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We have adopted the International Council of Systems Engineering’s (INCOSE) paradigm, philosophy and definition of Systems Engineering: http://www.incose.org/about-systems-engineering/system-and-se-definition/systems-engineering-definition.
Systems Engineering is a transdisciplinary and integrative approach to enable the successful realization, use, and retirement of engineered systems, using systems principles and concepts, and scientific, technological, and management methods.
Systems Engineering considers both the business and the technical needs of customers with the goal of providing a quality solution that meets the needs of users and other stakeholders, is fit for the intended purpose in real-world operation, and avoids or minimizes adverse unintended consequences.
Systems engineering processes aim to manage risk, including the risk of not delivering what the customer wants and needs, the risk of late delivery, the risk of excess cost, and the risk of negative unintended consequences. One measure of utility of Systems Engineering activities is the degree to which such risk is reduced. Conversely, a measure of acceptability of absence of a System Engineering activity is the level of excess risk incurred as a result.
Systems engineers consider both the problem and solution domains, taking into account enabling systems and services, identifying the role that the parts and the relationships between the parts play with respect to the overall behavior and performance of the system, and determining how to balance all of these factors to achieve a satisfactory outcome. They also focus on:
The program currently costs $527 per unit. The 34-unit Master’s program costs $17,391.
We estimate that textbooks will cost approximately $200 per course.
Admissions Application Fee: $70
Graduation Fee: $85
The CSUDH Master of Science in Systems Engineering degree program has been designed to meet the needs of new graduates, early career professionals as well as to seasoned practitioners from diverse STEM disciplines and engineering specialties. Systems engineering draws upon the knowledge, skills and abilities of professionals with undergraduate training in a variety of fields including: all engineering disciplines, business, biology, chemistry, computer science, computer technology, earth science, environmental studies, geography, information technology, logistics, mathematics and physics.
Systems Engineering principles, processes, methodologies and tools have been implemented in nearly every field, including:
Admission Status
Depending on the type of undergraduate degree held, the applicant may be admitted with either a classified or conditional admission status:
The program is a 24-month accelerated program completed in 6 consecutive semesters: fall-spring-summer-fall-spring-summer. It is cohort-based so you will progress through the curriculum with the same set of peers. This allows you to establish study groups, project-teams and domain-centric learning communities. Students must take courses according to this schedule. It cannot be altered.
Lectures are recorded so that students can review them at a time that is convenient for them. Each week, students contribute to the course discussion board.
Review the Degree Study Plan ►
The program design requires more interaction than many traditional face-to-face programs. Students are required to interact with classmates and the instructor at least twice each week via Discussion Questions (DQs). DQs provide a forum for students to share perspectives relative to their professional domain or academic discipline. Students are required to contribute to at least 2 online discussions each week; each posting must consist of at least a five-sentence paragraph. Postings will be graded and factored into the semester grade.
Our philosophy was to develop a practitioner’s degree program that mirrors the conditions in today’s innovation environment. The design of engineered systems is often supported by geographically-dispersed stakeholders from diverse engineering disciplines, employed by different organizations, who may use different terminology and systems of measurement. The online, asynchronous modality selected for this curriculum mirrors these interactions and prepares students for more effective collaborations in the workplace.
Lectures will be recorded, thus allowing students the flexibility of tailoring their learning environment/schedule to their personal and professional needs. In most courses, Engineering Design Challenges (EDC) will be administered in lieu of conventional exams because they allow the student the opportunity to respond to realistic technical, operational and financial challenges under conditions that are similar to those in a professional environment.
You should schedule an appointment with the Program Coordinator who will help you to develop a plan for resuming your studies.
There are two types of accreditation: regional (WSCUS), and discipline-specific (ABET).
Most employers do not recognize undergraduate degrees that have not undergone regional accreditation, and prefer those from ABET-accredited programs. While ABET accreditation is essential for undergraduate STEM degrees, it is not required, expected or even typical for graduate programs.
According to the Accreditation Board of Engineering and Technology (ABET), there are only 49 ABET-accredited graduate programs in the world - in any STEM discipline. Although there are over 100 graduate programs in Industrial/Systems Engineering in the United States, only 3 are ABET-accredited (http://amspub.abet.org/aps).
Our program has undergone special accreditation review by WSCUS, which provides regional accreditation. Our program welcomed its first cohort in Fall 2020, and is being considered for ABET review.