Course Development

Welcome to your ultimate guide on creating a stellar curriculum for new programs!

Think of this as your roadmap to designing an educational experience that not only meets program goals but also wows students and prepares them for success. Our guide is here to make the journey exciting and fulfilling. So, buckle up and get ready to dive into the curriculum development process!

Two Galactic Engineering Technicians working in space.
Two Galactic Engineering Technicians working in space. The Galactic Engineering Technicians are wearing space suits and using tools. Generated with Adobe Firefly

Scenario

You’ve been asked to create a course called, “Alien Technology 101” for the Galactic Engineering Technician program. You must align your course to the course learning outcomes identified on the program’s curriculum map.

Alien Technology 101 highlighted in fictional Galactic Engineering Technician VLO

CautionWe will use the “Alien Technology 101” course as a fictional sample throughout the course development process.

Look out for the “ Blueprint in Action” sections throughout the page, where you’ll find downloadable Word document templates tailored to each topic. These resources are designed to help you organize your ideas and streamline your course development process.

Getting Started on Course Development

The course title, course code, credit value, credit hours, program title, pre-requisites and co-requisites, PLAR, Degree Breadth, and General Education information will be automatically applied to your course outline in the Academic Toolbox.

If you have experiential learning or are requesting students to do research (involving human subjects), you will manually check off those boxes on the course outline in the Academic Toolbox.


To get started, answer the following questions:

What is the course title?
What is the course code?
What program is this part of?
What semester is this course taught in?

NOTE: The following webpage uses accordions to organize content. Use the buttons below to open all or close all sections, depending on your preference.


Course Description

A course description is a concise summary that provides students and prospective students with an overview of the course. It serves as a snapshot, offering insight into the course’s purpose and its place within the program curriculum. Course descriptions are displayed on the Cambrian website, program pages, and program maps in myCambrian. They are essential for helping learners understand what the course is about and what they can expect to do throughout.

Key Principles for Writing a Course Description

  • Be Student-Centered: Write from the perspective of the learner. Use language that is clear, engaging, and easy to understand.
  • Keep It Simple: Avoid discipline-specific jargon or terminology that students may not yet know. Focus on broad concepts and core content.
  • Be Brief: A course description should be between 2-4 sentences. There’s no need to include every detail—save those for learning outcomes and objectives.
  • Use Active Verbs: An active verb conveys a clear, direct action performed by the subject, making writing more concise, engaging, and impactful. Choose verbs that align with the course’s learning outcomes, such as explore, design, analyze, participate, demonstrate, and calculate.

How to Write a Course Description at Cambrian College

  • Begin with: “In this course, students will…”
  • Use active verbs to describe what students will do or achieve.
  • Avoid references to course codes or prerequisites.

Tips for Success:

  • Reflect on the course’s purpose and its role in the program curriculum.
  • Refer to the course learning outcomes to identify key concepts and actions.
  • Aim for clarity, conciseness, and an engaging tone.

EXAMPLE: Alien Technology 101

Here is an example of a course description for the fictional course, Alien Technology 101.

In this course, students will analyze the fundamental principles of alien technologies, comparing their structures and functionalities to human-engineered systems. Students will evaluate the implications of extraterrestrial design principles on contemporary engineering practices and troubleshoot simulated interstellar devices. Through hands-on activities and collaborative problem-solving, students will develop technical communication skills to document findings and propose innovative applications for Earth-based industries.

✐ Blueprint in Action 

Launch Your Course Description into Orbit
Now that you’ve got the key principles down, it’s time to craft a course description of your own! Use our Course Outline Template to easily structure and refine your description—ensuring it’s clear, engaging, and student-focused

​​

Vocational Learning Outcomes (VLOs)

Vocational Learning Outcomes (VLOs) are end-of-program goals that define the essential skills and knowledge students must demonstrate upon graduation. They ensure that students are prepared for entry-level positions in their field and meet the quality standards expected by employers, industry professionals, and graduates currently working in the field.

Ministry-Directed vs. College-Determined VLOs

  • Ministry-Directed VLOs: Programs that are common across multiple colleges in Ontario often have Ministry Program Standards, which include VLOs and detailed Elements of Performance. These standards ensure consistency in graduate outcomes across the province.
  • College-Determined VLOs: Programs without Ministry-directed standards develop VLOs approved by Credential Validation Service (CVS). CVS ensures that these outcomes meet the Ministry’s requirements for new programs and align with the college’s mission and goals.

Using VLOs in Course Development

  • Each VLO must be assessed at least twice within the program, ensuring a comprehensive evaluation of students’ skills and knowledge.
  • Every course must align with at least one VLO, contributing to the program’s overall goals.
  • The alignment and achievement of VLOs are reviewed every five years during the Comprehensive Program Review.
  • Programs may use a scaffolding approach, revisiting and building upon key concepts throughout the curriculum to help students master the VLOs over time.

How to Select VLOs

  • For New Programs: Use the CVS document approved during the program’s development as a reference for aligning VLOs. This document can be requested from your Chair.
  • For Existing Programs: Refer to the curriculum map created as part of the last Comprehensive Program Review to select VLOs for courses. Adjustments can be made in consultation with the program coordinator and team to maintain proper alignment across the curriculum.

Where to Find Program Standards or VLOs

  • For programs with Ministry-directed standards, Program Standards can be found on the Ministry’s website under the College Program Standards section.
  • For new programs with college-created standards, the program standards (as identified in the CVS Workbook) can be requested from the Chair.
  • For all existing programs, VLOs are available in the Program Maps on myCambrian.

