Master of Engineering (MEng)

Program Overview

The Master of Engineering in Biosystems Engineering at the University of Manitoba is a course-based program that focuses on practical applications of engineering in biological systems. It offers a wide range of courses in areas such as fluid mechanics, irrigation, bioprocessing, and food engineering. Students can customize their course selection to meet their interests and career goals, and there is no thesis requirement. The program prepares graduates for careers in various industries, including agriculture, healthcare, manufacturing, and environmental protection.

Program Outline

Degree Overview:

The Master of Engineering (MEng) degree in Biosystems Engineering focuses on applications of engineering in biological systems, including agricultural engineering, biomedical engineering, bioresource engineering, and environmental engineering. The MEng degree is intended for individuals desiring an advanced degree with an emphasis on the practice of engineering. It is course-based and requires a minimum of 30 credit hours of coursework.

Outline:

Content:

• Fluid Mechanics of Unsaturated Porous Solids
• Advanced Irrigation and Drainage
• Bioprocessing
• Bulk Solids Storage and Handling
• Numerical Modelling of Biosystems
• Advanced Machine Design Analysis for Biosystems
• Advanced Topics on Light-Frame Buildings
• Mechanical Behavior of Biological Materials
• Food Process Engineering
• Membrane Processes for Water and Waste Treatment
• Bioresource Engineering and Sustainability
• Engineering Properties of Fibres for Industrial Uses

Structure:

• Course-based program
• Minimum of 30 credit hours of coursework
• No thesis requirement

Course Schedule:

• Courses are offered throughout the program
• Students can customize their course selection to meet their interests and career goals

Individual Modules with Descriptions:

• BIOE 7040: Fluid Mechanics of Unsaturated Porous Solids
• Examines the fundamental principles of fluid mechanics as applied to unsaturated porous solids, including soil, rock, and biological materials.
• BIOE 7140: Advanced Irrigation and Drainage
• Covers the principles and practices of irrigation and drainage systems, including water distribution, crop water requirements, and drainage design.
• BIOE 7180: Bioprocessing
• Introduces the principles and applications of bioprocessing, including fermentation, bioreactor design, and product recovery.
• BIOE 7200: Bulk Solids Storage and Handling
• Examines the principles and practices of bulk solids storage and handling, including flow properties, storage systems, and conveying equipment.
• BIOE 7210: Numerical Modelling of Biosystems
• Covers the principles and applications of numerical modelling in biosystems, including finite element analysis, computational fluid dynamics, and optimization.
• BIOE 7220: Advanced Machine Design Analysis for Biosystems
• Examines the principles and applications of advanced machine design analysis for biosystems, including stress analysis, vibration analysis, and failure analysis.
• BIOE 7230: Advanced Topics on Light-Frame Buildings
• Covers advanced topics in the design and construction of light-frame buildings, including structural analysis, energy efficiency, and sustainability.
• BIOE 7250: Mechanical Behavior of Biological Materials
• Examines the mechanical properties and behavior of biological materials, including wood, bone, and muscle.
• BIOE 7300: Food Process Engineering
• Covers the principles and applications of food process engineering, including food preservation, processing, and packaging.
• BIOE 7320: Membrane Processes for Water and Waste Treatment
• Examines the principles and applications of membrane processes for water and waste treatment, including reverse osmosis, ultrafiltration, and microfiltration.
• BIOE 7350: Bioresource Engineering and Sustainability
• Covers the principles and applications of bioresource engineering for sustainable development, including bioenergy, biomaterials, and bioremediation.
• BIOE 7370: Engineering Properties of Fibres for Industrial Uses
• Examines the engineering properties and applications of fibres for industrial uses, including textiles, composites, and paper.

Assessment:

Assessment Methods:

• Coursework
• Exams
• Projects
• Presentations

Assessment Criteria:

• Knowledge and understanding of course material
• Analytical and problem-solving skills
• Communication and presentation skills
• Ability to apply engineering principles to real-world problems

Teaching:

Teaching Methods:

• Lectures
• Tutorials
• Labs
• Field trips
• Guest speakers

Faculty:

• Faculty members from the Department of Biosystems Engineering
• Faculty members from other departments and faculties within the University of Manitoba

Unique Approaches:

• Emphasis on practical applications of engineering in biological systems
• Opportunities for students to participate in research projects
• Strong industry connections and partnerships

Careers:

Potential Career Paths:

• Agricultural engineer
• Biomedical engineer
• Bioresource engineer
• Environmental engineer
• Food engineer
• Process engineer
• Research and development engineer

Opportunities:

• Work in a variety of industries, including agriculture, healthcare, manufacturing, and environmental protection
• Pursue further education, such as a PhD or MBA
• Start their own businesses