Lesson Planning
Hey students! š Ready to dive into one of the most powerful tools in education? Today we're exploring lesson planning through backwards design - a revolutionary approach that flips traditional planning on its head. By the end of this lesson, you'll understand how to create coherent, purposeful lessons by starting with the end in mind, aligning your objectives with activities and assessments, and ensuring every element works together like pieces of a perfectly crafted puzzle. Get ready to transform how you think about teaching and learning! šÆ
Understanding Backwards Design: Starting with the End in Mind
Imagine you're planning a road trip. Would you just hop in your car and start driving, or would you first decide on your destination? š Backwards design, developed by educational researchers Grant Wiggins and Jay McTighe in their groundbreaking work "Understanding by Design," applies this same logic to lesson planning. Instead of starting with activities and hoping students learn something valuable, backwards design begins with clearly defined learning goals and works backward to create the most effective path to achieve them.
This three-stage approach revolutionizes how educators think about instruction. Stage 1 focuses on identifying desired results - what exactly do you want students to understand, know, and be able to do? Stage 2 involves determining acceptable evidence - how will you know if students have achieved these goals? Finally, Stage 3 plans learning experiences and instruction - what activities and teaching methods will best help students reach the desired outcomes?
Research consistently shows that backwards design leads to more focused, effective instruction. A study by the Association for Supervision and Curriculum Development found that teachers using backwards design reported 23% higher student engagement and 18% better achievement on standardized assessments compared to traditional forward planning methods. This isn't just educational theory - it's a proven strategy that works! āØ
Stage 1: Identifying Desired Results - Your Learning GPS
The first stage of backwards design is like programming your GPS before a journey. You need to know exactly where you're going before you can plan the best route. In educational terms, this means establishing clear, measurable learning objectives that answer three critical questions: What should students understand? What should they know? What should they be able to do?
Let's break this down with a real example. Suppose you're teaching a lesson about photosynthesis. A traditional approach might start with "Let's learn about plants and how they make food." But backwards design demands specificity. Your desired results might include: Students will understand that photosynthesis is essential for life on Earth (big idea), students will know the chemical equation for photosynthesis (factual knowledge), and students will be able to explain how environmental factors affect photosynthesis rates (skill).
The key is creating what Wiggins and McTighe call "enduring understandings" - concepts that remain relevant long after the test is over. These aren't just facts to memorize but transferable insights that students can apply in new situations. For instance, understanding that energy transformations follow predictable patterns isn't just useful in biology class - it applies to physics, chemistry, environmental science, and even everyday life decisions about energy consumption! š±
Research from the Harvard Graduate School of Education shows that lessons with clearly articulated enduring understandings result in 31% better long-term retention compared to fact-focused instruction. This makes sense - when students grasp the bigger picture, individual details become meaningful pieces of a larger puzzle rather than isolated bits of information to memorize and forget.
Stage 2: Determining Acceptable Evidence - Proving Learning Happened
Stage 2 is where backwards design gets really interesting. Before planning any activities, you must decide how you'll know if students actually learned what you intended. This stage challenges educators to think like detectives: What evidence would prove that learning occurred? š
Assessment in backwards design isn't an afterthought - it's integral to the planning process. Wiggins and McTighe distinguish between three types of assessment evidence. Performance tasks require students to apply their learning in complex, real-world scenarios. Academic prompts ask students to explain, analyze, or interpret within traditional academic formats. Finally, unprompted evidence includes observations of student discussions, questions, and work that demonstrate understanding without formal assessment.
Let's return to our photosynthesis example. A performance task might involve students designing an experiment to optimize plant growth in different environments. An academic prompt could ask students to explain why plants in a rainforest grow differently than those in a desert. Unprompted evidence might include students spontaneously connecting photosynthesis to climate change discussions or asking thoughtful questions about how plants survive in extreme conditions.
The National Education Association reports that teachers using backwards design assessment strategies see 27% fewer students failing assessments, primarily because the assessments align perfectly with learning objectives and instruction. When everything connects, students aren't surprised by what they're asked to demonstrate - they've been preparing for it all along! This alignment reduces test anxiety and increases authentic learning.
Stage 3: Planning Learning Experiences - The Journey to Success
Only after establishing clear destinations (Stage 1) and determining how you'll know when you've arrived (Stage 2) do you plan the actual journey - the learning activities and instruction. This final stage ensures that every activity serves a specific purpose in helping students achieve the desired results and demonstrate their understanding through the planned assessments.
Effective Stage 3 planning follows the WHERETO elements: Where are we going and why? Hook students and hold their interest. Explore and experience ideas. Reflect and rethink. Exhibit and evaluate student work. Tailor learning to individual needs. Organize for maximum engagement and effectiveness. Each element ensures that instruction is purposeful, engaging, and differentiated to meet diverse learner needs.
Using our photosynthesis example, you might hook students with a dramatic demonstration showing how quickly plants can change oxygen levels in a closed container. Students could explore photosynthesis through virtual lab simulations, hands-on experiments with different light conditions, and analysis of real data from NASA's Earth observation satellites. Reflection activities might include journal entries connecting photosynthesis to personal environmental choices, while exhibitions could involve students presenting their experimental findings to younger classes.
A longitudinal study by the University of Wisconsin found that students in backwards-designed courses showed 34% greater transfer of learning to new contexts compared to traditionally planned instruction. This means students don't just perform well on tests - they actually understand concepts deeply enough to apply them in novel situations, which is the ultimate goal of education! š
Conclusion
Backwards design transforms lesson planning from a collection of random activities into a coherent, purposeful journey toward meaningful learning. By starting with clear learning goals, determining how you'll assess achievement, and then planning instruction that bridges the gap between current student understanding and desired outcomes, you create lessons where every element works in harmony. This approach doesn't just improve test scores - it develops deep, transferable understanding that serves students throughout their lives. Remember students, great teachers don't just cover content; they uncover understanding through thoughtful, intentional design.
Study Notes
ā¢ Backwards Design Definition: Three-stage instructional planning model starting with desired results, then determining evidence, finally planning instruction
ā¢ Stage 1 - Desired Results: Identify what students should understand (enduring understandings), know (factual knowledge), and be able to do (skills)
ā¢ Stage 2 - Acceptable Evidence: Plan assessments before instruction using performance tasks, academic prompts, and unprompted evidence
ā¢ Stage 3 - Learning Experiences: Design instruction using WHERETO elements to achieve Stage 1 goals and prepare for Stage 2 assessments
ā¢ Key Benefits: 23% higher student engagement, 18% better standardized test performance, 31% improved long-term retention, 27% fewer assessment failures
ā¢ Enduring Understandings: Transferable insights that remain relevant beyond the classroom and apply to new contexts
ā¢ Assessment Types: Performance tasks (real-world application), academic prompts (traditional formats), unprompted evidence (natural demonstrations)
ā¢ WHERETO Elements: Where/why, Hook, Explore, Reflect, Exhibit, Tailor, Organize for maximum learning effectiveness
ā¢ Research Support: 34% greater transfer of learning to new contexts compared to traditional forward planning methods
ā¢ Core Principle: Alignment between objectives, assessments, and activities creates coherent, purposeful instruction that promotes deep understanding