FULL-TIME | WINNIPEG LOCATIONS DADVF-DG Advanced Manufacturing

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Overview

  • One-year degree completion program: 2-year diploma or equivalent + 1-year degree completion = 3-year bachelor's degree
    • You must already have at least a 2-year diploma or degree in Electrical, Mechanical, Instrumentation, Industrial Engineering or equivalent to go through this 1-year degree completion program
    • When you graduate, you will earn a 3-year Bachelor of Technology in Advanced Manufacturing
  • Program may be completed as full-time or part-time (full-time program will be 1 academic year, in duration)
  • The program will offer evening classes starting in Winter 2027 and expand to include daytime classes in Winter 2028.
  • Students are required to wear PPE's (safety glasses, covered toes shoes) for lab classes
  • Program includes a work-integrated learning component (industry project)
  • There are nine compulsory courses and two breadth electives - one from Science and Technology and the other from Arts, Humanities, and Society required for graduation. List of available breadth electives can be found under the Courses and Descriptions section

Description

The Bachelor of Technology – Advanced Manufacturing program prepares you to lead the future in advanced manufacturing sectors such as aerospace, transportation, energy, and sustainable production manufacturing in Manitoba and beyond. You will gain expertise in Lean manufacturing principles, automation and robotics, additive and composite processes, and Industry 4.0 technologies, including cybersecurity, artificial intelligence, and business intelligence analytics. Your studies will culminate with an applied research project with Manitoba’s leading industries where you address real-world challenges and apply leadership and change management skills. The program incorporates Indigenous perspectives and knowledge systems, fostering culturally responsive practices in engineering and manufacturing. Breadth electives further develop your ethical, societal, environmental, and cultural awareness.

Course Delivery Methods

The courses in this program will be delivered online, in-person and/or in a blended format. The courses may be taken in any order except for the last industry project course. In-person classes are at Notre Dame campus.

Work-Integrated Learning

The Industry Project course provides 120 hours of work-integrated learning. This industry project will be completed with an industry partner.

Admission Requirements

Your Academic History
If your academic history includes any of the following, please visit My Education for important information: post-secondary studies at an institution other than Red River College Polytechnic; Modified (M), English as an Additional Language (E), or GED high school courses; or home schooling; international secondary (high school) studies.
Click Here for the Admissions Course Equivalence page. This page provides details on the high school courses and credentials needed for admission for applicants from outside of Manitoba. If you have High School education in Canada, use this guide to check your qualifications.
Click Here for the Admissions Course Equivalency Page - Credentials outside of Canada. This page provides details on the high school courses and credentials needed for admission for applicants from outside of Canada. If you have High School Education outside of Canada, use this guide to check your qualifications.
Please check the Program Overview page, to see if this program is for Manitoba residents only.

DOCUMENT SUBMISSION

Upload Through Your Future Student Account

  • Scan your document(s) and save the file. Ensure you keep your original documents as the College may request to see them at any time.
  • Go to apply.rrc.ca and log in.
  • Click on your application, then Supplemental Items & Documents.

If you do not have a Future Student Account or require assistance, please contact our Student Service Centre at 204-632-2327.

Internationally Educated Applicants - visit www.rrc.ca/credentials for credential assessment information.

Submission of required documentation indicating proof of completion of admission requirements is due within 15 days of applying unless otherwise noted in the program's admission requirements.

Regular Admission Requirements

  1. Post-Secondary Education
    Submit proof of graduation or enrolment in the final year from a recognized post-secondary institution of either:
    • An Engineering Technology Diploma in Electrical, Manufacturing, Chemical, Industrial or Mechanical; or
    • An Engineering Degree in Electrical, Manufacturing, Chemical, Industrial or Mechanical
    • Post-Secondary transcripts must have been issued within 6 months prior to your application date and submitted directly from the post-secondary institution. 
    • If you provide proof of enrolment at time of application, your official final grades indicating successful completion must be submitted by July 15 for fall enrolment or by the deadline specified in your admission letter.
    • If you are required to complete an English language assessment, do not submit your transcripts until requested to do so. See English Language Requirements (ELRs) for more information

      or 

      Post-Secondary Education and Work Experience
      Submit proof of graduation from a diploma or bachelor's degree in science from a recognized post-secondary institution and relevant industrial or manufacturing work experience (minimum 8 months). Work related experience may be demonstrated by submission of a job verification letter, proof of employment, or letter of employment from your employer.

