Science · Year 3 · Working Scientifically: The Young Researcher · Summer Term

Formulating Scientific Questions

Students will learn to turn their curiosity into testable questions that can be answered through investigation.

• National Curriculum Attainment Targets
• KS2: Science - Working Scientifically

About This Topic

Formulating scientific questions guides Year 3 students to channel their natural curiosity into precise, testable inquiries that drive investigations. They learn to spot questions answerable by fair tests, observations, or data, such as 'Does more water make seeds grow taller?', while recognising opinion-based ones like 'Do you like blue flowers?'. This core Working Scientifically skill supports the National Curriculum by building foundations for planning and conducting experiments.

Across the science curriculum, this topic strengthens critical thinking and links to units on plants, materials, or forces. Students start with general observations, like shadows changing length, then craft questions such as 'Does the sun's position affect shadow size?'. They analyse if questions allow evidence-based answers, refining vague ideas into focused plans.

Active learning excels for this topic because students draw from real classroom observations to generate questions, then debate and improve them collaboratively. Pair shares and group critiques make criteria like testability immediate and relevant, boosting confidence and revealing diverse perspectives that enrich scientific enquiry.

Key Questions

1. Differentiate what makes a question scientific rather than just a matter of opinion.
2. Analyze how we know if a question can be answered by an experiment.
3. Construct a testable question from a general observation.

Learning Objectives

• Formulate testable scientific questions from given observations.
• Differentiate between scientific and opinion-based questions.
• Analyze whether a question can be investigated through a fair test.
• Construct a scientific question that can be answered by collecting data.

Before You Start

Making Observations

Why: Students need to be able to observe their surroundings to generate initial ideas for questions.

Basic Understanding of Experiments

Why: Students should have a foundational idea that experiments involve doing something to see what happens.

Key Vocabulary

Observation	Noticing something carefully using your senses or tools to gather information.
Inquiry	The process of asking questions to find out information or learn about something.
Testable Question	A question that can be answered by doing an experiment or making observations and collecting evidence.
Fair Test	An experiment where only one variable is changed at a time, so you know it is responsible for the results.

Watch Out for These Misconceptions

Common Misconception

All questions about animals or plants are scientific.

What to Teach Instead

Many such questions rely on opinion, like 'Are cats the best pets?'. Sorting activities with peer justification help students spot the need for evidence, shifting focus to testable claims like 'Do cats sleep more than dogs?'. Group discussions clarify this distinction quickly.

Common Misconception

Scientific questions must start with 'why'.

What to Teach Instead

Questions can begin with 'what', 'how', or 'does' if testable, like 'How does temperature change chocolate melting?'. Relay games where students rephrase 'why' questions expose this, and collaborative refinement builds flexible phrasing through trial and error.

Common Misconception

Questions about the past cannot be investigated.

What to Teach Instead

Historical events differ from repeatable science, but fossil digs or rock observations yield testable questions like 'Do older rocks have more layers?'. Hands-on simulations let students practise distinguishing, using evidence from models to correct views.

Active Learning Ideas

Sorting Game: Scientific or Not?

Prepare cards with 20 everyday questions. In small groups, students sort them into 'scientific' or 'not scientific' piles and write one reason for each sort. Regroup as a class to share justifications and vote on borderline cases.

35 min·Small Groups

Observation Hunt: Question Makers

Take students on a 10-minute outdoor or classroom observation walk to note three phenomena, like dripping taps or leaf colours. Back inside, pairs turn each into a testable question and test one quickly with simple tools.

45 min·Pairs

Question Relay: Refine and Pass

In lines of four, the first student writes a question from a prompt like 'magnets and paperclips'. The next improves it for testability, passes on; continue until the end. Groups present final versions.

25 min·Small Groups

Template Builder: Fair Test Questions

Provide sentence starters like 'Does [variable] affect [outcome] for [object]?'. Individually, students fill three from recent lessons, then swap with a partner for feedback on clarity and testability.

30 min·Pairs

Real-World Connections

• Young detectives at a science museum might ask: 'Does the type of paper affect how far a paper airplane flies?' to design a flying challenge.
• Gardeners often wonder: 'Does adding compost make tomato plants grow taller?' They can test this by growing plants with and without compost and measuring their height.

Assessment Ideas

Quick Check

Present students with three questions: 'Do cats make good pets?', 'Does the amount of light affect how fast a plant grows?', and 'Is blue a prettier color than green?'. Ask students to circle the testable scientific question and explain why the others are not.

Exit Ticket

Show students a picture of a common object, like a bouncing ball. Ask them to write one observation about the ball and then formulate one testable scientific question based on that observation.

Discussion Prompt

Start a class discussion with the observation: 'I noticed that when I water my plant every day, it seems to grow faster.' Ask students to work in pairs to turn this observation into two different testable scientific questions. Have pairs share their questions and discuss why they are testable.

Frequently Asked Questions

How do Year 3 students differentiate scientific questions?

Teach them to check if a question can gather evidence through tests or measures, not opinions. Use examples: 'Does exercise make your heart beat faster?' works; 'Is football fun?' does not. Practice with sorting cards builds this habit, linking to fair test planning in Working Scientifically.

What are good examples of testable questions for Year 3 science?

Focus on everyday observations: 'Does sugar dissolve faster in hot water?', 'Do taller plants need more sunlight?', or 'Does a ramp angle change toy car speed?'. These allow variables, predictions, and simple data collection, aligning with KS2 skills for plants, materials, and forces units.

How can I help students turn observations into questions?

Start with guided observations, like watching ice melt. Prompt with 'I wonder if...' stems. Model refining 'Ice melts' to 'Does salt make ice melt faster?'. Peer sharing ensures questions are clear and testable, fostering independence over sessions.

How can active learning help students formulate scientific questions?

Active methods like observation hunts and question relays engage students directly with phenomena, sparking authentic questions. Pair critiques and group sorts provide immediate feedback on testability, making abstract rules concrete. This builds confidence, reduces frustration from vague ideas, and mirrors real scientific collaboration in 40-50% more refined questions per lesson.