Science // Scientific Inquiry
Writing Science Reports
Communicate scientific findings in a structured report using appropriate scientific vocabulary, SI units, and standard notation; describe how peer review and replication contribute to the reliability of scientific knowledge
Quick check
Could the learner write up an experiment with all the right sections and scientific language, and explain why a scientific discovery isn’t accepted straight away — describing what peer review means and why other scientists need to repeat the experiment?
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Topic // Mastery
What mastery looks like
- Writes a structured scientific report including aim, hypothesis, method, results, conclusion, and evaluation using appropriate scientific vocabulary
- Uses SI units and standard form consistently throughout a report
- Explains what peer review is and why replication by independent researchers is essential for scientific claims to be accepted
Topic // Map
Where this fits
- RequiredMust come first
- HelpfulHelps, but not essential
Before this
4 topicsScientific Inquiry // Ages 12 to 13
Scientific reporting at KS3 requires first being able to draw sound conclusions and evaluate experimental quality
Scientific Inquiry // Ages 11 to 12
A full structured report covers all stages from hypothesis to conclusion — grounded in the experimental design topic
- Research & Source EvaluationHelpful
English // Writing Composition // Ages 11 to 14
A scientific report drawing on multiple sources and peer-reviewed literature requires the summarising and source-integration skills developed in English
English // Writing Composition // Ages 11 to 14
Writing a structured secondary-level scientific report requires the informative/explanatory writing skills taught in English — logical organisation, precise vocabulary, and supporting detail
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Writing Science Reports
Ages 13 to 14 // Thinking skill
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Topic // Research-informed
Teaching notes
From the Marble Skill Taxonomy. These notes have not been validated in classrooms, so treat them as a starting point for your own judgement.
The approach
Learners aged 13–14 compose a full structured science report (aim, hypothesis, method, results, conclusion, evaluation) in objective scientific register, and come to understand WHY science is reported this way: peer review and independent replication are the social mechanisms that make scientific knowledge trustworthy. The load-bearing skill is extended scientific writing with reproducible methods and evidence-tied conclusions; the nature-of-science half is understanding that reliability comes from independent scrutiny, not authority.
Common misconceptions
- Writing the method as a past-tense story rather than a reproducible procedure.
- Writing a conclusion that restates the hypothesis without citing the actual data.
- Treating the evaluation as an afterthought instead of a genuine analysis of reliability and error.
- Believing peer review proves a result is TRUE, rather than that it has passed expert scrutiny.
- Thinking a single study settles a question, overlooking the role of independent replication.
- Using casual, first-person or overclaiming language instead of objective scientific register.
- Omitting units/significant figures in the results as if presentation were separate from rigour.
Useful representations
- The six-section report skeleton: aim → hypothesis → method → results → conclusion → evaluation
- A reproducible method as a numbered, unambiguous procedure
- Results section with headed SI-unit tables and correctly plotted graphs
- Peer-review → revision → replication → acceptance workflow diagram
- Register contrast card: objective scientific prose vs casual/overclaiming prose
Teaching practices
- Teach the report as sections with distinct jobs (aim, hypothesis, method, results, conclusion, evaluation) using a shared exemplar and success criteria for each.
- Make reproducibility the test of a good method: another person should be able to repeat it exactly from the written text — have peers try to follow each other's methods.
- Require conclusions to refer QUANTITATIVELY to the evidence (cite values, a gradient, a trend), not just restate the hypothesis.
- Teach objective scientific register (impersonal, precise, hedged appropriately) by contrasting it with casual or overclaiming language.
- Teach peer review and replication as the reasons for the conventions — transparency and reproducibility exist so others can check the work.
- Use structured critique of sample reports (spot the vague method, the overreaching conclusion) before students write their own.
Activities to try
- 1
Report studio: compose the six sections with built-in checks
Why it works: A scientific report is not a diary of what happened; each section has a distinct job, and together they present evidence and reasoning precisely enough for others to scrutinise.
- Write a complete report with the conventional sections — aim, testable hypothesis, method, results, conclusion, evaluation — for an investigation you have actually run or been given full data for.
- Draft the method as a numbered, unambiguous procedure that states what was kept constant (controlled variables), not as a past-tense story of what you did.
- Build results tables and graphs with headed columns, SI units and correct significant figures throughout.
- Write a conclusion that quotes specific values, a gradient, or a trend from your own data and states whether it supports the hypothesis — do not merely restate the hypothesis.
- Write an evaluation that genuinely analyses reliability: identify anomalies, distinguish systematic from random error, and propose specific improvements.
- 2
The reproducibility test: hand your method to someone else
Why it works: A report must be a set of instructions precise enough for someone else to repeat and check you. Watching a reader fail to reproduce your result because of a fuzzy sentence shows why science demands reproducible methods.
- Give your written method — and ONLY the written text, not your verbal explanation — to a partner (or a simulated replicator) who tries to carry out the experiment following exactly what is written.
- Observe where the replicator stalls, guesses, or does something different because an instruction was vague (e.g. 'heat it for a while', 'add some water').
- Note every point where their result diverged from yours and check whether it can be traced to an ambiguous sentence (some differences may instead come from random variation or different equipment).
- Rewrite each ambiguous step so a stranger would perform it identically, then have them try again.
- 3
Review desk: critique a flawed report against criteria
Why it works: Peer review chiefly scrutinises method, evidence, and reasoning — whether the conclusions are actually justified — rather than spelling or formatting. Learning to spot overreach and vagueness in others' work sharpens it in your own.
- Read a sample report containing deliberate flaws (a vague method, an overreaching conclusion, an unsupported claim, a missing control, missing units).
- Mark each weakness and explain against explicit criteria why it fails — e.g. 'this conclusion claims more than the data shows', 'this method cannot be reproduced because…'.
- Compare a gold-standard report and a flawed one section by section, articulating what makes each section strong or weak.
- Suggest the specific revision each flaw requires.
Topic // Standards
Curriculum standards
- The national curriculum in England: Key stages 1 and 2 framework document
- KS3.Sci.WS.VUSN.3KS3.Sci.WS.VUSN.4KS3.Sci.WS.VUSN.5
Science // Scientific Inquiry
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