Master of Science in Telecommunication concentration in Security
Students in the Master of Science in Telecommunication program may pursue a concentration in Security, which provides in-depth knowledge of emerging security threats and solutions to prepare technical leaders to identify, develop, and implement highly secure networks that support organizational goals.
Students who complete the Telecommunication master’s degree concentration in Security will be able to demonstrate:
- Advanced knowledge of data communication protocols and networks, including, but not limited to, error control and flow control, distributed synchronization, error detection and correction, forwarding and techniques to implement it, performance analysis of networks, and management of large networks.
- Competence sufficient to design, specify, and develop data transfer protocols for specific purposes; design, specify, plan, and define networks of any size; and analyze, evaluate, and select network technologies.
- Advanced knowledge of information security concepts, governance, biometric systems, and database systems security, as well as network security and cryptography.
- Proficiency in risk management, such as asset assessments, architectural solutions, modeling, and design.
- Competence in security policies, processes, technology, and operations.
A total of 40 credits is required. Students must complete both the Core Curriculum and the Concentration Requirements.
Admission & Prerequisite Information
Official transcripts of previous academic work, three letters of recommendation, personal statement, and résumé are required as part of the application.
A maximum of two graduate-level courses (8 credits) taken at Metropolitan College before acceptance into the program may be applied toward the degree.
Minimum passing grade for a course in the graduate program is C (2.0), but an average grade of B (3.0) must be maintained to be in good academic standing and satisfy the degree requirements.
No grade lower than C may be used toward degree requirements. Students must maintain an overall grade point average of 3.0 in order to be in good academic standing and to graduate. Students with a grade point average of less than 3.0 are on academic probation and must be in a position to achieve a 3.0 within the 48 required credit hours for graduation.
Applicants to the program are required to have a baccalaureate degree and proficiency in the following areas:
- MET CS 201 Introduction to Programming
- MET CS 231 Programming with C++ or
MET CS 232 Programming with Java
- MET CS 472 Computer Architecture
- MET CS 546 Introduction to Probability and Statistics
(Six courses/24 credits)
MET CS 535 Computer Networks
This course provides a robust understanding of networking. It teaches the fundamentals of networking systems, their architecture, function and operation and how those fundamentals are reflected in current network technologies. Students will learn the principles that underlie all networks and the application of those principles (or not) to current network protocols and systems. The course explains how layers of different scope are combined to create a network. There will be a basic introduction to Physical Media, the functions that make up protocols, such as error detection, delimiting, lost and duplicate detection; and the synchronization required for the feedback mechanisms: flow and retransmission control, etc. Students will be introduced to how these functions are used in current protocols, such as Ethernet, WiFi, VLANs, TCP/IP, wireless communication, routing, congestion management, QoS, network management, security, and the common network applications as well as some past applications with unique design solutions. Prereq: MET CS 575 and MET CS 201 or MET CS 231 or MET CS 232. Or instructor's consent. Restrictions: This course may not be taken in conjunction with MET CS 625 or MET CS 425 (undergraduate). Only one of these courses can be counted towards degree requirements. [ 4 cr. ]
|B1||IND||Day||KCB 103||T||6:00 pm – 8:45 pm|
MET CS 575 Operating Systems
Overview of operating system characteristics, design objectives, and structures. Topics include concurrent processes, coordination of asynchronous events, file systems, resource sharing, memory management, security, scheduling and deadlock problems. [ 4 cr. ]
|C1||IND||Nourai||MCS B33||W||6:00 pm – 8:45 pm|
MET CS 635 Network Media Technologies
The purpose of this course is to provide students with a deeper understanding of Media-specific Technologies not only so that they will be able to use the ones covered in this course, but more importantly be able to analyze and evaluate new technologies. This course applies the principles from CS 535 to understand the engineering that lead to them as well as the special problems that confront network technologies that operate directly over the physical media. These Media specific layers have three problems to solve: the usual one of multiple users of a common resource, accommodating the particular characteristics of the media, and providing (to the degree possible) a media- independent service to the layers above. While CS 535 provides a high-level view of some of these technologies, in this course, they are considered in much greater detail as to how these technologies address their requirements and take advantage of the assumptions made. The emphasis is on those technologies that are either representative of a type or take a unique perspective on the problem. Hence, the traditional data link protocols, such as HDLC, modern Ethernet (primarily VLANs), WiFi (802.11) represent the first type, while media technologies, such as DOCSIS, RFIDs, IoT, and cellular mobile networks are representative of the second. The course will consider how these technologies solve mobility, routing, congestion, QoS (multi-media), security, etc. A major project is part of this course. Prereq: MET CS 231 or MET CS 232 and either MET CS 625 or MET CS 535; or instructor's consent. [ 4 cr. ]