Key Considerations for Assessing VLOs

  • All selected VLOs must have assessments with clear grading criteria to ensure they are “met.”
  • Alignment should reflect the level of learning indicated in the VLO, ensuring students are evaluated on all aspects of the outcome.

By aligning course content and assessments with VLOs, you’ll contribute to a well-structured program that prepares students for real-world success while meeting provincial and institutional standards.

EXAMPLE: Alien Technology 101


Alien Technology 101 Example

In the curriculum map above, Alien Technology 101 should have five (5) VLOs checked off:

  • Design creative and functional UFO models by creating detailed blueprints and constructing prototypes to push the boundaries of advanced aerospace design.
  • Analyze theoretical alien technology by examining fictional devices and theorizing their operational principles to foster innovation in advanced engineering concepts.
  • Develop guidelines to promote responsible and sustainable exploration practices by evaluating the ethical implications of space exploration through case study analysis.
  • Develop and implement communication protocols by creating culturally sensitive guidelines and engaging in role-playing simulations within simulated intergalactic diplomatic scenarios to ensure effective interactions with extraterrestrial entities.
  • Implement project management tools to monitor resources, timelines, efficiencies, and expenditures when building a UFO prototype.

✐ Blueprint in Action

Chart Your Course!
Ensure your course aligns with Vocational Learning Outcomes using the Relationship to Program Vocational Outcomes section of the Course Outline Template – your guide to keeping students on track for success!

 

​​

Course Learning Outcomes

Course Learning Outcomes (CLOs) are a critical component of course design and play a key role in guiding both students and instructors. They establish clear expectations for what students will achieve by the end of the course and ensure alignment between learning activities, assessments, and the overall program’s Vocational Learning Outcomes (VLOs). This section provides guidance for understanding, writing, and utilizing CLOs effectively.

What are Course Learning Outcomes (CLOs)?

CLOs articulate what students will know, do, or value by the end of the course. They:

  • Provide students with a clear understanding of what they are expected to achieve.
  • Help students anticipate learning outcomes and track their progress.
  • Support instructors in designing aligned assessments, activities, and resources.
  • Ensure consistency between the course and the overarching program VLOs.

Best Practices for Writing CLOs

  1. Focus on Priorities: Identify “must know” and “must do” elements for the course and include “nice to know/do” elements only if time permits.
  2. Ensure Alignment: Link each CLO to the larger VLOs for the program, ensuring a progression of learning across courses within the program.
  3. Be Distinct: Avoid duplicating CLOs across courses. Each course should have unique outcomes that reflect increasing levels of complexity or proficiency.
  4. Less is More: Aim for 3-8 robust CLOs that can be evaluated through graded assessments.
  5. Be Measurable: Use action verbs from Bloom’s Taxonomy to ensure outcomes are assessable and demonstrate progression.

Structure of CLOs

Each CLO should contain the following four parts:

  1. Stem: Begins with “By the end of the course, students will be able to…”
  2. Action Verb: A measurable verb that indicates the level of learning (e.g., analyze, design, evaluate).
  3. Learning Statement: Describes the knowledge, skills, or abilities to be demonstrated.
  4. Context: Explains the “why” or “how,” providing relevance to the learning.

Example of a CLO

By the end of the course, students will be able to analyze alien propulsion systems by examining theoretical designs and proposing innovative solutions to improve efficiency and safety in space travel.

Learning Objectives (LObs)

While CLOs define the overarching goals for the course, Learning Objectives (LObs) break these down into smaller, more specific tasks or skills. These objectives:

  • Describe how students will demonstrate they can meet the CLOs.
  • Provide clarity on expectations for each learning activity or assignment.
  • Are not required to be assessed, unlike CLOs, which must have associated graded assessments.

Example of LObs for the CLO above

  • Compare propulsion system designs used in science fiction media.
  • Identify key principles of propulsion efficiency in interstellar travel.
  • Develop a schematic for a propulsion system model based on theoretical designs.

Steps for Writing CLOs

  1. Review the program’s VLOs and ensure the CLOs align with the intended graduate competencies.
  2. Use Bloom’s Taxonomy to select action verbs that reflect the desired level of learning.
  3. Draft CLOs with clear, concise language, ensuring they are measurable and relevant.
  4. Verify that each CLO is distinct and builds on previous courses.
  5. Cross-check alignment between CLOs, assessments, and course content.

You can see below how the program’s VLOs inform the CLOs and the CLOs inform the learning objectives.

 

A diagram showing how VLOs inform CLOs and how CLOs are supported by a series of learning objectives.

EXAMPLE: Alien Technology 101

COURSE LEVEL: Learning Outcomes and Objectives 
To earn credit for this course, you must reliably demonstrate your ability to: 
Learning Outcome 

Add one outcome per box 

Objectives 

Add as many objectives as needed 

1. Examine alien-inspired technologies by exploring their theoretical principles, functions, and potential real-world applications to advance innovation in engineering and design.  1.1. Identify and describe key principles of alien-inspired technologies depicted in science fiction literature and media. 

1.2. Compare and contrast alien technology concepts with current human-engineered systems. 

1.3. Analyze the potential benefits and challenges of integrating alien technology principles into human industries. 

2. Create conceptual designs for extraterrestrial devices by integrating theoretical knowledge of alien materials, energy systems, and structural frameworks into functional prototypes.  2.1. Research and document theoretical alien materials and their potential properties. 

2.2. Design blueprints for extraterrestrial devices, incorporating advanced structural and energy system concepts. 

2.3. Construct scaled models or simulations of conceptual designs to test functionality. 

2.4. Refine designs based on feedback and theoretical limitations, emphasizing innovative solutions. 

3. Evaluate the societal and ethical implications of alien technology adoption by analyzing case studies and proposing responsible guidelines for their integration into human systems.  3.1. Analyze case studies involving the adoption of alien technologies. 

