BS in Engineering

APU’s engineering major prepares students for careers in fields such as aerospace, agriculture, automotive, computer science, defense, and energy.

85 units

Azusa Pacific’s BS in Engineering equips students with an excellent foundation in principles that prepare them for careers in a variety of engineering fields, including aerospace, agriculture, automotive, business, computer science, defense, energy, and health care. The engineering curriculum includes courses in mechanics, electrical circuits, electronics, digital systems, and control systems, and all courses are strongly anchored on foundational coursework in mathematics and physics including calculus, differential equations, and probability theory. Four concentration areas are available: mechanical engineering, electrical engineering, systems engineering, and computer engineering.

A two-semester design project in the senior year challenges students to work in teams and design, build, and test a major engineering product as the culmination of all coursework completed. These projects usually involve external sponsors and mentors. An engineering internship that provides hands-on experience also is part of the curriculum requirements.

Job opportunities for engineering graduates are plentiful in Southern California, nationwide, and globally—a multitude of aerospace, entertainment, construction, and electronics companies need mechanical, electrical, systems, and computer engineers.

Requirements

Academic advising is required each semester; consult with the department for each semester’s offerings, since courses are not necessarily offered every semester.

Engineering students are required to have a laptop for classroom work. In addition to General Education requirements, a minimum of 51 computer science/engineering units, and 30 mathematics and physics units (for a total of 81 units), are required for the Bachelor of Science in Engineering.

Engineering Major Requirements 1, 2, 3, 4, 5
ENGR 101Introduction to Engineering and Computing 23
ENGR 110STEM as Vocation 33
CS 115Impact of Social Media 63
CS/ENGR 120Introduction to Computer Science I 74
CS/ENGR 125Introduction to Computer Science II4
ENGR 215Electrical Circuits and Systems4
ENGR 240Digital Logic Systems 74
ENGR 245Electronics4
ENGR 325Control Systems3
ENGR 470Senior Design Project I2
ENGR 480Senior Design Project II 72
ENGR 491Engineering Internship (3 units needed for graduation) 83
WRIT 242Writing 2: Entrepreneurial Tech Start-ups 43
Choose one of the following:3
Introduction to Mechanics
Statics
Math and Physics Requirements
MATH 165Calculus I3
MATH 166Calculus II3
CS/ENGR 160Discrete Structures3
MATH 268Multivariable Calculus3
MATH 270Ordinary Differential Equations4
ENGR 271Advanced Math for Engineers4
MATH 361Introduction to Modeling with Probability3
PHYC 161Physics for Science and Engineering I 95
Concentration/Electives 1012
Choose one of the following concentrations, or general engineering (no concentration) below:
Mechanical Engineering
Mechanics of Materials
Physics for Science and Engineering III
Choose one of the following:
Engineering Thermodynamics
Dynamics
Choose two additional electives
Electrical Engineering
Digital Signal Processing
Communications Systems
Physics for Science and Engineering II
Choose two additional electives
Computer Engineering
Algorithms and Data Structures
Computer Architecture and Organization
Choose one of the following:
Physics for Science and Engineering II
Physics for Science and Engineering III
Choose two additional electives
Systems Engineering
Systems Engineering Principles
Choose one of the following:
Digital Signal Processing
Decision and Risk Analysis
Choose one of the following:
Physics for Science and Engineering II
Physics for Science and Engineering III
Choose two additional electives
General Engineering (no concentration)
Choose one of the following:
Physics for Science and Engineering II
Physics for Science and Engineering III
Choose four additional electives
Engineering Electives
Engineering Thermodynamics
Algorithms and Data Structures
Dynamics
Discrete Systems Modeling and Simulation
Embedded Systems
Digital Signal Processing
Computer Networks
Systems Engineering Principles
Communications Systems
Computer Architecture and Organization
Systems Design
Mechanics of Materials
Green Power Systems
Decision and Risk Analysis
Topics in Engineering
Web Programming
Artificial Intelligence
Machine Learning
Mobile App Development
Internet of Things
Cyber Security
Topics in Computer Science
Writing 3: Ethics in Computing and Engineering 5
Total Units85
1

The General Education Humanities: Fine Arts course recommended by the Department of Engineering and Computer Science is CS 103.

2

The General Education Civic Knowledge and Engagement course recommended by the Department of Engineering and Computer Science is ENGR 101.

3

The General Education Intercultural Competence course recommended by the Department of Engineering and Computer Science is ENGR 110.

4

The General Education Writing 2 course recommended by the Department of Engineering and Computer Science is WRIT 242.

5

The General Education Writing 3 course recommended by the Department of Engineering and Computer Science is CS 496.

6

Meets the General Education Social Sciences requirement. 

7

Meets 1 unit of the General Education Oral Communication requirement (taking CS 120 or ENGR 120, CS 290, and CS 480; OR CS 120 or ENGR 120, ENGR 240, and ENGR 480 satisfies the General Education Oral Communication requirement).

8

Meets the General Education Integrative and Applied Learning requirement.

9

Meets the General Education Natural Sciences requirement.

10

To receive credit for a concentration, students must take 12 units from a single concentration. Students may choose any 4 electives to meet the 12-unit major requirement, but they will not earn a concentration.

Program Learning Outcomes

Students who successfully complete this program shall be able to:
  1. Identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
  2. Apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors.
  3. Communicate effectively with a range of audiences.
  4. Recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts.
  5. Function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives.
  6. Develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions.
  7. Acquire and apply new knowledge as needed, using appropriate learning strategies.
  8. Use relevant software systems and tools pertinent to modern engineering practice.