Program Overview

  • Duration

    3 Months (Self-Paced) Program

    Can be done in 6 months

  • Total Courses

    01

  • Total Credit Hours

    6

The Aerospace Engineering program at Hudson Bay University is dedicated to preparing students for careers in the aerospace industry. Students delve into the principles of aerodynamics, spacecraft design, and aerospace technology. They gain the knowledge and skills necessary to contribute to the development of aircraft and spacecraft, as well as innovations in the field of aerospace engineering.

ENGINEERING FUNDAMENTALS AND TECHNICAL PROFICIENCY:

The College of Engineering is designed to establish a strong foundation in engineering fundamentals and technical proficiency. Students start by building a deep understanding of core engineering disciplines and gain hands-on experience in problem-solving and innovation. This technical base prepares students for a successful career in the dynamic field of engineering.


REAL-WORLD APPLICATIONS AND INDUSTRY PARTNERSHIPS:

Beyond the classroom, our College of Engineering places a significant emphasis on real-world applications and industry partnerships. Students have opportunities to work on engineering projects, collaborate with engineering firms, and engage in research with cutting-edge technology. These experiences not only enhance their practical engineering skills but also provide valuable insights into the industry.


GLOBAL ENGINEERING CHALLENGES AND INTERNATIONAL COLLABORATIONS:

The College of Engineering at Hudson Bay University is committed to addressing global engineering challenges and fostering international collaborations. Our curriculum explores international engineering practices and encourages students to engage in projects with global impact. Additionally, we offer study abroad programs and collaborate with engineers from around the world, enabling students to gain a global perspective on engineering.

Explores the principles and dynamics of space flight. Students study orbital mechanics, spacecraft propulsion, and celestial navigation, essential knowledge for careers in aerospace and space exploration.


Offers an in-depth study of aerodynamics in aerospace engineering. Students explore advanced aerodynamic principles, computational methods, and their applications in aircraft and spacecraft design.


Introduction to propulsion systems in aerospace engineering. Students learn about various propulsion technologies, including jet engines and rocket propulsion, essential for understanding aircraft and spacecraft propulsion.


Focuses on the principles and applications of digital control systems in aerospace engineering. This course equips students with the knowledge and skills to design, analyze, and implement digital control systems for aerospace applications, essential for aerospace control engineers.


Examines the behavior of fluid flows in aerospace systems. Students study aerodynamics, propulsion, and fluid dynamics in the context of aerospace engineering, gaining insights into how fluids behave and their impact on aircraft and spacecraft.

Cost of Attendance

Tuition Fee Breakdown Cost
GRADUATE COURSE CERTIFICATE IN ENGINEERING $1,560
Medical Insurance $0.00
Personal Expenses $0.00
Study Materials $0.00
Food Cost $0.00
Total Tuition Fee $1,560
WHERE AFFORDABILITY

Meets Opportunity

At Hudson Bay University, we believe in where affordability meets opportunity. Our commitment to accessible education ensures that quality learning doesn't come with a hefty price tag. We open the doors to knowledge, offering students the chance to thrive without the burden of overwhelming tuition fees, empowering them for a brighter future.

Our Eligibility Criteria

Explore HBU’s Eligibility Criteria for Students Worldwide

Eligibility Criteria

Bachelor's degree, or equiv. International Education

Credit Hours

6

Course Duration

3 Months (Self-Paced) Program

Courses Offered

01

Non-Linear Systems (AEE-033)

TOPICS COVERED IN THIS COURSE
  In Section 1 of this course you will cover these topics:
     Introduction To Non-Linear Systems
     Phase Plane Analysis
  In Section 2 of this course you will cover these topics:
     Fundamentals Of Lyapunov Theory
     Advanced Stability Theory
  In Section 3 of this course you will cover these topics:
     Describing Function Analysis
     Feedback Linearization
  In Section 4 of this course you will cover these topics:
     Sliding Control
     Basic Concepts In Adaptive Control
  In Section 5 of this course you will cover these topics:
     Control Of Multi-Input Physical Systems

Space Flight Dynamics (AEE-047)

TOPICS COVERED IN THIS COURSE
  In Section 1 of this course you will cover these topics:
     Introduction To Spaceflight
     Two-Body Orbital Mechanics
  In Section 2 of this course you will cover these topics:
     Geocentric Orbits And Trajectories
     Time Of Flight
  In Section 3 of this course you will cover these topics:
     Interplanetary Tranfers
     Vehicle And Booster Performance
  In Section 4 of this course you will cover these topics:
     Atmospheric Entry
     Orbital Elements And Earth Tracks
  In Section 5 of this course you will cover these topics:
     The Ballistic Missile
     Attitude Dynamics And Control

Advanced Aerodynamics (AEE-111)

TOPICS COVERED IN THIS COURSE
  In Section 1 of this course you will cover these topics:
     Introduction To Aerospace Engineering
     Preliminary Estimate Of Take-Off Weight
     Wing Loading Selection
  In Section 2 of this course you will cover these topics:
     Main Wing Design
     Fuselage Design
     Horizontal And Vertical Tail Design
  In Section 3 of this course you will cover these topics:
     Engine Selection
     Take-Off And Landing
     Enhanced Lift Design
  In Section 4 of this course you will cover these topics:
     Structural Design And Material Selection
     Static Stability And Control
  In Section 5 of this course you will cover these topics:
     Cost Estimate
     Design Summary And Trade Study

Digital Control System (AEE-840)

TOPICS COVERED IN THIS COURSE
  In Section 1 of this course you will cover these topics:
     Introduction To Digital Systems
     Discrete-Time Systems And The Z-Transform  
     Sampling And Reconstruction
  In Section 2 of this course you will cover these topics:
     Open-Loop Discrete-Time Systems
     Closed-Loop Systems
     System Time-Response Characteristics
  In Section 3 of this course you will cover these topics:
     Stability Analysis Techniques
     Digital Controller Design
     Pole-Assignment Design And State Estimation
  In Section 4 of this course you will cover these topics:
     Linear Quadratic Optimal Control
     Sampled-Data Transformation Of Analog Filters
     Digital Filter Structures
  In Section 5 of this course you will cover these topics:
     Microcomputer Implementation Of Digital Filters
     Finite-Word Length Effects

Aerospace Fluid Flows (AEE-888)

TOPICS COVERED IN THIS COURSE
  In Section 1 of this course you will cover these topics:
     Introduction To Viscous Flows
     Integral Equations And Solutions For Laminar Flow
  In Section 2 of this course you will cover these topics:
     Exact And Numerical Solutions For Laminar Constant-Property Incompressible Flows  
     Compressible Laminar Boundary Layers  
  In Section 3 of this course you will cover these topics:
     Transition To Turbulent Flow
     Wall-Bounded, Incompressible Turbulent Flows
  In Section 4 of this course you will cover these topics:
     Internal Flows  
     Free Shear Flows
  In Section 5 of this course you will cover these topics:
     Wall-Bounded Turbulent Flows With Variable Density And Heat And Mass Transfer  
     Three-Dimensional External Boundary Layer Flows