|A1||IND||Day||MCS B23||M||6:00 pm – 8:45 pm|
MET CS 685 Network Design and Management
. This course will cover contemporary integrated network management based on FCAPS (Fault, Configuration, Administration, Performance, and Security management) model. The introduction to the course will be an overview of data transmission techniques and networking technologies. The middle part of the course will be on Network Management Model, SNMP versions 1, 2 and 3, and MIBs. In the second part of the course, particular focus and emphasis will be given to current network management issues: various wireless networks technologies (WLAN, WiFi, WiMax), Voice-over-IP, Peer-to-Peer Networks, networking services, Identity Management, and Services Oriented Architecture Management. Prereq: MET CS 535 or MET CS 625. or instructor's consent. [ 4 cr. ]
MET CS 690 Network Security
This course will cover advanced network security issues and solutions. The main focus on the first part of the course will be on Security basics, i.e. security services, access controls, vulnerabilities, threats and risk, network architectures and attacks. In the second part of the course, particular focus and emphasis will be given to network security capabilities and mechanisms (Access Control on wire-line and wireless networks), IPsec, Firewalls, Deep Packet Inspection and Transport security. The final portion of the course will address Network Application security (Email, Ad-hoc, XML/SAML and Services Oriented Architecture security. As part of our course review we will explore a number of Network Use Cases. Prereq: MET CS 535 or MET CS 625; Familiarity with OSI and TCP/IP protocol stack; Background-familiarity with binary numbers, prime numbers, binary- hexadecimal-decimal conversions, etc; Familiarity with computer programming concepts; or instructor's consent. [ 4 cr. ]
|B1||IND||Matthews||CAS 229||T||6:00 pm – 8:45 pm|
MET CS 775 Advanced Networking
The purpose of this course is to provide a solid foundation for the networking practitioner. While CS 535 introduces the basic networking concepts, this course provides the deep understanding that the practitioner who may be developing or evaluating network products needs to know. Consequently, this course does a much 'deeper dive' into the topics that tend to be the most counter-intuitive such as naming and addressing, synchronization, congestion management and routing. Naming and addressing is the least understood topic in networking and the most important. This topic is not covered in any current textbooks. The student will explore why the necessary and sufficient condition for synchronization for reliable data transfer is to bound 3 timers and independent of message exchanges. This is not at all obvious and has deep implications for protocols. To engineer networks, it is important to understand the degree to which the behavior of error and flow control protocols can be modified and to what purposes. Congestion management is the second least understood topic in networking. The course emphasizes congestion avoidance as opposed to congestion control and explores the impact in different environments. Routing is the third least understood topic in networking. This course is most concerned with its role in resource allocation but also that "routing protocols" are really distributed database protocols. In addition, the course will consider the interactions among these topics and the necessity of keeping the system effects in perspective. Prereq: MET CS 535; or instructor's consent. [ 4 cr. ]
Students who have completed courses on core curriculum subjects as part of their undergraduate degree program or have relevant work-related experience may request permission from the Department of Computer Science to replace the corresponding core courses with graduate-level computer science electives. Please refer to the MET CS Academic Policies Manual for further details.
In addition to the MS in Telecommunication core curriculum (24 credits), students pursuing a concentration in Security must take the following four required and elective courses:
Required Security Courses
(Four courses/16 credits)
MET CS 703 Network Forensics
This course provides a comprehensive understanding of network forensic analysis principles. Within the context of forensics security, network infrastructures, topologies, and protocols are introduced. Students understand the relationship between network forensic analysis and network security technologies. Students will learn to identify network security incidents and potential sources of digital evidence and demonstrate the ability to perform basic network data acquisition and analysis using computer based applications and utilities. Students will also identify potential applications for the integration of network forensic technologies and demonstrate the ability to accurately document network forensic processes and analysis. Prereq: MET CS 625 and MET CS 695; or instructor's consent. [ 4 cr. ]
MET CS 789 Cryptography
The course covers the main concepts and principles of cryptography with the main emphasis put on public key cryptography. It begins with the review of integers and a thorough coverage of the fundamentals of finite group theory followed by the RSA and ElGamal ciphers. Primitive roots in cyclic groups and the discrete log problem are discussed. Baby-step Giant-step and the Index Calculus probabilistic algorithms to compute discrete logs in cyclic groups are presented. Naor -- Reingold and Blum -- Blum -- Shub Random Number Generators as well as Fermat, Euler and Miller-Rabin primality tests are thoroughly covered. Pollard's Rho, Pollard's and Quadratic Sieve factorization algorithms are presented. The course ends with the coverage of some oblivious transfer protocols and zero-knowledge proofs. There are numerous programming assignments in the course. Prereq: MET CS 248, or instructor's consent. [ 4 cr. ]
