Journal of Forensic Legal & Investigative Sciences Category: Forensic science
Type: Research Article
The Feasibility of Creating a Universal Digital Forensics Framework
*Corresponding Author(s):
Gareth DaviesDepartment Of Engineering And Science, Faculty Of Computer, University Of South Wales, United Kingdom
Email:gareth.davies@southwales.ac.uk
Received Date: Jun 03, 2019
Accepted Date: Jul 16, 2019
Published Date: Jul 23, 2019
Abstract
The aim of this paper was to identify quality evidence that supports the feasibility that a standardized digital forensic methodology for all investigations of all digital artifacts in the global environment can be generated. The industry acknowledges that the current methodologies are not adequate for the needs of the fast-changing environment of digital forensics, and a key driver will be the development of the reputation of digital forensics as a field of science. Alongside this will be the global acceptance of standard legislation that will deal with cyber-crimes in an unbiased judicious manner. The result of this research is that it is feasible to generate a global standard for digital forensic investigations if organizations work together.
Keywords
Digital evidence; Digital forensics; Methodologies; Standardization; Universal Framework
INTRODUCTION
In this research, we address several different objectives that make up the whole aim. The following are the objectives for this research:
Added to the complexity of digital forensics is the impact of remote and distributed systems as well as the developing technology of artificial intelligence (AI). The challenge is to present evidence with a reliable method; with such a variety of methods a key area for development is the standardization to meet all current and future requirements. This research will concentrate on the current models utilized by investigators and will investigate the analysis already performed to standardize the methods. The sources for this information will be specialist journals such as International Journal of Digital Evidence and articles found on forensic websites, as well as academic books on the subject.
In his book ‘Digital Forensics Threats cape and Best Practices’ John Sammons [2] put together several expert authors to write about specific areas. Mark Pollitt was one of the contributors and he introduced the simplest digital forensics model, the 4-stage model (Figure 1) developed in 2006 by the National Institute of Standards and Technology (NIST).
- To identify the justifications for a standard in the subject area of digital forensics
- To identify the barriers to a global standard
- To be able to make recommendations on how to create a single global digital forensics standard
Added to the complexity of digital forensics is the impact of remote and distributed systems as well as the developing technology of artificial intelligence (AI). The challenge is to present evidence with a reliable method; with such a variety of methods a key area for development is the standardization to meet all current and future requirements. This research will concentrate on the current models utilized by investigators and will investigate the analysis already performed to standardize the methods. The sources for this information will be specialist journals such as International Journal of Digital Evidence and articles found on forensic websites, as well as academic books on the subject.
In his book ‘Digital Forensics Threats cape and Best Practices’ John Sammons [2] put together several expert authors to write about specific areas. Mark Pollitt was one of the contributors and he introduced the simplest digital forensics model, the 4-stage model (Figure 1) developed in 2006 by the National Institute of Standards and Technology (NIST).
Figure 1: National Institute of Standards and Technology (USA) model.
As well as providing an outline of a model he also clearly defines the goals of digital forensic investigation. This is a good start point for any future standard, in understanding the foundation of the role and building from that.
His two goals were:
- To preserve the integrity of the evidence
- To find and make available information of value to the submitter of the evidence.
RESEARCH METHODS
The fluid environment of digital forensics increases the opportunity for inadmissibility of evidence, a reputation for sound scientific method must be established as it has with other sciences. An example being fingerprinting which was not introduced into criminal proceedings until 1901 [3] when they were accepted by Scotland Yard as a valid method to identify an individual. They are now an accepted and common method for identification of individuals in criminal cases.
It is hoped that the output of this research will be an understanding and a consensus that a standardized model is required and initiating collaboration between nations across the world to achieve this common goal.
Previous studies of digital forensic methodologies have concentrated on a comparison of what exists and how to improve what exists to make the process more reliable, and thus generate a new methodology. In this project, the aim was different; the intention was to review the comparison literature that exists on digital forensics and develop an understanding of what is the purpose of the investigation methodology. Simultaneously, a review of current trends in Information Technology and the future possible infrastructure changes that may cause barriers for evidence gathering was performed.
It is hoped that the output of this research will be an understanding and a consensus that a standardized model is required and initiating collaboration between nations across the world to achieve this common goal.