3.2. Identify potential societal impacts, including economic, cultural, and environmental factors, associated with alien technology integration. 

3.3. Debate ethical considerations surrounding alien technology use, such as resource allocation and unintended consequences. 

3.4. Develop a set of responsible guidelines for implementing alien technologies in a way that benefits humanity while minimizing risks. 

✐ Blueprint in Action

Engage Hyperdrive on Course Design! 🚀
Ensure your Course Learning Outcomes are clear, measurable, and aligned with program goals. Use the Course Level Learning Outcomes and Objectives section of the Course Outline Template to craft outcomes that keep students on the right trajectory for success!

​​

Evaluation Plan

The evaluation plan is a critical component of course design and communicates to students how their learning will be assessed. A well-constructed evaluation plan ensures alignment with course learning outcomes (CLOs), provides meaningful feedback, and adheres to institutional policies. This section provides guidance for faculty on designing and implementing effective evaluation plans for their courses.

Purpose of the Evaluation Plan

The evaluation plan serves to:

  • Clearly communicate to students the types, frequency, and weightings of assessments.
  • Provide a structured method for assessing student achievement of the CLOs.
  • Offer meaningful and ongoing feedback to support student progress and learning.
  • Ensure alignment with the Academic Evaluation Policy and the published course outline (DCO).

Key Principles for Developing Evaluation Plans

  1. Alignment with CLOs:
    • Every graded assessment must align with at least one CLO.
    • Assessments should directly measure the knowledge, skills, or abilities specified in the CLOs.
  2. Variety of Assessment Types:
    • Include at least two different assessment types (e.g., written reports, projects, presentations, tests, simulations).
    • Varying assessment types accommodates diverse learning styles and provides a more comprehensive evaluation of student learning.
  3. Weighting of Assessments:
    • No single assessment can exceed 40% of the total course grade.
    • If an assessment exceeds 40%, the breakdown of its subcomponents must be provided.
  4. Meaningful Feedback:
    • Provide students with feedback that is specific, constructive, and actionable.
    • Feedback should guide students in understanding their progress and identifying areas for improvement.
  5. Consistency with the Course Outline:
    • The evaluation plan must align with the published DCO and cannot be altered during the course without appropriate approvals.

Steps for Creating an Evaluation Plan

  1. Review the Course Learning Outcomes (CLOs):
    • Identify the key skills, knowledge, or abilities students are expected to demonstrate by the end of the course.
  2. Select Assessment Types:
    • Choose assessments that best measure the intended outcomes (e.g., projects for design-based CLOs, reports for analytical CLOs).
    • Consider formative (ungraded) assessments to provide practice and feedback before summative evaluations.
  3. Determine Weightings:
    • Distribute weightings to reflect the importance and complexity of each assessment.
    • Ensure a balanced distribution that aligns with institutional policies.
  4. Draft Assessment Descriptions:
    • Write clear descriptions of each assessment, including grading criteria and alignment with CLOs.
    • Share this information with students at the start of the course and again when introducing the assessment.
  5. Plan Feedback Mechanisms:
    • Determine how and when students will receive feedback (e.g., rubrics, written comments, one-on-one discussions).
    • Ensure feedback is timely to support learning and improvement.

Best Practices

  • Transparency: Clearly communicate the evaluation plan to students at the start of the course.
  • Fairness: Ensure assessments are reasonable in scope and appropriately weighted for the time and effort required.
  • Inclusivity: Design assessments that accommodate diverse learning needs and promote equitable opportunities for success.

Types of Assessments

  • Tests/Exams
  • Quizzes
  • Applied Activities
    • Discussions
    • Case study analysis
    • Role playing
    • Prototyping or model building
    • Lab activities or field work
    • Debates
    • Simulations/virtual simulations
    • Blogging
  • Assignments
    • Essays
    • Reports
    • Projects
    • Presentations
    • Reflections
    • Posters/Infographics

EXAMPLE: Alien Technology 101

Type Description Alignment to VLOs Value (%)
Assignments Technology Analysis Report (20%)
Conceptual Design Project (25%)
VLO 2, VLO 1, 7 45%
Applied Activities Ethical Case Study (20%)
Role-Playing Simulation (20%)
VLO 5, VLO 6 40%
Tests/Exam Test (15%) VLO 1, 2, 5, 6, 7 15%

✐ Blueprint in Action

Mission Control – Assessment Ready!
Ensure your evaluation plan is in orbit with course outcomes. Use the Evaluation Section of the Course Outline Template to map out fair, engaging, and aligned assessments for your students’ success!

​​​

Essential Employability Skills (EES)

Essential Employability Skills (EES) are a mandatory component of Ontario College Certificate, Diploma, and Advanced Diploma programs, as required by the Ministry of Colleges and Universities. These skills are critical for workplace readiness, enabling graduates to perform effectively in diverse professional settings. EES are intentionally assessed and integrated into all programs to ensure students develop the competencies necessary for career success.

What are Essential Employability Skills (EES)?