Plus two courses selected from the following:
MET CS 674 Database Security
The course provides a strong foundation in database security and auditing. This course utilizes Oracle scenarios and step-by-step examples. The following topics are covered: security, profiles, password policies, privileges and roles, Virtual Private Databases, and auditing. The course also covers advanced topics such as SQL injection, database management security issues such as securing the DBMS, enforcing access controls, and related issues. Prereq: MET CS 579 or MET CS 669; or instructor's consent. [ 4 cr. ]
|C1||IND||Ultrino||BRB 121||W||6:00 pm – 8:45 pm|
|E1||IND||Ultrino||BRB 121||W||6:00 pm – 8:45 pm|
MET CS 684 IT Security Policies and Procedures
This course enables IT professional leaders to identify emerging security risks and implement highly secure networks to support organizational goals. Discussion of methodologies for identifying, quantifying, mitigating and controlling risks. Students implement a comprehensive IT risk management plans (RMP) that identify alternate sites for processing mission-critical applications, and techniques to recover infrastructure, systems, networks, data and user access. The course also discusses related topics such as: disaster recovery, handling information security; protection of property, personnel and facilities; protection of sensitive and classified information, privacy issues, and criminal terrorist and hostile activities. [ 4 cr. ]
|D1||IND||Burgoyne||KCB 104||R||6:00 pm – 8:45 pm|
|E1||IND||Burgoyne||KCB 104||R||6:00 pm – 8:45 pm|
|BHA||IND||Campbell||ROOM||T||6:00 pm – 8:45 pm|
MET CS 693 Digital Forensics and Investigations
Provides a comprehensive understanding of digital forensics and investigation tools and techniques. Learn what computer forensics and investigation is as a profession and gain an understanding of the overall investigative process. Operating system architectures and disk structures are discussed. Studies how to set up an investigator's office and laboratory, as well as what computer forensic hardware and software tools are available. Other topics covered include importance of digital evidence controls and how to process crime and incident scenes, details of data acquisition, computer forensic analysis, e-mail investigations, image file recovery, investigative report writing, and expert witness requirements. Provides a range of laboratory and hands-on assignments either in solo or in teams. With rapid growth of computer systems and digital data this area has grown in importance. Prereq: Working knowledge of windows computers, including installing and removing software. Access to a PC meeting the minimum system requirements defined in the course syllabus. [ 4 cr. ]
MET CS 694 Mobile Forensics and Security
Overview of mobile forensics investigation techniques and tools. Topics include mobile forensics procedures and principles, related legal issues, mobile platform internals, bypassing passcode, rooting or jailbreaking process, logical and physical acquisition, data recovery and analysis, and reporting. Provides in-depth coverage of both iOS and Android platforms. Laboratory and hands-on exercises using current tools are provided and required. [ 4 cr. ]
|A1||IND||Zhang||CAS 426||M||6:00 pm – 8:45 pm|
|E1||IND||Zhang||CAS 426||M||6:00 pm – 8:45 pm|
MET CS 695 Enterprise Cyber Security
The course provides an in-depth presentation of security issues in computer systems, networks, and applications. Formal security models are presented and illustrated on operating system security aspects, more specifically memory protection, access control and authentication, file system security, backup and recovery management, intrusion and virus protection mechanisms. Application level security focuses on language level security and various security policies; conventional and public keys encryption, authentication, message digest and digital signatures. Internet and intranet topics include security in IP, routers, proxy servers, and firewalls, application- level gateways, Web servers, file and mail servers. Discussion of remote access issues, such as dial-up servers, modems, VPN gateways and clients. Prereq: MET CS 535 or MET CS 625. Or instructor's consent. [ 4 cr. ]
|A1||IND||Jacobs||CAS 320||M||6:00 pm – 8:45 pm|
|E1||IND||Jacobs||CAS 320||M||6:00 pm – 8:45 pm|
MET CS 799 Advanced Cryptography
This course builds on the material covered in CS 789 Cryptography. It begins with the coverage of commutative rings, finite fields, rings of polynomials, and finding of the greatest common divisor in the ring of polynomials. Irreducible polynomials are discussed. Field extensions and fields Fᴩ [x]/P are thoroughly covered. The main emphasis is put on elliptic curves over Fᴩ and F₂ and the ElGamal cipher on elliptic curves is presented. Block ciphers DES and double and triple DES are introduced. AES and WHIRLPOOL block ciphers and modes of operation are covered. The course continues with the introduction of message integrity and message authentication. In the last part of the course cryptographic hash functions SHA-512 and WHIRLPOOL as well as various digital signatures are introduced. Finally, entity authentication and key management issues are discussed. Prereq: MET CS 789; or instructor's consent. [ 4 cr. ]
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