      and

  2. English Language Requirements (ELRs)
    • Have you successfully completed the equivalent of three years of full-time secondary (high school) education in Canada, the United States, or an ELR exempt country where English was the language of instruction? To view a list of ELR exempt countries click here.
      • If yes, you appear to meet English language requirements. Submit your transcripts for verification purposes.
        or
      • If no, you are required to submit proof of meeting an English language requirements option. If you choose to complete an English language assessment, review this program's approved assessments and required levels.
        or
      • If you completed all of your education in Canada, the United States, or an ELR exempt country in English but did not complete three years of high school, submit your transcripts for review.

English Language Assessments


Approved English Language Assessments

English Language Assessment Minimum Scores for Certificates, Diplomas and Advanced Diplomas, and Post Graduate Certificates, Post-graduate Diplomas Minimum Scores for Bachelor Degrees and Creative Communication International Pathway to Nursing Program
CAEL Online or In-Person Overall band score of 60 Overall band score of 70 and Writing of 60 Overall band score of 60
IELTS Academic Level Overall 6.0 and No band below 5.5 Overall 6.5 and No band below 6.0 Overall 6.0 and No band below 6.0
Password Skills Overall 6.0 and No band below 5.5 Overall 6.5 and No band below 6.0 Overall 6.0 and No band below 5.5
Password Skills Plus Overall 6.0 and No band below 5.5 Overall 6.5 and No band below 6.0 Overall 6.0 and No band below 5.5
LINC Certificate 7 8 7
Duolingo Language Test 115 and above+ with a min. of 95 in each section 125 and above with a min. of 100 in each section 115 and above+ with a min. of 95 in each section
New English for Academic and Professional Purposes Successful completion of the program 5 (min 70%) Successful completion of the program 5 (min 70%) Successful completion of the program 5 (min 70%)
PTE 54 overall
Min 50 in each skill
60 overall
Min 55 in each skill band
54 overall
Min 50 in each skill
TOEFL iBT/iBT Home Edition For tests taken before January 20, 2026 : 78 (no less than 17 per component)
For tests taken on January 21, 2026 onwards: 4.0 overall (no less than 3.5 per component)
For tests taken before January 20, 2026: 86 (no less than 20 per component)
For tests taken on January 21, 2026 onwards: 4.5 overall (no less than 4.0 per component)
For tests taken before January 20, 2026 : 78 (no less than 17 per component)
For tests taken on January 21, 2026 onwards: 4.0 overall (no less than 3.5 per component)
Academic English Program for University and College Entrance Program (AEPUCE) Successful Completion Successful Completion Successful Completion
CELBAN N/A N/A N/A

Who Should Enrol?

If you already have a diploma or degree in a related engineering, science, or technology field and are ready to build on that foundation, this program may be for you. The Advanced Manufacturing Bachelor of Technology is designed for learners with prior education in areas such as mechanical, manufacturing, mechatronics, electrical, automation, robotics, or related applied science and technology programs. It is ideal for those who have gained hands-on experience in roles such as CNC machining, production, maintenance, quality assurance, automation, robotics, CAD/CAM, or process improvement and want to move further into advanced manufacturing systems. If you are ready to go beyond operating, troubleshooting, or supporting systems and want to help design, improve, and lead the future of manufacturing, this program is your next step.

Locations, Dates and Fees

Next Estimated Term 1 Start Date (subject to change)

Location Start Date Apply Link
Notre Dame Campus Jan 04, 2027 Apply Now

Costs (estimates only; subject to change)

Program/Student Fees
Year 1
$11,904.00
Books and Supplies
Year 1
$1,000.00
Program/Student Fees (International)
Year 1
$23,943.00

Program Outline

To earn the degree, you must successfully complete all 11 courses with a minimum program GPA of 2.0.

