PhD DEGREE PROGRAMME

The Doctoral programme is intended to achieve the following objectives:

  •  Produce doctoral candidates capable of initiating and leading Research and Development
    (R & D) works in the areas of specialization,
  •  Prepare candidates to be able to design, develop and test efficient electronic systems in
    real time.
  •  Produce the highest educated and trained manpower that will ameliorate and eventually
    reverse the acute shortage of academics;
  •  Produce the highest level of consultants capable of providing technical solutions to
    Governments, Industry and Business, and
  •  Promote collaboration between specialists/experts in the area of Communication
    Engineering.

ENTRY REQUIREMENTS

The applicants must possess the minimum of M.Sc., or M.Eng. degree certificate with 3.5 GPA
on a five point scale minimum requirement. The applicant must have Electronic Engineering
background and any other minimum requirement as in the current postgraduate programme in
the department/faculty.

CERTIFICATION

At the end of the programme the graduates are awarded the Ph.D. degree certificates.

PROGRAMME DURATION

The Ph.D. degree programme has a defined duration based on the mode of the programme i.e.
whether part-time or full-time mode.

Full-time
Part-time
6 semesters minimum
8 semesters minimum

LIST OF APPROVED SUPERVISORS

  1. Engr. Prof. C.I Ani
    M.Sc. (Moscow), M.Phil (Suzzex), Ph.D. (Wales), MNSE
    Data Communication and Network Resource Management


  2. Engr. Prof. O. U. Oparaku
    B.Eng (UNN), Ph.D. (Newcastle), MNSE


  3. Engr. Prof. O. N. Iloanusi
    B.Eng (UNN), M.Eng (UNN), Ph.D. (UNN), MNSE
    Biometrics, Artificial Intelligence, Computer Vision, Machine / Deep Learning, Pattern analysis and Signal Processing.


  4. Engr. Dr. M. A. Ahaneku
    B.Eng (FUTO), M.Eng (FUTO), Ph.D. (UNN), MNSE


  5. Engr. Dr. V. C. Chijindu
    B.Eng (ESUT), M.Eng (ESUT), Ph.D. (AWKA)
    Digital Electronics

PhD DEGREE PROGRAMME STRUCTURE

A COMMUNICATION SPECIALIZATION
 Compulsory Courses
Course CodeCourse TitleUnits
ECE 712Modeling & Simulation Practice3
ECE 715Advanced Security Engineering3
ECE [ ](One Optional Course)3
  9 Units
   Research  
Course CodeCourse TitleUnits
ENG 701Thesis and Technical Report Writing3
ENG 702Research Grant Writing3
PGC 701Synopsis and Research Grant Writing3
ECE 703Seminars3
ECE 700Thesis12
  24 Units
 Optional Courses
Course CodeCourse TitleUnits
ECE 710Network Management & Reliability3
ECE 713Optical Networking3
ECE 714Long-Distance Networks3
ECE 716Advanced Signal Processing3
  12 Units

(One course only is required to be chosen.)

COURSE DESCRIPTIONS
ECE 700 Thesis (12 Units)

Each candidate for a Doctoral degree shall be assigned a suitable research project approved by
the Departmental Postgraduate Studies Committee. The results of the research shall be embodied
in a thesis.

ENG 701 Thesis and Technical Report Writing (3 Units)

Choice of broad research area with considerations of interdisciplinary topics, Identification of
research/ knowledge gaps and research objectives.
Role of technical reports in engineering projects. Fundamental principles of technical writing.
Format of different types of reports, outlines, purpose and scope, technical discussion details,
role of appendix, function of figures, equation editors, tables and illustration. Literature search,
references (citings and listings). Nature of recommendations and conclusions. Guides for writing
memoranda, business letters. Oral presentation of technical reports and thesis. Synopsis writing

ENG 702 Research Grant Writing (3 Units)

Developing long-term research plan, Identification of potential funding agencies and their
requirements. Research objectives in relation to interests of the funding agencies. Estimating research timelines, Budget preparation, manpower requirements and availability, research facilities, legal issues, etc

ECE 703 Seminars (6 Units)

