Why Direct Instruction Falls Short for “Solving for Why”

Direct instruction is one of the most widely used teaching approaches in North American classrooms. It is a teacher-centered method where the instructor explicitly presents information in structured, sequential steps, models examples, guides students through practice, and then assigns independent work (Rosenshine, 1987). Rosenshine described it as a systematic method with emphasis on proceeding in small steps, checking for student understanding, and achieving active participation by all students. It is efficient, predictable, and works well when the goal is to transfer a specific procedure or set of facts to learners quickly.

However, for our learning pod’s project – “Solving for Why: Connecting Real-World Experience to Algebraic Thinking in Grade 9”, direct instruction would work against what we are trying to achieve. Our entire resource is built around the idea that students already do algebraic thinking in everyday life, and the real learning happens when they discover that connection for themselves. Direct instruction, by design, removes that discovery. If a teacher simply tells a student that “2x = 16 means two water bottles weigh 16 pounds, so divide both sides by 2,” the student receives the answer but never builds the understanding of why that operation makes sense. Research supports this concern traditional instruction that focuses on memorization limits students’ ability to make meaningful connections and transfer knowledge to real-world problems (Anugraheni et al., 2025).

As Sasha discussed in her post on experiential learning, our project is grounded in constructivist approaches where students create meaning from their own experiences. Direct instruction sits on the opposite end of that spectrum. Similarly, Paterson highlighted in his post on inquiry-based learning that inquiry-based learning encourages students to ask questions and experiment with changing parameters, something a lecture-style format simply does not support.

That said, direct instruction is not entirely without a place in our design. Short, focused moments of explicit teaching, like briefly introducing what a variable represents before students explore scenarios on Nearpod, can scaffold the activity without replacing the discovery. The key is that direct instruction should support exploration, not replace it. In a technology-mediated environment like Nearpod, the design choices we make around interactivity and student agency are what turn theory into practice, and leaning too heavily on direct instruction would undermine the very purpose of the resource.

References:

Anugraheni, I., Gufron, A., & Purnomo, Y. W. (2025). The impact of realistic problem-based learning on mathematical connection abilities: Evidence from elementary schools in Indonesia. Cogent Education, 12(1). https://doi.org/10.1080/2331186X.2025.2523078

Rosenshine, B. (1987). Explicit teaching and teacher training. Journal of Teacher Education, 38(3), 34–36. https://doi.org/10.1177/002248718703800308