You may take courses in any order as they available, except for the Industry Project in Advanced Manufacturing course, which requires the completion of all First and Second courses of study.

First courses of study:
  • Introduction to Advanced Manufacturing
  • Business Intelligence 
  • Research Methodologies
  • Writing for Academic Inquiry
Second courses of study:
  • Industry 4.0 Technologies
  • Additive and Composite Manufacturing
Third courses of study:
  • Walking with Indigenous Peoples 
  • Industry Project in Advanced Manufacturing
  • Manufacturing Systems Automation
  • Arts, Humanities, and Society breadth elective
  • Science and Technology breadth elective
Third courses of study:

List of Arts, Humanities, and Society breadth electives (26-27 academic year):
1. Change Management for Leaders 

List of Science and Technology breadth electives (26-27 academic year):
1. Built by Humans: The Science of Shelter Systems

Courses and Descriptions

(Click the course name to view the description of the course)
Recognition of Prior Learning (RPL)
In addition to Transfer of Credit from a recognized post secondary institution, other RPL processes are available for RPL courses. Click here for more information. For courses with no RPL, please check www.rrc.ca/rpl for additional contact information.
BUSA-3010Business Intelligence
More Information

Business Intelligence (BI) refers to the technologies, processes, and strategies that organizations use to collect, analyze, and transform raw data into actionable insights for making informed business decisions. In this foundational course, students will explore core BI activities such as data collection, data analysis, data visualization, reporting, and monitoring. Students will work with simulated, case-based, or their own organization’s data to generate meaningful insights that support strategic and operational decisions across various professional contexts. Students will evaluate BI tools and technologies and examine data governance principles and compliance considerations. Finally, students will develop and assess business intelligence strategies aligned with organizational objectives.

ENGI-3003Built by Humans: the Science of Shelter Systems
More Information

In this course, students explore the scientific principles that shape how buildings interact with heat, air, moisture, sound, and the surrounding environment. They examine how building science informs codes, regulations, and sustainable design practices, and analyze the effects these systems have on building performance and occupant well-being. Students interpret building behavior and assess environmental impacts by applying concepts from architecture, engineering, and construction. Students will develop a systems-based understanding of how design decisions influence durability, energy efficiency, and environmental responsibility in the building environment.

HUMR-3010Walking with Indigenous Peoples
More Information

This foundational course introduces students to Indigenous worldviews, relationships to land, and the living nature of treaties to build respectful and reciprocal engagement with First Nations, Inuit, and Red River Métis communities across social and professional contexts. Building on this relational foundation, students will explore Indigenous histories and present-day realities, situating historical learning within contemporary reconciliation efforts. Through structured reflection, case-based analysis, and guided discussion, students will examine personal, organizational, and societal responsibilities for ethical engagement with Indigenous Communities. This course emphasizes relational understanding, cultural protocols, knowledge governance, and positionality to support informed, reflective, and accountable practice.

INDP-3002Industry Project in Advanced Manufacturing
More Information

In this culminating course, students will be challenged to apply their knowledge and skills of advanced manufacturing technology in a real-world application. Working closely with an industry partner and their course instructor, students will identify an actual business need, write a technical report containing a cost-benefit analysis, and pitch their solutions to company decision makers. Upon approval, students will manage a team of specialists through one or more phases of the implementation and lead the change throughout the organization introduced by the innovation. Finally, students will evaluate the impact of the solution on the organization.

Prerequisites:
MANU-3031Industry 4.0 Technologies
More Information

In this practical, hands-on course, students will build on their foundational knowledge to explore of Industry 4.0 technologies used in modern manufacturing. Students will work with IoT sensors, PLCs, CNC machines, automated machines, and industrial networks to build connected, data driven systems. Students will secure data flow and protect control systems by applying industrial cybersecurity practices. Using Python and machine learning tools, students will collect and analyze sensor data, evaluate process capability, create predictive models, and support automated decisions. By examining real manufacturing processes, students will identify opportunities for digital integration and gain experience applying smart manufacturing concepts to improve efficiency, quality, and equipment reliability.