EES are transferable skills that support students’ personal and professional growth. They complement technical knowledge and vocational competencies, helping graduates meet workplace demands. The Ontario Government identifies 11 Essential Employability Skills, grouped into six broader categories:

  1. Communication (EES 1 & 2)
    • Communicate clearly, concisely, and correctly in written, spoken, and visual formats to meet audience needs.
    • Respond effectively to written, spoken, or visual messages.
  2. Numeracy (EES 3)
    • Execute mathematical operations accurately.
  3. Critical Thinking & Problem Solving (EES 4 & 5)
    • Apply a systematic approach to solve problems.
    • Use a variety of thinking skills to anticipate and address issues.
  4. Information Management (EES 6 & 7)
    • Locate, select, organize, and document information using appropriate technology and systems.
    • Analyze, evaluate, and apply relevant information from various sources.
  5. Interpersonal (EES 8 & 9)
    • Show respect for diverse opinions, values, and belief systems.
    • Work collaboratively in teams to foster effective relationships and achieve goals.
  6. Personal (EES 10 & 11)
    • Manage time and resources effectively to complete projects.
    • Take responsibility for one’s own actions, decisions, and consequences.

Integrating and Assessing EES

To integrate EES into your course, intentional planning is required to create meaningful learning opportunities where students can develop and demonstrate these skills. Consider the following strategies:

  • Relevance to the Field: Identify how EES apply in your discipline (e.g., client communication, teamwork, budgeting).
  • Application in Learning Activities: Design assignments, activities, and projects that allow students to practice and refine EES.
  • Frequent Evaluation: Assess each EES at least twice throughout the program to ensure consistent skill development.

Why EES Matter

Employers consistently prioritize employability skills over technical knowledge when hiring and evaluating employees. EES ensure graduates can:

  • Identify and solve workplace problems effectively.
  • Communicate clearly with clients, colleagues, and stakeholders.
  • Work collaboratively in diverse teams.
  • Adapt to changing environments and manage responsibilities efficiently.

Consider

Reflect on which EES you can intentionally integrate into your course. Where can you explicitly teach EES that naturally align with your content? How can you incorporate EES into the evaluation criteria for assessments?

EXAMPLE: Alien Technology 101

Here is a sample of how EES can be identified as part of your course:

Teach Assess The graduate has reliably demonstrated the ability to:
Communication: Communicate clearly in written, spoken, and visual form that fulfills the purpose and meets audience needs.
Respond effectively to written, spoken, or visual messages.
Numeracy: Execute mathematical operations accurately.
Critical Thinking & Problem Solving: Apply a systematic approach to solve problems.
Use a variety of thinking skills to anticipate and solve problems.
Information Management: Locate, select, organize, and document information using appropriate technology and information systems.
Analyze, evaluate, and apply relevant information from a variety of sources.
Interpersonal: Show respect for the diverse opinions, values, belief systems, and contributions of others.
Interact with others in groups or teams in ways that contribute to effective working relationships and the achievement of goals.
Personal: Manage the use of time and other resources to complete projects.
Take responsibility for one’s own actions, decisions, and consequences.

✐ Blueprint in Action

Prepare Your Crew for Liftoff
Help students develop the skills they need to thrive in any workplace. Use the Essential Employability Skills section of the Course Outline Template to integrate these critical skills into your course.

​​

Learning Activities

Learning activities are essential components of effective teaching, designed to actively engage students in the learning process and help them achieve course learning outcomes. These activities promote a deeper understanding of course content, encourage skill development, and foster critical thinking and collaboration.

Purpose of Learning Activities

Learning activities are designed to:

  • Facilitate the application of course concepts in meaningful ways.
  • Support a variety of learning styles and preferences.
  • Engage students actively in their own learning journey.
  • Develop transferable skills such as problem-solving, teamwork, and communication.

Types of Learning Activities

  • Lectures
    • Instructor-led verbal presentations, often supplemented with slides or visual aids, to explain key concepts.
  • Guest Speaker(s)
    • Industry professionals or subject matter experts share insights, experiences, and knowledge with students.
  • Class Discussions
    • Interactive sessions where students share ideas, ask questions, and critically engage with course content.
  • Community Volunteer Work
    • Students engage in service-oriented activities within the community, applying course concepts and developing civic responsibility.
  • Labs
    • Hands-on sessions where students conduct experiments or practice techniques in a controlled environment.
  • Reflective Writing
    • Students analyze and connect their learning experiences to personal and professional growth.
  • Group Work
    • Collaborative tasks where students work together to complete projects, solve problems, or discuss topics.
  • Clinical Portfolios
    • Collections of student work showcasing skills, experiences, and competencies in clinical or applied settings.
  • Research
    • Students investigate topics, gather and analyze data, and synthesize information to deepen understanding.
  • Acute Care Skill Building
    • Training in healthcare-related skills focused on addressing urgent or critical patient needs.
  • Field Work
    • Experiential learning outside the classroom in real-world settings.
  • Scenario Testing
    • Simulations requiring students to demonstrate critical thinking and decision-making skills.
  • Self-Directed Learning
    • Students set learning goals and explore resources independently.
  • Physical Fitness Training
    • Activities to improve physical health, strength, and endurance, linked to wellness or kinesiology objectives.
  • Presentations
    • Students prepare and deliver spoken or multimedia presentations on course topics.
  • Physical Activity
    • Movement-based learning activities that incorporate fitness or practical application.
  • Role-Playing Activities
    • Simulated exercises where students assume roles to practice communication, problem-solving, or job-related skills.
  • In-Class Exercises
    • Short, focused activities during class that reinforce learning and encourage participation.
  • Field Trip(s)
    • Off-site visits to locations relevant to the course for experiential learning.
  • Small Group Instruction
    • Sessions with a limited number of students for more personalized learning.
  • One-to-One Instruction
    • Individualized teaching where the instructor provides tailored guidance.
  • Case Studies
    • Analysis of real-world or fictional scenarios to apply course concepts in decision-making.
  • eLearning Components
    • Digital learning tools such as quizzes, discussion forums, and interactive modules.
  • Other (Specify)
    • Any additional activity not listed here that enhances student learning.