Previous studies of digital forensic methodologies have concentrated on a comparison of what exists and how to improve what exists to make the process more reliable, and thus generate a new methodology. In this project, the aim was different; the intention was to review the comparison literature that exists on digital forensics and develop an understanding of what is the purpose of the investigation methodology. Simultaneously, a review of current trends in Information Technology and the future possible infrastructure changes that may cause barriers for evidence gathering was performed.
STANDARDS
It is important that a standard model is developed, and a definition of a standard must precede this. Below I have proposed a definition of a standard for digital forensic investigations.
A standard is a structured set of rules, guidelines or characteristics that are a measure of the quality and provide an assurance of the fitness for purpose of an output from a human endeavor. This set of rules, guidelines and characteristics will have been generated from a consensus of experts in the subject field.
Considering the development cycle of the field of digital forensics and the stage that it has currently reached it can be implied that the next stage will be to support the development of automatic processes which would allow for the larger volumes of evidence that are retrieved to be processed more effectively and efficiently. The digital forensic industry is ready for this next stage of evolution.
There are both advantages and disadvantages to the implementation of standards within the industry. The following are some common advantages to standardization:
A standard is a structured set of rules, guidelines or characteristics that are a measure of the quality and provide an assurance of the fitness for purpose of an output from a human endeavor. This set of rules, guidelines and characteristics will have been generated from a consensus of experts in the subject field.
Considering the development cycle of the field of digital forensics and the stage that it has currently reached it can be implied that the next stage will be to support the development of automatic processes which would allow for the larger volumes of evidence that are retrieved to be processed more effectively and efficiently. The digital forensic industry is ready for this next stage of evolution.
There are both advantages and disadvantages to the implementation of standards within the industry. The following are some common advantages to standardization:
- Provide a definition of common technological terms
- Allows for individuals to train to the same level of knowledge and expertise
- Ensures that the industry has integrity
- Give confidence to the consumer
- Updated regularly to keep pace with technology
- Ensure that evidence is not mishandled
Standards linked to Digital Forensics
Although there is no one standard to cover all activities within the field of digital forensics, there has been an attempt in recent years to create some standards, ISO has made a start on a group of standards known as the ISO27k series to support Information Technology Security. There are four specific ISO standards that are especially important in this specialist area:
ISO17025 – General Requirements for the Competence of Testing and Calibration Laboratories
ISO27035 – Information Security Incident Management
ISO27037 – Identification, Collection, Acquisition and Preservation of Digital Evidence
ISO9001 – Quality Management Systems
ISO17025 – General Requirements for the Competence of Testing and Calibration Laboratories
ISO27035 – Information Security Incident Management
ISO27037 – Identification, Collection, Acquisition and Preservation of Digital Evidence
ISO9001 – Quality Management Systems
ISO 17025
This standard relates to the issue of reliability of analysis, in that it is concerned with the competence of all laboratories not just those that undertake digital forensics. The purpose is to give members of the public the confidence in the output reports from the laboratories and to give confidence to the courts that any results have been scientifically tested, are impartial and consistent and that results are valid. ISO 17025 is a standard that all laboratories should be trying to gain accreditation to, it was initially timetabled that all laboratories should have gained accreditation by October 2017. However, there has been a low take-up of the accreditation, the current requirement to attain ISO17025 is costly and time consuming, and this is a barrier. The standard has been written in such a way as to provide some instruction; guidance on the development of a laboratory and its structure as well as the equipment that would be expected to be in existence to provide the consistent reliability of testing, however it does not fully support a standard methodology for digital forensic investigations.
DISCUSSION
An examination of digital forensic models International Journal of Digital Evidence
In this comparison, the authors [4] have compared four models, this being one of the first comparisons to be performed on models discusses those that are widely used at this time. Early on in this paper the authors clearly understood the importance of being able to have a consistent and well-defined method to use and that standardization was the best way forward.
The authors discuss the reasons why no standard had been developed realizing that current models were based on the technology available and were very ad-hoc. These developments have been inspired by the emergence of new technology and the need to be able to analyse data, not from the scientific community, and therefore they are not considered to be reliable and are untrusted in a court of law.
