Computational Thinking & Coding

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Why it works

Computational thinking, the problem-solving approach behind computer science (decomposition, pattern recognition, abstraction, and algorithmic thinking), is increasingly recognized as a broadly valuable reasoning skill, not only for coding. Research and CS-education frameworks show it can be developed across subjects, and that early, accessible coding experiences build confidence and logical thinking. Teachers do not need to be programmers to foster it.

The research: CS education frameworks; research on computational thinking.

The run-of-show

Choose your slot. The agenda, timings, and length update to match.

The core activity: build computational thinking into a lesson

Teachers leave having made computational thinking explicit in one lesson.

Pick a problem or task in your subject.
Identify where computational thinking fits: breaking it down, finding patterns, thinking in steps.
Plan to make that thinking explicit.
If you want, add an accessible coding activity to reinforce it.

Teach the thinking, not just the codeComputational thinking, decomposition, patterns, step-by-step logic, is reasoning you can build in any subject. The code is optional; the thinking is the point.

Facilitator notes

Build computational thinking in any subject, and make the reasoning explicit.
Use accessible tools for coding when you want it.
You do not need to be a programmer.

Do not wait for a computer teacherComputational thinking belongs in every subject, not just CS class. Build the reasoning explicitly, and add accessible coding when you want it.

Adapt it

Elementary: unplugged activities, block coding, step-by-step thinking.
Secondary: computational thinking in content, coding tools.
All settings: decomposition, patterns, algorithmic thinking.

Participant handout

One page for every teacher. Print it, or save it as a PDF.

K12 Academics · Professional Learning

Computational Thinking: teach the reasoning

In any subject: decomposition, patterns, and step-by-step logic made explicit, coding optional.

The problem or task in my subject:
Where computational thinking fits:
How I make that thinking explicit:
An accessible coding activity (optional):
Where this reasoning helps across subjects:

Make it stick

Teach the reasoning:

Build computational thinking.
Make the reasoning explicit.
Bring a lesson that built it to the next PLC.

Common questions

I'm not a programmer, how can I teach this?

Computational thinking is a way of reasoning, breaking problems down, finding patterns, thinking in steps, that you can build in any subject without coding. Accessible tools exist for the coding part when you want it.

Isn't this just for computer class?

No. Decomposition, patterns, and step-by-step logic apply across math, science, writing, and problem-solving. It is a general thinking skill.

Where do I start with actual coding?

Free, beginner-friendly tools (block-based coding and tutorials) let students start with no programming background, and you can learn alongside them.