MANU-3040Introduction to Advanced Manufacturing
More Information

This foundational, hands-on course introduces the principles, technologies, and organizational practices of modern advanced manufacturing. Students will examine how production systems, quality, supply chain, and continuous improvement integrate with emerging Industry 4.0 tools such as automation, robotics, sensing, and data analytics. Students will analyze processes, interpret performance data, and evaluate an organization’s readiness for technology adoption. Students will develop practical problem-solving skills, communicate technical insights, apply ethical and safety principles, and collaborate in multidisciplinary teams to support evidence-based improvement and technology implementation decisions.

MANU-3041Additive and Composite Manufacturing
More Information

In this course, students will advance their knowledge of materials, processes, and technologies used in additive manufacturing and composite fabrication in manufacturing environments. Students will examine applications of additive manufacturing, including prototyping, tooling, fixtures, mold patterns, mandrels, and low volume production. Students will identify which products and components are suitable for additive or composite processes, interpret digital models and fabrication files, and apply additive tooling and composite layup procedures. Through demonstrations, guided practice, and hands-on activities, students will gain practical experience working with additive-manufacturing-assisted composite processes, such as layup sequencing, material preparation, and curing. Students will inspect printed and composite parts, analyze workflow efficiency, and document and communicate technical findings.

MANU-3042Manufacturing Systems Automation
More Information

Automation helps manufacturing companies remain competitive by reducing manufacturing costs, delivering products on time, and increasing product quality. In this hands-on course, students will review common mechatronic components and discuss industrial robot types, basic robotic mechanics, and common applications such as pick-and-place, assembly, welding, and material handling. Students will write basic programmable logic controller (PLC) and robotic programs to control automated processes. Students will compare options for collecting data and identify data that determines overall equipment effectiveness (OEE). Students will investigate if a product or process is suitable for automation, analyze risks and return on investment, and finally, draft a roadmap to implement automation in stages.

MGMT-3030Change Management for Leaders
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In this degree-level course, students integrate advanced leadership knowledge to analyze and lead organizational change in complex, multi-stakeholder environments. Students critically examine contemporary theories and practices of change leadership, with attention to resistance and ethical responsibility. They engage with current and emerging issues shaping change leadership in the Canadian context, including digital transformation and AI-enabled change, Indigenous perspectives on leadership and relational accountability, data-informed change analytics, and organizational practices relevant to Canada’s social and economic environments. By the end of the course, students demonstrate the capacity to independently apply advanced leadership concepts, communicate with diverse stakeholders, and articulate ethical, evidence-based approaches to leading change in professional settings.

RESR-3001Research Methodologies
More Information

In this foundational course, students develop core skills for designing, evaluating, and communicating research across academic, technical, workplace, and community contexts. They will examine qualitative, quantitative, mixed-method, and Indigenous research methodologies, with emphasis on selecting approaches that align with research purpose, context, and available evidence. Students will explore how research questions are formed; how data and information are gathered, analyzed, and interpreted; and how findings are communicated responsibly. Students will critically evaluate sources, apply methodological reasoning, and consider ethical dimensions as they develop a research methodology for a proposed project relevant to their own field of study.

WSIE-3001Writing for Academic Inquiry
More Information

In this reinforcing writing course, students strengthen their academic writing through inquiry, critical reading, and iterative writing processes that support clear scholarly communication in academic contexts. They critically evaluate sources, summarize, paraphrase, and synthesize complex texts, and integrate evidence to develop coherent academic arguments. Students also build independent research and writing habits while using sources and artificial intelligence (AI) tools ethically and with integrity. The course encourages engagement with varied perspectives and diverse ways of knowing, helping students write with clarity and purpose across disciplines. Through guided practice and reflection, students produce responsible academic writing that prepares them for research and communication tasks in academic and professional contexts.

CO-OP/Practicum Information

The Industry Project in Advanced Manufacturing provides 120 hours of Work Integrated Learning for the program. The project will be completed with an industry partner, with ongoing support from the course instructor.

