracted to ease forensic activities.
The study of Oven and Morison [13] stressed that digital
forensic provides platform to ease accessibility of deleted
images in the mobile devices from the server of the
providers of the application. On the other hands, researchers
have emphasized that backup files specifically from the firm
ware of mobile devices could be served as the best metric to
obtain information needed for mobile device forensic
investigators [14]. However, this approach fits recovery of
data from the application that is compatible with specific
embedded Operating System (OS), such as iOS. Besides, Al
Mutawa et al. [15] inspected visibility of recovery data from
the mobile devices using social networking applications on
the mobile phone running iOS, thus the outcome shows
features of social network activities inform of forensic. In a
related study by Tso et al. [16] revealed that iOS inbuilt
application could be used to extract information transferred
between the individuals mobile devices for forensic
purposes.
Furthermore, the study of Sgaras et al. [17] suggested that a
Universal Forensic Extraction Device (UFED) should be
used to address recovery of information being transferred
between the perpetrators and the victims from the mobile
FREE AND OPEN SOURCE SOFTWARE CONFERENCE (FOSSC-17) MUSCAT, FEBRUARY 14-15, 2017
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device backup server. However, gaining access to the iOS
data content in the absence of owners may require backdoor
attack [18], which may distort the data from its original form
thereby making the outcome of the investigation skeptical.
Virtually all the applications or OS used in the mobile
devices are sourced freely from open source platform, and
need to obtain with carefulness due to their volatility
features. Hence, less or no study to the knowledge of
researcher has been conducted on preventing the recovered
data from the mobile device in an OSS environment from
being distorted. Thus, this study presents a framework to
preserve and obtain original data from the mobile devices
that operate in an OSS environment during forensic
investigation.
III. FRAMEWORK DEVELOPMENT
The main objective of this study is to present a framework to
prevent alteration of data content of mobile device during
the forensic activities in an OSS environment.
Nowadays, individual moves about with mobile phones or
devices due to their usefulness in our daily activities. This is
why condone-off of the crime site is necessary so as to give
protection to the devices found in the scene which may help
the analyst in getting the antecedents of the event. Thus,
recovery of mobile devices in the crime scenes plays vital
roles in gathering useful tools that may help in the forensic
investigation. Meanwhile, obtaining data from the recovered
mobile devices from the crime scene may be difficult due to
their small sizes of memory, processor and storage compared
to that of computer systems [19], thus required to be handed
over to a qualified mobile device forensic investigators.
Presentation of the recovered mobile devices from the crime
scenes or crime’s perpetrators to the mobile device forensic
investigator is necessary so as to preserve the originality of
data contents of the recovered mobile devices, which could
be call logs, text messages and contact lists [20]. Moreover,
the fact that mobile devices contain micro parts that are
difficult to handle, copying and transferring of data can be
done in an OSS environment as shown in Figure 2.
However, the confidentiality and integrity of data in the
recovered mobile devices could be questionable since OSS
environment allows independent volunteers at distributed
locations to work on the available project at their convenient
times.
Fig. 2: Framework for Preserving Data Integrity in Open Source Software Environment during Mobile Device Forensic
Lack of adequate security in an OSS environment for
forensic investigation in the context of mobile devices can
jeopardize the outcome of investigation prior to presentation
for the litigation processes. On the other hands, prevention
of intrusion in the OSS environment could preserve integrity
of data contents in the recovered mobile devices [21]. Thus,
three level authentications; short-lifespan password,
identification number and biometric [21] are recommended
to address the integrity of embedded data contents of
recovered mobile devices from the crime scene in the OSS
environment. This implies that users of OSS environment
for the purpose of forensics analysis of the recovered mobile
devices have to obtain permission from the owner of the
project prior to their intervention, using “Three Levels
Authentication” as shown in Figure 2. This is to ascertain
the identity and status of the players to prevent data from
intrusion, thus allows data acquisition. Besides, the needed
data artefacts are obtained for examination and analysis
since the integrity of data of mobile devices under
FREE AND OPEN SOURCE SOFTWARE CONFERENCE (FOSSC-17) MUSCAT, FEBRUARY 14-15, 2017
© SQU-2017 ISSN: 1813-419X -25-
investigation are guaranteed within the OSS environment
with many applications. Hence, the report can be written
outside the OSS environment for litigation stage.
IV. FRAMEWORK EVALUATION
The recommended framework for preserving data integrity
in an OSS environment during mobile device forensic as
presented in Figure 2 would be evaluated by considering the
four prominent approaches of evaluation [10], such as
observational, analytical, experimental and testing. All these
approaches of evaluation would ensure certainty of
performance of the recommended framework. Besides,
certain metrics like completeness, consistency, accuracy,
reliability, efficiency, effectiveness and ethicality of the
presented framework as shown in Figure 2 would be
measured vis-à-vis observational, analytical, experimental
and testing approaches of evaluation. Hence, the result of
evaluation of each of the metrics would reveal the status of
the recommended framework in terms of low, medium or
high.
V. CONCLUSION
Many of the investigations become inconclusive as a result
of failure to use the necessary tools and approach to gather
information about the event. Therefore, mobile device
forensic is recommended to gather the trend of event. The
OSS environment has been described as platform that allows
processing and running of some programs that may be
difficult to obtain their vital information in the real sense.
Moreover, preserving the integrity of data content of the
recovered mobile devices from the crime scene is necessary
towards obtaining the exact flow of discussions or plans of
the perpetrators prior to the event, and has been the
bottleneck in the domain of mobile device forensic. This
study has presented a framework to preserve the integrity or
originality of data content of the recovered mobile devices
from the crime scene with focus on OSS environment. The
use of OSS platform has been claimed to be secure and
providing robust applications to obtain volatile data in the
electronic devices. Hence, this study would be extended in
the future by implementing the presented framework using
the four prominent approaches of evaluation; observational,
analytical, experimental and testing.
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