The four models that were discussed were:
The authors discuss the reasons why no standard had been developed realizing that current models were based on the technology available and were very ad-hoc. These developments have been inspired by the emergence of new technology and the need to be able to analyse data, not from the scientific community, and therefore they are not considered to be reliable and are untrusted in a court of law.
The four models that were discussed were:
- Farmer and Venema [5] 5 steps to dealing with a situation
- K Mandia and C Prosise Incident response methodology
- Department of Justice model
- DFRWS model
Figure 2: Abstract digital forensic model.
The method is adaptable in its design to permit additional sub-procedures which would support the different classes of digital technology under this model. This would mean that only new sub-procedure Would need to be developed for a new technology, rather than writing a completely new method as is the current trend.
Taxonomy of Computer forensics methodologies and procedures for digital evidence seizure
In this article [7] the author begins with the basic premise that for every investigation there are three aims:
- Acquire evidence without altering or damaging it
- To authenticate that the copy is the same as the evidence seized
- Analyse the data without altering it.
Figure 3: Cyber tools on line search for evidence model.
The article compares three different methodologies, the Basic Forensics Model, the Cyber Tools On-line Search for Evidence (CTOSE) and Data Recovery UK (DRUK). The comparison is provided in the form of tables for the Identification, Acquisition, Analysis and Reporting phases. The tasks are based upon the author’s opinion of what needs to be performed and the article being written in 2006 makes no reference to technology and thus has an advantage that it is generic. It is recognized by the authors that there is a wide diversity of methodologies utilized in digital forensics, but all commonly attempt to provide the same integrity of data. It continues emphasizing that work is needed to provide a standard method for all, that is should be mandatory and a legal requirement which would provide the integrity and reliability that is necessary.
Common phases of computer forensics investigation models
The comparison was an extensive [8] piece of research and compared 15 models, some of which were discussed in the article by Reith. The main aim of this research was to generate a common model and was justified in its recognition that there were many models that were being used and this was causing issues of admissibility. The outcome of the comparison was the description of a new generic model known as the Generic Computer Forensics Investigation Model (GCFIM).
This research was searching to identify the common phases that went across the majority of models; the authors had to make assumptions about similar phraseology linking similar steps. This needs detailed knowledge of all the methodologies to ensure that a phase is not misinterpreted. The authors were able to generically group activities together and came up with a 5-stage model, the result being the Generic Computer Forensics Investigation Model (Figure 4).
This research was searching to identify the common phases that went across the majority of models; the authors had to make assumptions about similar phraseology linking similar steps. This needs detailed knowledge of all the methodologies to ensure that a phase is not misinterpreted. The authors were able to generically group activities together and came up with a 5-stage model, the result being the Generic Computer Forensics Investigation Model (Figure 4).
Figure 4: Generic computer forensic investigation model.
This model was generated from sound scientific analysis, but the analysis lacks consideration of models generated for other digital devices such as mobile phones. This raises the question of whether this model would be generic enough to consider all digital devices. The authors recognized that the process of digital investigation is not a linear one, which allows for investigators uncovering new leads as they analyse evidence and returning to the data gathering stage.
Analyses of the state-of-the-art digital forensic investigation process models
In this article the authors [9] recognized the importance of the development of a standardized or harmonized method, and they identified the same common key barriers of jurisdictional boundaries, disparities between number of phases in models, the language and terminology used to identify phases. This analysis had an aim that differed from others, the authors wished to concentrate on the characteristics of the model to highlight the commonality, the difference and those areas where the model could be standardized. The authors mapped all the phases of the models (Figure 5) that they had chosen, this mapping as well as the phases, unconventionally included an analysis of the actionable principles, those actions that need to take place during a digital forensic investigation.
This analysis shows a scientific methodology has been applied to determining the common phases of models. However, the limitation is that this does not consider models for all types of digital devices e.g. Smart phones. In the current Information Technology environment this is a very important element of any discussion on methodologies for digital forensic investigations. The comparison in providing the actionable principles is an important piece of work, it reflects directly the admissibility of evidence and the actions that must be taken by investigators to ensure evidence is admissible [10].
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Reith et al. [10] |
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Carrier at al.[12] |
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Figure 5: Comparison of digital forensic process models.