Computer/Laptop Requirements

Online learning is a critical component of course delivery in all Red River College Polytechnic programs. To ensure each student has the tools they need to achieve their academic goals, all Red River College Polytechnic students require, at minimum:

1. Off-campus access to a current Windows based laptop computer with a webcam
2. A high-speed internet connection

Recommended minimum speed: 10 mbps for download, 3 mbps for upload.

Slower internet connection speeds may result in audio and video issues. Please keep in mind that if others in your home are using the same internet connection at the same time as you are, you may also experience audio and video issues.

Please refer to https://www.rrc.ca/studentcomputing for further information on Computer Requirements for Students.

Objectives/Learning Outcomes

Upon successful completion of the program, the graduate should be able to: 

1. Design manufacturing roadmaps that incorporate Lean principles and operational excellence strategies to improve efficiency and quality in production systems.
2. Optimize advanced manufacturing processes, including additive manufacturing and composite material development, to enhance product performance and sustainability.   
3. Integrate automation technologies, robotics applications, and mechatronic systems into manufacturing environments to increase productivity and precision.   
4. Formulate research questions and design, write, and present research proposals to investigate complex manufacturing challenges, synthesize data, and propose evidence-based solutions.  
5. Lead organizational change strategies that foster innovation, adaptability, and continuous improvement in advanced manufacturing contexts.   
6. Apply Industry 4.0 technologies, including artificial intelligence, Internet of Things, and cybersecurity frameworks, to develop secure, interconnected, and data-driven manufacturing systems.   
7. Use business intelligence tools to analyze operational data, support strategic decision-making, and improve competitiveness in manufacturing enterprises.   
8. Apply theoretical knowledge to real-world industrial projects to solve problems and gather feedback for continuous improvement. 
9. Apply ethical, culturally grounded, and respectful approaches when engaging with Indigenous communities across social and professional contexts, upholding relational accountability and responsibilities informed by Indigenous histories, worldviews, protocols, and reconciliation frameworks. 
10. Synthesize insights from a range of interdisciplinary subject areas to address ethical, societal, environmental, and technical challenges in manufacturing and beyond. 

Recent Changes

This program has recently transitioned from a Post-Graduate Diploma in Advanced Manufacturing to a Bachelor of Technology in Advanced Manufacturing.

Transfer Credit Opportunities

Students have the opportunity to transfer credits from the Post-Graduate Diploma in Advanced Manufacturing program.

Recognition of Prior Learning

Recognition of Prior Learning (RPL) is a process which documents and compares an individual's prior learning gained from prior education, work and life experiences and personal study to the learning outcomes in College courses/programs. For more information, please visit www.rrc.ca/rpl.

Other Information

Work Experience Documentation Requirements and Acceptable Forms of Supporting Evidence:
Work-related experience must be from the last 10 years and may be demonstrated by submitting a job verification letter, proof of employment, or a letter of employment from your employer, in addition to your resume covering the last 10 years. 

See below for examples for Relevant Work Experience and Acceptable Science Credentials

Relevant Science Credentials

Computer Science
Applied Physics
Physics
Engineering Physics
Data Science
Applied Mathematics
Statistics
Machine Learning / Artificial Intelligence
Electronics or Instrumentation-focused Applied Science programs
Applied Chemistry
Chemistry
Materials Science
Environmental Science
Earth Sciences / Geoscience
Biomedical Science
Biotechnology
General Science
Food technology


Relevant work experience to consider for Mechatronics and Advanced Manufacturing program

Systems Integration and Industrial Technology
Systems Integrator
Industrial Controls Programmer
Automation Project Technician
Commissioning Technician
Industrial Network Technician
SCADA Support Technician

Manufacturing & Production Roles
Production technician / operator
Manufacturing technician
Assembly line technician (especially for automated/semi-automated lines)
CNC machine operator or programmer
Quality control inspector or technician
Industrial machinery operator
Maintenance fitter or mechanical technician

Laboratory Technician Roles
Physics lab assistant
Electronics lab technician
Mechanical testing lab technician
Materials science lab assistant
Optics or photonics lab support
Biomedical instrument technician