Each doctoral candidate shall present at least three seminars on his/her research project before
graduation. At least, one seminar shall be presented at faculty level before graduation

ECE 710 Network Management and Reliability (3 Units)

Fault; Configuration; Performance; Accounts; and Security Management. Management Protocols – SNMP, CORBA and CMIP; Management Information Base (MIB).
Reliability; Network Monitoring Techniques – Local and Remote

ECE 711 Signaling Systems (3 Units)

Evolution of Signaling Systems; SS No. 6; Architecture; SS No. 7 Relationship to OSI; Signaling system Structure; Signaling Network Management; The Signaling Data Link (Layer 1); Signaling Link (Level 2); Basic Signal Unit Format; Signaling Network Functions and Signaling Link (Level 2); Basic Messages; (Layer 3); Signaling Message-Handling Functions; International and National Signaling Networks; Signaling Performance—Message Transfer Part; Performance Parameters;
Signaling Connection Control Part (SCCP); Hypothetical Signaling Reference Connections;
Services Provided by the SCCP; Signaling Connections; SCCP Formats and Codes; User Parts; Telephone User Part (TUP)

ECE 712 Modeling & Simulation Practice (3 Units)

Advanced Queuing Theory-Loss System and Delay System; Analytical Modeling and Simulation using EXCEL spread sheet. Computer Simulation Object Oriented Network Simulation Packages – SPSS, MATLAB;

ECE 713 Optical Networking (3 Units)

Optical Technologies Required; Derived Technology Applications; Overlay Networks; TwoLayer Networks are Emerging; Optical Switching; Distributed Switching; MEMS Switching;
Practical Optical Add–Drop Multiplexer; OXCs and OADMs Enhance Availability and
Survivability; Improvements in the Management of the New Network Architecture; All-Optical
Cross-Connects; Options for Optical Layer Signaling; Four Classes of Optical Networks;
Generic Networks; Optical Bidirectional Line-Switched Rings; Generalized Multiprotocol Label
Switching (GMPLS); Selected GMPLS Terminology; The GMPLS Protocol Suite; GMPLS Switching Based on Diverse Formats; Bundling Links; Standardization of Optical Control Plane Protocols; GMPLS and ASON Differ; Hierarchical Routing in Optical Networks.

ECE 714 Long-Distance Networks (3 Units)

Design Problems; Transmission Factors in Long-Distance Telephony; Design of Long-Distance
Links; Design of Line-of-Sight Microwave Systems; Design of Satellite Communications; FiberOptic Communication Links.

ECE 715 Advanced Security Engineering (3 Units)

The multidisciplinary nature of security. Background: types of attacks and attackers; range of
systems. Overview of security standards and best practices. Access control; authentication
techniques, passwords and password vulnerabilities. Data protection. Basic Cryptography;
Certificates; Crypto-primitives and cyphers. Privacy and anonymity. Trust. Trust mechanisms
and level of trust. Computer security; software and platform security. Network security; attack
detection and mitigation. ATM security; E-commerce security. Card security; GSM and SIM
cards; Payment systems. Security of database applications; injection attacks; Cross-site scripting.
Penetration listing and Web-based systems / Cyber security. Fraud and loss prevention: Banking
Security. National security.

ECE 716 Advanced Signal Processing (3 Credits)

DT Processing of CT Signals and CT Processing of DT Signals: Fractional Delay
Data Acquisition: Sampling in time, aliasing, interpolation, and quantization, sampling Rate
Conversion, spectral analysis. Quantization and Oversampled Noise Shaping. IIR, FIR Filter
Structures. Filter Design: IIR Filters. Filter Design: FIR Filters.
Multirate Systems and Polyphase Structures. Linear Prediction and All-pole Modeling. The
Discrete Fourier Transform (DFT). Linear Filtering with the DFT. Spectral Analysis with the
DFT. FFT Algorithms. Short-time Fourier Analysis. Modulated Filter Bank.
Image processing I: Extension of filtering and Fourier methods to 2-D signals and systems.
Image processing II: Interpolation, noise reduction methods, edge detection, homomorphic
filtering.