EXAMPLE: Alien Technology 101

Here are the learning activities that are anticipated to be use used in Alien Technology 101.

Lectures Guest Speaker(s)
Class Discussions Community Volunteer Work
Labs Reflective Writing
Group Work Clinical Portfolios
Research Acute Care Skill Building
Field Work Scenario Testing
Self-Directed Learning Physical Fitness Training
Presentations Physical Activity
Role Playing Activities In-Class Exercises
Field Trip(s) Small Group Instruction
One-to-One Instruction Case Studies
eLearning Components Other: specify

 

✐ Blueprint in Action

Activating Hyperdrive Learning
Chart your course using the Learning Activities section of the Course Outline Template to craft experiences that prepare students for interstellar success!

​​

Resources

Selecting the right resources is a crucial part of course design, as they support student learning and ensure that content is relevant, accessible, and engaging. Resources may include a mix of publisher textbooks, open educational resources (OER), and other online tools and platforms. This section outlines the types of resources you can use and provides examples to guide your selection.

  1. Publisher Textbooks
    Publisher textbooks are professionally developed resources that provide comprehensive coverage of course topics. They often include supplementary materials such as online quizzes, videos, and case studies.

    • Advantages:
      • Well-researched and peer-reviewed content.
      • Accompanied by instructor resources like PowerPoint slides and test banks.
    • Examples:
      • Engineering Mechanics: Dynamics by Pearson.
      • Principles of Marketing by McGraw-Hill.
      • Fundamentals of Nursing by Elsevier.
  2. Open Educational Resources (OER)
    OER are freely accessible and openly licensed materials that can be customized for your course. They promote equity and affordability in education while allowing flexibility in content delivery.

    • Advantages:
      • Free for students and adaptable to specific course needs.
      • Often include multimedia resources such as videos, interactive simulations, and quizzes.
    • Examples:
      • Introduction to Psychology by OpenStax.
      • The No-Tech Challenge: Teaching Adult Learners with Low-Tech Access (Pressbooks).
      • MERLOT (Multimedia Educational Resource for Learning and Online Teaching).
      • eCampusOntario Open Library (Canadian-focused OER).
  3. Online Resources and Tools
    Online resources encompass a broad range of digital materials, including videos, tutorials, articles, and interactive platforms. These resources can supplement course content and provide hands-on, practical learning opportunities.

    • Examples of Online Tools:
      • Khan Academy: Free lessons and tutorials on various subjects.
      • LinkedIn Learning: Professional development videos and certifications.
      • Coursera and edX: Access to university-level courses on topics like AI, marketing, and design.
    • Examples of Multimedia Resources:
      • YouTube: Educational channels like CrashCourse or TED-Ed.
      • Simulations and Games: PhET Interactive Simulations for science and math, or serious games for skill-building.
    • Discipline-Specific Examples:
      • Engineering: Autodesk tutorials and tools for CAD.
      • Business: Harvard Business Review articles and case studies.
      • Healthcare: AnatomyZone for anatomy visualization.
  4. Institutional and Library Resources
    Many colleges and universities provide access to databases, journals, and digital resources through their libraries. These resources are often tailored to specific disciplines.

    • Examples:
      • JSTOR, ProQuest, and ScienceDirect for academic articles.
      • eBook collections available through the institution’s library portal.
      • Digital archives and research guides curated by the library.
  5. Custom Resources and Instructor-Created Materials
    Custom resources allow instructors to tailor content to the specific needs of their students. These materials can include lecture notes, curated reading lists, and multimedia content.

    • Advantages:
      • Fully aligned with course learning outcomes.
      • Incorporates instructor expertise and context.
    • Examples:
      • Case studies written by the instructor.
      • Recorded lectures or screencasts on key topics.
      • Custom quizzes and assignments hosted on the learning management system (LMS).

Best Practices for Selecting Resources

  1. Alignment with Learning Outcomes: Ensure all resources support the course learning outcomes and program vocational learning outcomes.
  2. Accessibility: Choose resources that are easily accessible to all students, considering AODA compliance for digital resources.
  3. Cost-Effectiveness: Opt for free or affordable options like OER whenever possible to minimize financial barriers for students.
  4. Engagement: Include a variety of resource types (e.g., videos, articles, interactive tools) to cater to different learning styles.
  5. Currency and Relevance: Use up-to-date materials that reflect current industry practices and trends.

EXAMPLE: Alien Technology 101

Here is an example of the resources selected for the fictional course, Alien Technology 101.

Books  Galactica, F. M. (Year). Stellar innovations: Theoretical foundations and applications of alien technologies. Milky Way Press.
Other resources ExoTech Podcast. (2024). Exploring alien technologies: A future-focused series [Audio podcast]. ExoTech Media. https://www.exotechpodcast.com

 

Cosmos Studio. (2021). Beyond the stars: Innovations from alien worlds [Film]. Cosmic Creations.

 

Intergalactic Innovation Research Center. (2023). Theoretical alien technologies and their potential applications. https://www.intergalacticinnovation.org

✐ Blueprint in Action

Stocking Your Cosmic Toolkit
Customize your course supply kit using the Resources Required section of the Course Outline Template to keep your cadets mission-ready!

​​

Assessment Plan

An assessment plan is a framework that helps faculty connect course learning outcomes (CLOs) to the evaluation methods identified in the evaluation plan on the course outline, ensuring that each outcome is adequately assessed. By mapping assessments to learning outcomes, teachers can verify that their evaluation plan provides a balanced approach to measuring knowledge, skills, and competencies.

