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Personal vehicles are an essential component of modern life, but gasoline fueled private transport is a leading source of air pollution and carbon emissions. Even though vehicle dependence can be reduced through sustainably designed transportation systems that integrate public and active transport, the reality is that cars will always be on the road. Emission reduction strategies must include technological advancements in vehicle fuel efficiency and alternative fuels, which is the focus of this STEM lesson that teaches students about the connections between natural resources, fossil fuels and environmental sustainability, while involving them in an engineering design process to create and present an idea for an eco-friendly vehicle. A combination of classroom learning and an associated hands-on activity involves pupils in achieving the follwing objectives:
This lesson has been developed to support Grade 3-5 STEM learning by involving pupils in an activity that uses problem-solving, critical thinking and creativity to design a car that reduces pollution. Science concepts related to air quality, renewable and non-renewable resources, carbon emissions and their contribution to climate change are explored from the context of alternative fuels and sustainable transportation.
Many schools are exploring greener approaches to student travel that encourage physical activity. After participating in this lesson, a class could develop an action project that highlights the multiple benefits of active school transport. Green Communities Canada has an Ideas Lab that provides numerous resources to support student initiatives to reduce the environmental impact and improve the safety of school travel within their communities.
The following tool will allow you to explore the relevant curriculum matches for this resource. To start, select a province listed below.
| Principle | Rating | Explanation |
|---|---|---|
| Consideration of Alternative Perspectives | Good | Students are able to discuss various forms of alternative fuels and new vehicle technologies such as "hybrid" cars, by actively providing input and describing ideas when they apply their new learning to the "Cars from the Future" design challenge. |
Consideration of Alternative Perspectives:
| ||
| Multiple Dimensions of Problems & Solutions | Very Good | Pupils will be able to describe how current technologies can reduce human impacts on the environment and support consumer demand for climate change solutions and environmental responsibility. The corresponding human health benefits of lower emissions are discussed from the perspective of clean air, water and natural systems. The lesson also supports an understanding that new, innovative cars can be challenging from an economic perspective by increasing production and purchase costs. |
| Multiple Dimensions of Problems & Solutions: Effectively addresses the environmental, economic and social dimensions of the issue(s) being explored.
| ||
| Respects Complexity | Good | The lesson supports an awareness that reliance on personal vehicles can only be reduced through a systems-thinking approach in developing transportation networks that combine technological innovation with improved public transit, enhanced active transportation infrastructure and creative urban planning. |
| Respects Complexity: The complexity of the problems/issues being discussed is respected. | ||
| Acting on Learning | Satisfactory | An action project is not included with this resource, but students are encouraged to think about the future of our planet from the perspective of personal sustainability decisions. |
| Acting on Learning: Learning moves from understanding issues to working towards positive change — in personal lifestyle, in school, in the community, or for the planet
| ||
| Values Education | Satisfactory | Students are actively involved in formulating potential solutions to reducing human impacts on the environment and describing their opinions about sustainability.
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| Values Education: Students are explicitly provided with opportunities to identify, clarify and express their own beliefs/values. | ||
| Empathy & Respect for Humans | Poor/Not considered | This is not considered in the resource. |
| Empathy & Respect for Humans: Empathy and respect are fostered for diverse groups of humans (including different genders, ethnic groups, sexual preferences, etc.). | ||
| Personal Affinity with Earth | Satisfactory | The lesson does not involve an outdoor experience but students do consider the negative environmental consequences of air pollution. |
| Personal Affinity with Earth: Encourages a personal affinity with -the natural world.
| ||
| Locally-Focused Learning | Satisfactory | Climate change is an issue of immediate concern that requires concrete action to reduce emissions and learners will recognize that change begins at a local level by creating sustainable communities that contribute to global health. |
| Locally-Focused Learning: Includes learning experiences that take advantage of issues/elements within the local community.
| ||
| Past, Present & Future | Good | Discussions surrounding fossil fuel use, carbon emissions and air pollution support an awareness of how human activity has caused the current global temperature increases over time that are impacting our world. Learners will also understand how future-oriented engineering can support global efforts to increase renewable energy use and protect the environment. |
| Past, Present & Future: Promotes an understanding of the past, a sense of the present, and a positive vision for the future. | ||
| Principle | Rating | Explanation |
|---|---|---|
| Open-Ended Instruction | Good | An engineering process forms the basis of the lesson whereby students are able to bring their own perspective, articulate ideas and explain their reasoning as they work in teams to create and present their "eco-car" designs. |
| Open-Ended Instruction
: Lessons are structured so that multiple/complex answers are possible; students are not steered toward one 'right' answer. | ||
| Integrated Learning | Good | The lesson and design activity supports STEM learning related to problem-solving, critical thinking and creativity. The science of climate change and atmospheric pollution are discussed from the context of human impacts on the environment, non-renewable and renewable resources. |
| Integrated Learning: Learning brings together content and skills from more than one subject area
| ||
| Inquiry Learning | Good | Students apply learned concepts from the lesson introduction to support critical thinking, creativity and innovation in the design process. |
| Inquiry Learning: Learning is directed by questions, problems, or challenges that students work to address.
| ||
| Differentiated Instruction | Satisfactory | No specific differention tools are included, but the hand-on nature of the car design activity will appeal to many students. |
| Differentiated Instruction: Activities address a range of student learning styles, abilities and readiness.
| ||
| Experiential Learning | Good | The real-world challenge engages students in a meaningful problem-solving task that is relevant to current global efforts to reduce greenhouse gas emissions and help prevent further climate change by creating sustainable transportation solutions. |
| Experiential Learning: Authentic learning experiences are provided
| ||
| Cooperative Learning | Satisfactory | Students work in teams to complete worksheets, design a vehicle and present their ideas. The introduction and conclusion of the lesson involves whole class discussions. |
| Cooperative Learning: Group and cooperative learning strategies are a priority.
| ||
| Assessment & Evaluation | Good | Discussion questions and the completion of a group "Transportation Rating System" worksheet provide formative assessment tools. The lesson suggests teachers provide a summary assessment of learning with a writing task, "My Life as an Environmental Engineer" in which individuals will describe their own idea for a device that uses renewable energy to clean water or air. |
| Assessment & Evaluation: Tools are provided that help students and teachers to capture formative and summative information about students' learning and performance. These tools may include reflection questions, checklists, rubrics, etc. | ||
| Peer Teaching | Satisfactory | On the second day of the activity "Cars from the Future" student teams briefly present their designs to other class members. |
| Peer Teaching: Provides opportunities for students to actively present their knowledge and skills to peers and/or act as teachers and mentors.
| ||
| Case Studies | Good | The introduction of the lesson has students imagine they are travelling on a plane to the Bejing Olympics and along the way they engage in a discussion regarding the role of engineers in designing the plane, other forms of transport and "green" transportation technology. To conclude, the plane lands in China and students imagine the traffic and air pollution while describing solutions. This approach presents the lesson in an authentic context. |
| Case Studies: Relevant case studies are included. Case studies are thorough descriptions of real events from real situations that students use to explore concepts in an authentic context. | ||
| Locus of Control | Good | Students have creative freedom and input into the decision-making process for their innovative car designs. |
| Locus of Control: Meaningful opportunities are provided for students to choose elements of program content, the medium in which they wish to work, and/or to go deeper into a chosen issue. | ||