Mechanical / Electrical Technical Roles
Mechanical technician
Electrical technician
Instrumentation technician
Mechanical fitter
Millwright apprentice
Tooling & machining apprentice
HVAC installation and maintenance (industrial settings preferred)
Power Engineer

Research Assistant Experience -any research involving
robotics
electronics
sensors and actuators
computational modeling
mechanical prototyping
control systems
applied physics

Automation, Robotics & Control Systems
Automation technician
PLC technician / control systems assistant
Robotics technician or robotics assembly
Mechatronics assistant in a factory or workshop
Maintenance of automated manufacturing equipment

Technical Support or Repair Roles
Electronics repair (devices, circuits, boards)
Computer hardware repair
Instrument calibration technician
Audio/video equipment technician

Industrial Maintenance & Plant Operations
Industrial machine maintenance
Plant technician or operator
Industrial safety technician
Maintenance planning 
Reliability technician (industrial equipment)

Engineering Design & Prototyping Support
3D printing technician
CAD technician (SolidWorks, AutoCAD, Fusion 360)
Makerspace or innovation lab assistant
Model/prototype builder

Engineering Support / Workshop Roles
Engineering workshop roles
Lab technician (mechanical/electrical/electronics labs)
Prototype manufacturing assistant
Technical intern in an engineering or manufacturing company

Field Work in Technical or Scientific Settings
Environmental monitoring technician
Remote sensing equipment operator
Geological survey assistant (instrument-based roles)
Telecom tower or network equipment support

Automotive & Aerospace Technical Roles
Automotive technician (mechanical/electrical diagnostics)
Automotive assembly plant technician
Aerospace technician (mechanical/electrical systems)

Data Analytics, AI and Digital Technologies
Data Analyst
Machine Learning Developer
AI Developer
Industrial Data Analyst
Predictive Maintenance Analyst
Industrial Software Developer
Digital Twin Developer
Manufacturing Systems Analyst
Industrial IoT Developer
MES/ERP Systems Support

Computer / Electronics Roles
Electronics repair and maintenance (industrial equipment preferred)
PCB assembly technician
Embedded systems technician (entry level)
Python, C/C++, MATLAB, or embedded programming experience
Computer lab technician
Software testing / QA assistant
Data acquisition system support

Process Operations and Process Industries
Process Technician
Process Operator
Pharmaceutical Manufacturing Technician
Food Processing Technician
Chemical Plant Technician
Water Treatment Technician
Agricultural Technology Technician

Systems Integration and Industrial Technology
Systems Integrator
Industrial Controls Programmer
Automation Project Technician
Commissioning Technician
Industrial Network Technician
SCADA Support Technician

Graduation Requirements

  • Successful completion of all 11 courses with a minimum of 32 credit units and a minimum 2.0 program GPA is required to receive the credential.
  • Students must complete the Industry Project in Advanced Manufacturing.
  • Students have up to 4 years to complete the program.

Employment Potential

  • Manufacturing Systems Engineer
  • Manufacturing Technician
  • Additive Manufacturing Engineer
  • IoT Integration Engineer
  • Digital Manufacturing Specialist
  • Data Analyst
  • Automation and Control Engineer
  • Industry 4.0 Manager
  • Process Engineer
  • Continuous Improvement / Lean Manufacturing Lead
  • Production Supervisor/Manager
  • Operations Coordinator/Manager
  • Quality Assurance Specialist/Engineer
  • Maintenance and Reliability Engineer
  • Manufacturing Analyst
  • Product Development Engineer
  • Industrial Systems Engineer
  • Project and Plant Engineering Manager
  • Robotics and Mechatronics Integrator
  • Digital Twin Specialist
  • Smart Factory Project Manager
  • Change Management Consultant
  • Materials Manager
  • Supply Chain Optimization Manager
  • Robotics Engineer
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Our academic advising service can provide information about our full-time programs, explain program admission requirements, and help you select the right program to meet your career and academic goals. We can also connect you with helpful people, resources, and supports.
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