EXAMPLE: Alien Technology 101

Here is an example of an assessment plan for the fictional course Alien Technology 101.

Type of Assessment Course Learning Outcome(s) Purpose of Assessment Activities that Support the Success of the Assessment Weight (%) Title of Assessment
Assignment VLO 1 To analyze alien technologies to determine real-world applications of those technologies.
  • Demonstration of alien technologies at the campus Centre for Alien Studies.
  • Debate on real-world applications of alien technologies.
20 Technology Analysis Report
Assignment VLO 2 To create a conceptual design of an alien technology that can be applied in the real world as an innovative solution to a world problem.
  • Round table activities focused on real-world problems; discussion.
  • Lab demonstration of how to design a concept using hand drawings and computer software.
  • Peer-to-peer sharing of designs with integrated feedback.
25 Conceptual Design Project
Applied Activity VLO 3 To determine ethical implications of the use of alien technologies on Earth.
  • Brainstorming session to identify possible ethical implications.
  • Mini-case study (using a smaller scenario) with peer and faculty feedback.
20 Ethical Case Study
Applied Activity VLO 3 To persuade an opponent to change their mind about whether the use of alien technologies is ethical or not.
  • Written persuasive activity.
  • Group brainstorming to identify persuasive techniques for their role-playing simulation.
20 Role-Playing Simulation
Test VLO 1, 2, 3 To test students’ knowledge on theories, principles, functions, and frameworks used in the study of alien technologies.
  • Group study session.
15 Test

✐ Blueprint in Action

Charting the Course for Success
Plot your assessment trajectory using the Assessment-Plan-Template to ensure a smooth flight through the learning universe!

​​

Syllabus

A syllabus is a detailed document provided to students at the start of a course that outlines the learning plan for the course, including weekly topics, alignment to course learning outcomes, required readings, and assessment due dates. The syllabus provides students with a roadmap for the semester, helping them understand the scope and sequence of their learning, plan their time effectively, and know where to access resources and support. For faculty, the syllabus is a tool that ensures alignment between course design and delivery, offering transparency and consistency. Providing a syllabus at the beginning of the semester sets clear expectations, fosters accountability, and establishes a foundation for a productive and engaging learning experience.

EXAMPLE: Alien Technology 101

Here is an example of a completed syllabus for the fictional course, Alien Technology 101.

Wk Topic Instructional Materials (Lessons) Learning Activities (Ungraded Practice Activities) Assessments (Graded) Learning Outcomes Learning Objectives
1 Course Introduction and Foundations Read: Chapter 1 [textbook]
Listen: Episode 4 [podcast]
Class discussion on examples of alien technology in science fiction.
2 Theoretical Principles of Alien Technologies Read: Chapter 2 [textbook]
Watch: “Alien Technologies Used in Modern Day Film” [YouTube]
Identify and analyze key alien technologies used in film.
3 Alien Propulsion Systems Read: Chapter 5 [textbook]
Watch: “Propulsion Systems: Past, Present, and Future” [YouTube]
Discuss in Groups: Compare alien propulsion systems with current human-engineered technologies.
4 Energy Sources and Sustainability Read: Chapter 9 [textbook]
Listen: Episode 27 [podcast]
Group research on alien energy concepts and presentation of findings. Technology Analysis Report
Due: September 30
Value: 20%
CLO 1 Obj 1.1, 1.2, 1.3
5 Alien Materials and Their Properties Read: Chapter 4 [textbook] In Pairs: Research and document properties of alien materials.
6 Designing Alien-Inspired Devices Read: Chapter 11 [textbook] Begin designing blueprints for an alien-inspired device.
7 Prototyping and Simulation Read: Chapter 3 [textbook] Hands-on prototype building session. Conceptual Design Project (Part 1)
Due: Dec. 17
Value: 10%
CLO 2 Obj 2.1-2.3
Study Week
8 Ethical Considerations in Alien Technology Adoption Read: Chapter 6 [textbook] Debate on ethical considerations in adopting alien technologies.
9 Societal Impacts of Alien Technologies Read: Chapter 7 [textbook] Group work to identify societal challenges and propose solutions. Ethical Case Study
Due: Nov. 3
Value: 20%
VLO 3 Obj 3.1-3.4
10 Developing Responsible Guidelines Read: Chapter 8 [textbook] Draft responsible adoption guidelines in teams.
11 Interdisciplinary Applications of Alien Technologies Read: Chapter 12 [textbook] Brainstorm real-world applications for alien-inspired designs. Role Playing Scenario
Due: Nov. 20
Value: 20%
VLO 3 Obj 3.1-3.4
12 Conceptual Design Project Read: Chapter 10 [textbook] Peer and instructor feedback on designs.
13 Test Test
Due Date: Dec. 13
Value: 15%
CLO 1, 2, 3 Obj 1.1-1.3, 2.1-2.3, 3.1-3.4
14 Final Presentations Class reflection on learning achievements and feedback for improvement. Conceptual Design Project (Part 2)
Due: Dec. 17
Value: 15%
CLO 2 Obj 2.1-2.3

Note: 30% of the course’s total weight is evaluated prior to mid-term.

✐ Blueprint in Action

Navigating the Semester with a Stellar Flight Plan
Launch your course with clarity and structure using the Course Syllabus Sample (Template) to map out a seamless learning adventure!

​​

Assessment Descriptions and Grading Criteria

Assessment is the process of evaluating student learning, skills, and performance to determine whether they have achieved the intended course learning outcomes (CLOs).
Effective assessments align directly with CLOs and provide students with opportunities to demonstrate their knowledge and abilities in meaningful ways.
Assessments not only measure student progress but also support learning by providing constructive feedback to guide improvement.