This analysis shows a scientific methodology has been applied to determining the common phases of models. However, the limitation is that this does not consider models for all types of digital devices e.g. Smart phones. In the current Information Technology environment this is a very important element of any discussion on methodologies for digital forensic investigations. The comparison in providing the actionable principles is an important piece of work, it reflects directly the admissibility of evidence and the actions that must be taken by investigators to ensure evidence is admissible [10].
Comparative Analysis of digital forensic models
This article provides a well-structured analysis (Figure 6) of previous comparisons of digital forensic models [11]. This comparison is concerned with what exists and identifying the elements that are common. If elements are common amongst these models, then it has been implied that it has been recognized as best practice. This article discusses seven models, in general, this article confirms that there are four main phases of digital evidence investigation i.e. Collection, Examination, Analysis and Reporting.
However, the aim of a standard methodology is to consider all phases of an investigation not just the phase of extraction and analysis which is missing from this analysis.
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Figure 6: Comparative Analysis of digital Forensic Process models.
However, the aim of a standard methodology is to consider all phases of an investigation not just the phase of extraction and analysis which is missing from this analysis.
A new digital investigation framework comparison method
This article was a comparative study made on the International scene, [12] the aim of the study is to identify a method that is reliable and has integrity. The articles emphasis is on the phases of the different models and the discovery of four main criteria (Figure 7) i.e. shorter time periods, transparency and privacy of evidence, reliability and consistency and reusability.
These four key criteria can be seen to reflect part of the APCO [13] principles. This analysis is different because it is focused on tasks that should happen for evidence to be admissible in court. The article proposes a new model which does offer an iterative approach which is essential in digital forensic investigations. The model is designed with two outputs:
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Figure 7: Comparative digital investigation model based on respecting criteria.
These four key criteria can be seen to reflect part of the APCO [13] principles. This analysis is different because it is focused on tasks that should happen for evidence to be admissible in court. The article proposes a new model which does offer an iterative approach which is essential in digital forensic investigations. The model is designed with two outputs:
- The preservation of the evidence - this is essential in a court of law
- The expert witness statements
Commonality of conclusions
The outcome of the previous studies is generally a proposed new model, one that has been developed from the parts of the existing models. The studies also conclude that a standard model is required, due to the ad-hoc nature of the development of existing models and the fluid environment that digital forensics work in. The science is still evolving at a very fast pace and trying to keep up with the technological changes. Although it is agreed that this is important and that there is a consensus on the need of a standard as well as the basic function of the standard, there is no focus from any formal group to develop this. This review has been developed to identify the commonality of results in the current articles that have been written comparing digital forensic methodologies.
Barriers
It is evident from the research on digital forensics standardization that there are barriers or challenges to be overcome before a global standard can be adopted. It is not clear whether all these challenges can be overcome and if they can’t, can they be tolerated as a risk. In his book Eoghan Casey discusses the impact of admissibility of evidence in court cases. A consideration for a move to standardization is the development of a scientific method increasing the probability of admissibility. Admissibility is the courts determination as to whether evidence is “safe” to put before a jury and will help provide a solid foundation for decisions in the case. In practice, admissibility is a set of legal tests carried out by a judge to assess an item of evidence. This assessment process can become complicated, particularly when the evidence is not handled properly or has traits that make it less reliable or more prejudicial. Some jurisdictions have rules relating to admissibility that are formal and sometimes inflexible, while other jurisdictions give judges more discretion. Some key tests for admissibility are:
- Relevance
- Authenticity
- Not hearsay or admissible hearsay
- Best evidence
- Not unduly prejudicial
- Can be costly for all organisations to attain a standard and its relevant certification
- If a standard is voluntary it does not have to be followed and the industry remains in a flux position.
