Main Knowledge Area | Acronym |
Year 1 | |
Introduction to Digital Forensics | IDF |
Fundamentals of Computer Systems | FCS |
Programming for Digital Forensics | |
Data Structures and Algorithms | DSA |
Networking Fundamentals | NF |
Operating Systems Concepts | OSC |
Introduction to Cybersecurity | ICS |
Mathematics for Digital Forensics | MDF |
Legal and Ethical Issues in Digital Forensics | LEIDF |
Year 2 | |
File System Analysis | FSA |
Network Forensics | NF |
Mobile Device Forensics | MDF |
Database Forensics | DBF |
Cybercrime Investigation | CI |
Malware Analysis | MA |
Forensic Data Recovery | FDR |
Cryptography for Digital Forensics | CDF |
Professional Practice in Digital Forensics | PPDF |
Year 3 | |
Advanced Digital Forensics Techniques | ADFT |
Cloud Forensics | CF |
Social Media Forensics | SMF |
Internet of Things (IoT) Forensics | IOTF |
Incident Response and Forensics | IRF |
Fraud Examination and Financial Forensics | FEFF |
Research Methods in Digital Forensics | RMDF |
Professional Practice in Digital Forensics | PPDF |
Competency Matrix
A competency matrix is a tool designed to systematically identify, list, and rate the performance of individual competencies required for a job role, a group of roles, or a functional area. In the context of an educational curriculum, especially for a technical field like digital forensics, the matrix helps ensure that the courses taught align with the necessary skills and knowledge that the industry demands.
- Identification of Competencies:
- Technical Knowledge: These are specific, teachable abilities or skill sets that are easily measurable.
- Analytical Skills: These competencies relate to the ability to visualize, articulate, and solve both complex and uncomplicated problems and concepts and make decisions that are sensible based on available information.
- Practical Skills: This involves the application of technical knowledge in real-world scenarios.
- Professional Skills: These are attributes and personality traits that enhance an individual’s interactions, job performance, and career prospects.
- Outcomes: These are the anticipated goals or job roles that students should be prepared to take on after completing the course.
- Mapping Competencies to Courses:
- Each course should contribute to several competencies.
- Some courses will contribute heavily to one competency area but less to others.
- The matrix shows which courses are primary contributors to each competency.
- Defining Learning Objectives:
- Each course has specific learning objectives that describe what the student should be able to do upon completion.
- The learning objectives should be SMART: Specific, Measurable, Achievable, Relevant, and Time-bound.
- Defining Educational Outcomes:
- Educational outcomes are the broader skills that students should develop, which are not limited to technical knowledge.
- These include critical thinking, problem-solving, communication, teamwork, and ethics.
- Rating and Weighting:
- We might rate how strongly each course contributes to a particular competency on a scale (e.g., 0-3, with 3 being a strong contribution).
- This can be visualized in the matrix through different shading or coloring to indicate the level of contribution.
- Correlating with Industry Standards:
- The competencies should be aligned with industry certifications and standards.
- This ensures that the curriculum remains relevant and that students are job-ready.
- Continuous Updates:
- The competency matrix is not static and should be updated regularly to reflect changes in the industry.
- This may involve adding new courses, adjusting learning objectives, or phasing out competencies that are no longer relevant.
- Stakeholder Involvement:
- Involving industry professionals, alumni, and current students in the review of the matrix can provide valuable feedback.
- This ensures that the curriculum meets the current needs of employers and the industry.
By elaborating on the competency matrix, educators can provide a structured pathway for students to acquire the knowledge and skills needed to succeed in digital forensics roles. It also allows for a clear visualization of the curriculum’s design and its alignment with professional pathways.
Learning Objectives / Competencies | Introduction to Digital Forensics | Computer Systems Fundamentals | Programming for Digital Forensics | Networking Fundamentals | Cybersecurity Principles | Mathematics | Legal and Ethical Issues |
Technical Knowledge | |||||||
Understanding basic forensic principles |
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Knowledge of computer architecture |
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Operating systems usage and security |
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Basic programming skills |
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Scripting for forensic processes |
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Network protocols and architecture |
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Cybersecurity and information security concepts |
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Mathematical foundations for cryptography and analysis |
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Analytical Skills | |||||||
Problem-solving in digital environments |
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Analytical thinking in digital investigations |
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Practical Skills | |||||||
Collection and preservation of digital evidence |
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Programming and scripting for forensic tools |
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Network security basics and threat analysis |
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Application of discrete mathematics in problem-solving |
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Professional Skills | |||||||
Ethical considerations in forensics |
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Legal frameworks and compliance |
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Effective communication of technical concepts |
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Outcomes | |||||||
Prepared for entry-level forensics roles |
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Ability to support cyber investigations |
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Readiness for industry certification |
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