When creating assessment descriptions, it is essential to ensure that the instructions are clear and include the grading criteria that will be used to evaluate student work.

Grading Criteria Overview

Grading criteria define how student performance will be evaluated for each assessment. Clear, consistent criteria ensure that grading is fair, transparent, and aligned with the goals of the course. Different types of grading criteria may include:

  1. Point Systems: Assigning numerical values to specific elements of an assignment.
  2. Checklists: Outlining required components or steps that students must complete.
  3. Holistic Assessment: Evaluating the overall quality of work based on general performance descriptors.
  4. Rubrics: Detailed frameworks that outline specific expectations and performance levels for various aspects of an assignment.

While all grading criteria have their place, rubrics are the most comprehensive and effective tool for evaluating student work in a fair and transparent manner.

Using Rubrics for Assessment Evaluation

Rubrics are structured tools that break down assignments into key criteria and describe performance across different levels, such as exemplary, proficient, developing, and beginning.

Benefits of Rubrics:

  • Clarity: Clearly communicate expectations to students.
  • Consistency: Ensure grading is uniform across all submissions.
  • Feedback: Provide targeted feedback on strengths and areas for improvement.
  • Alignment: Directly link to CLOs, ensuring assessments measure intended outcomes.

Components of a Rubric:

  1. Criteria: The aspects of the assignment that will be evaluated (e.g., clarity of argument, use of evidence, creativity).
  2. Performance Levels: Descriptions of performance quality (e.g., exemplary, proficient, needs improvement).
  3. Descriptors: Detailed explanations of what is required to achieve each performance level for each criterion.

EXAMPLE: Alien Technology 101 Assessment Description with Rubric

Here is a sample assessment description for the fictional course, Alien Technology 101.

Assessment Title: Technology Analysis Report

Purpose of Assessment: The purpose of this assessment is to evaluate your ability to analyze alien-inspired technologies by exploring their theoretical principles, functions, and potential real-world applications. This report will allow you to apply critical thinking and research skills to bridge the gap between theoretical concepts and innovative engineering solutions.

Value (%): This assignment is worth 20% of your course grade.

Course Learning Outcomes (CLOs)

  • CLO 2: Create conceptual designs for extraterrestrial devices by integrating theoretical knowledge of alien materials, energy systems, and structural frameworks into functional prototypes.

Task: In this report, you will research and analyze a fictional alien technology, compare its principles and functions to current human systems, evaluate its potential real-world applications, and reflect on the use of AI tools in your research and writing process.

Time Commitment: This assignment should take you approximately 6-8 hours to complete.

How to Complete This Assessment

  • Research and Selection: Choose an alien technology that you know of or would like to learn more about. Use credible sources to gather details about its principles and functions.
  • Comparative Analysis: Compare the alien technology to existing human technologies, focusing on similarities, differences, and potential advantages or challenges.
  • Applications and Implications: Discuss how the technology could be adapted for human use, addressing potential societal, ethical, or environmental concerns.
  • AI Integration: Document where and how AI tools were used in your process. AI should be used only as a supporting tool to brainstorm or draft an outline.
  • Write a Report: Compose a 1000-1200 word report covering your research findings, comparisons, and implications.
  • Reflection: Include a 150-200 word reflection on how using AI impacted your workflow and the quality of your report.

Grading Criteria

Criteria Exemplary Proficient Emerging Not Included
Research and Evidence Comprehensive research with diverse, credible sources; clear documentation of AI use. Thorough research with mostly credible sources; adequate AI documentation. Limited research with few credible sources; minimal AI documentation. Little to no research; no AI documentation provided.
Comparative Analysis Insightful, detailed comparison of alien and human technologies with critical evaluation. Clear comparison with some evaluation of key similarities and differences. Basic comparison with limited evaluation of similarities and differences. Incomplete or unclear comparison; no evaluation provided.
Applications and Implications Creative and well-supported discussion of real-world applications and societal implications. Reasonable discussion of applications and societal implications, with minor gaps. Basic discussion of applications or societal implications, with significant gaps. Minimal or unclear discussion of applications and implications.
AI Reflection Thoughtful, critical reflection on AI’s role in research and writing, with clear examples. Reflection on AI use with some examples; minor gaps in critical analysis. Basic reflection on AI use; limited detail or examples. No reflection on AI use or examples provided.
Organization and Clarity Exceptionally clear, logical structure; professional tone and language throughout. Clear structure and tone, with minor lapses in organization or language. Some structure and clarity issues; language occasionally inconsistent. Unclear or disorganized structure; unprofessional tone or language.

How to Submit Your Assessment:
Assignments can be submitted as a Microsoft Word document to the Moodle Dropbox by the provided due date.

How to Cite References:
Provide references in APA format for information discussed in this assessment description. For more information on citing sources in APA format, please review the “How to Cite” resources from The Learning Portal. Click on the “APA” tab under “Citation Examples”.

Artificial Intelligence Use:
Students are permitted to use artificial intelligence (AI) tools, such as ChatGPT or other AI-based assistants, to support their assignments; however, all AI-generated content must be properly cited to maintain academic integrity and transparency. Any text, idea, or concept taken from an AI tool must be cited, including direct quotes, paraphrased content, or AI-suggested outlines. Students must also provide a link to their AI-generated chat or transcript as an appendix in their assignment to allow instructors to cross-reference AI contributions. AI should be used as a tool for learning, not as a substitute for critical thinking, and students must demonstrate their understanding by analyzing, interpreting, or expanding upon AI-generated content in their own words. Assignments must reflect students’ own thoughts, synthesis, and critical engagement with the topic, ensuring that AI does not replace their intellectual effort. Any failure to cite AI-generated text appropriately or present AI-generated work as entirely original may be considered a breach of academic integrity.