- Standards can be slow to evolve
- Standards can conflict globally
- Put restrictions on the innovative industries
- Can still be misinterpreted
- Can be cumbersome and increase time spent on a task
- Not enough support to implement them
- Difficult to understand, may be written in technical language
- Cannot confirm an expert’s competence
FEASIBILITY
The aim of this research is to ensure that a global standard model for digital forensic investigations is feasible. A key is to understand the core reason for the requirement; this is the admissibility of digital evidence in a court of law. In their article Antwi-Boasiako and Venter [14] discuss the same issue of what test is applied to ensure that evidence is admissible, and they proposed a model for digital evidence admissibility assessment which has six characteristics:
- Typical legal requirements
- Legal Authorisation
- Digital Evidence Relevance
- Digital Evidence Authenticity
- Digital Evidence Integrity
- Digital Evidence Reliability
CONCLUSION
In conclusion, this research has discussed the concept of a standard and an attempt has been made to develop a definition that can be used for the field of digital forensics. This has been developed as a foundation to discuss the feasibility of a standardized digital forensic investigation model. It has been possible to identify four key principles of admissibility which defines the output of the standardized digital forensic investigation, these four elements are repeatability, relevance, authenticity and integrity. Generating a global standard for digital forensic investigations using these four principles should be feasible if organizations work together. It is clear from the research viewed that there are a wide variety of digital forensic investigation models that have evolved over the last 20 years, there is a diversity in the models selected. Not all models have been selected by all authors for all comparisons, the reason for this is unknown, and possibly omitting them would better fit in with their proposed development.
There is one common outcome from all these comparisons, which is that it is essential to have a global standard method to allow digital evidence investigations to be considered scientifically sound. Although it is agreed that this is important and that there is a consensus on the need of a standard as well as the basic function of the standard, there is no focus from any formal group to expend the time to develop a standard.
There is one common outcome from all these comparisons, which is that it is essential to have a global standard method to allow digital evidence investigations to be considered scientifically sound. Although it is agreed that this is important and that there is a consensus on the need of a standard as well as the basic function of the standard, there is no focus from any formal group to expend the time to develop a standard.
RECOMMENDATIONS FOR FUTURE RESEARCH
If possible develop a consortium of global experts in the field of digital forensics and the legal profession as well as those from the social sciences who can collaborate on building a new standard following the four principles and bringing together organizations that have already produced some very good research on what a new standard model should contain. A development of the research on barriers is recommended to enable these to be addressed by the consortium when developing a global standard. Continuing this research is important and the next stage should be to take the four principles of admissibility and identify those current models that contain these principles and creating the foundations for a common model. This research is a snapshot of the current position of digital forensics as a scientific field. It highlights the need for a standardized universal framework for digital forensic investigations and emphasizes the difficulties the scientific field could have in the future if no action is taken.
REFERENCES
- Altoe R (2016) Digital Forensics in an eDiscovery World. Science Direct 6: 85-98.
- Sammons J (2016) Digital Forensics Threatscape and Best Practices.
- Crime Scene Forensics LLC. (2018) History of Finerprints.
- Reith M, Carr C, Gunsch G (2002) An examination of Digital Forensic Models. International Journal of Digital Evidence 3: 1-12.
- Venema D (1999) Computer Forensics Analysis Class Handouts.
- Prosise C, Mandia K (2001) Incident Response Investigating Computer Crime.
- Sansurooa K (2006) Taxonomy of computer forensics methodologies and procedures for digital evidence seizure. Australian Digital Forensics Conference.
- Yusoff Y, Ismail R, Hassan Z (2011) Common phases of computer forensics investigation models. International Journal of Computer Science and Information Technology 3: 17-31.
- Valjarevic A, venter H (2012) Analyses of the state of the art digital forensic investigation process models. Institute of Electrical and Electronics Engineers. 74-83.
- Casey E (2011) Digital evidence and computer crime forensic science, computers and the internet.
- Jafari F, Shafique Satti R (2015) Comparitive Analysis of digital forensic models. Journal of Advances in Computer Networks 3: 82-86.
- Takwa O, Belgacem C, Adel D (2016) A new digital investigation framework comparison method. International Journal of Computer Techniques. 3: 6-10.
- Officers (2012) ACPO Good Practice Guide for Digital Evidence. London: ACPO.
- Antwi Boasiako A, venter H (2017) A model for Digital Evidence Admissability assessment. Advances in Digital Foresics. 23-38.
Citation: Davies G, Smith K (2019) The Feasibility of Creating a Universal Digital Forensics Framework. Forensic Leg Investig Sci 5 : 027.
Copyright: © 2019 Gareth Davies, et al. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
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