✐ Blueprint in Action

Decoding the Cosmos of Assessment
Use the Assessment-Description-Template to craft clear, engaging, and transparent evaluations that keep students on course for interstellar achievement!

​​

Develop Your Weekly Units

Designing weekly units involves structuring content and activities to guide students through focused learning experiences that align with course learning outcomes. A well-designed unit should include clear objectives, engaging content, meaningful activities, and opportunities for assessment and reflection.
Below is a guide called BOPPPS that outlines the essential components of a weekly unit.
As a recommended practice, break your lessons up into small chunks of lecture and learning activities to engage students in the lesson(s).

  1. Bridge-In
    A Bridge-In captures students’ attention and connects prior knowledge to new learning, setting the stage for engagement. This can be achieved through a thought-provoking question, a real-world scenario, a short story, or an interactive activity that sparks curiosity and relevance.
  2. Learning Objectives
    Clearly define what students will achieve by the end of the unit.

    • Objectives should be specific, measurable, attainable, relevant, and time-bound (SMART).
    • Use action verbs from Bloom’s Taxonomy (e.g., analyze, create, evaluate).

    Example:
    By the end of this unit, students will be able to evaluate the ethical implications of adopting alien-inspired technologies in human industries.

  3. Pre-Test
    Assess students’ prior knowledge or readiness for the week’s content.

    • Use short quizzes, polls, discussions, or reflective questions to gauge your students’ understanding of the topic that week.
  4. Instructional Materials
    Provide the core knowledge or skills students need to meet the learning objectives using a variety of resources to support student learning. You can use lectures paired with PowerPoint slide decks, a series of videos, demonstrations, or other teaching techniques to teach content to students.

    • Materials should be relevant, accessible, and diverse to accommodate various learner needs.
    • Examples include textbooks, articles, videos, and OERs.

    Examples:

    • Readings: “Stellar Innovations: Theoretical Foundations and Applications of Alien Technologies” (textbook).
    • Video: Beyond the Stars: Innovations from Alien Worlds.
  5. Learning Activities
    Engage students actively with the content through hands-on or reflective activities.

    • Activities should align with the learning objectives and help students apply what they have learned.
    • Include individual and collaborative tasks to cater to different learning preferences.

    Examples:

    • Group discussion on the ethical dilemmas of alien technology.
    • Role-playing exercise to propose guidelines for integrating alien systems.
  6. Post-Test
    Evaluate what students have learned and identify areas needing reinforcement.

    • Use quizzes, short-answer questions, applied tasks, or discussions.
  7. Summary
    Conclude the unit with a recap of key points and a reflection activity.

    • Summarize the week’s content and connect it to upcoming topics.
    • Encourage students to reflect on their learning experience.

EXAMPLE: Alien Technology 101

Week 2: Theoretical Principles of Alien Technologies

1. Bridge-In

Use an engaging activity to get students interested in the topic:

    • Activity: Show a short video clip or news-style simulation about a futuristic society grappling with the ethics of integrating alien technology.
    • Discussion Prompt: “If we discovered alien technology tomorrow, what would be the biggest ethical dilemma for humanity?”

2. Learning Objectives

By the end of this unit, students will be able to:

    • Identify key alien technologies and their uses.
    • Analyze the theoretical principles underlying these technologies and evaluate their usability on Earth.

3. Pre-Test

Assess students’ prior knowledge of alien technologies and their representation in media.

    • Activity: Poll students on their familiarity with specific alien technologies covered in the media.

4. Instructional Materials

Provide students with core content and resources to explore the theoretical principles of alien technologies.

    • Reading: Chapter 2 from Stellar Innovations: Theoretical Foundations and Applications of Alien Technologies.
    • Video: Alien Technologies Used in Modern Day Film (YouTube).
    • Supplemental Resource: Chart of key alien technologies and their theoretical bases.

5. Learning Activities

Engage students actively with the content through reflective and applied tasks.

    • Individual Activity: Students identify a scene from a selected movie (e.g., Arrival or Independence Day) and explain one alien technology used, describing its key features and engineering principles.
    • Group Activity: Collaborate in small groups to analyze the theoretical principles behind a chosen alien technology (e.g., energy shields, propulsion systems). Groups present their findings in class or in an online forum.
    • Discussion Prompt: “Which alien technology is the most useful in helping advance technologies here on Earth? Provide a detailed rationale.”

6. Post-Test

Evaluate student understanding and progress.

    • Applied Task: Write a one-minute paper (150–200 words) on how an alien technology could solve a real-world problem.

7. Summary

Conclude the unit with a recap and reflection.

    • Recap: Highlight the key alien technologies discussed and their theoretical principles. Connect this to next week’s focus on energy sources and sustainability.
    • Reflection Activity: Ask students to reflect in a journal entry: “How do alien technologies in film influence our perception of future engineering possibilities?”

✐ Blueprint in Action

Charting the Course for Weekly Missions
Use the BOPPPS Lesson Plan Template to map out your weekly units and create engaging, structured learning experiences that guide students toward academic success at warp speed!

jQuery(document).ready(function($) { $("a[href^='#']").click(function(event) { event.preventDefault(); let targetId = $(this).attr("href").substring(1); let targetSection = $("#" + targetId); if (targetSection.length) { let accordionToggle = targetSection.closest(".vc_tta-panel"); if (accordionToggle.length && !accordionToggle.hasClass("vc_active")) { accordionToggle.find(".vc_tta-panel-heading").click(); } } }); });