Knowledge/Skill Building

🌤️ Water Cycle Model for Exhibits

Content Expertise Critical Thinking & Problem Solving Effective Communication Collaboration Self Directed Learning Academic Mindset ESS.2.A ESS.2.D MS-ESS2-4 MS-ESS2-4 ESS.2.C ESS.3.A ESS.3.C Product Assessment Exhibition Reflection Core Content Project Launch Community Partners Essential Question Critique and Revision Submission Required

Students study strong examples of tabletop science models and then build a quick annotated draft showing evaporation, condensation, precipitation, runoff, and infiltration. Using arrows, color keys, and short evidence labels, they connect sun energy and gravity to water movement and note how water availability affects people and settlement. The model becomes a content piece teams may adapt into their exhibit.

Plan day
Day 14
Duration
75 min
Grouping
Pair
Steps
6 steps

Lesson plan

6 steps · 75 min
# What teachers do
1 Launch the draft phase by revisiting the driving idea for the exhibit and the question of how water shapes settlement and culture. Show 2-3 strong tabletop model examples, ask teams to notice what makes the science clear, and co-create a short success checklist focused on labeled processes, arrows, color key, sun energy, gravity, and human settlement connections. (15 min)
2 Have teams study their notes from Diamond Valley Lake, prior water investigations, and ancient civilization research. Each team identifies the must-show science processes and chooses one local connection and one ancient civilization connection they want visible in the model. They sketch a rough layout and assign roles such as layout lead, label writer, evidence checker, and materials manager. (15 min)
3 Teams build a quick draft tabletop model or annotated base using provided materials. They represent evaporation, condensation, precipitation, runoff, and infiltration across land, water, and atmosphere; add arrows and a color key; and label where sun energy and gravity drive movement. (25 min)
4 Teams add short evidence labels and human-use connections. They annotate how water availability affects freshwater access, farming, trade, transportation, sanitation, and daily life, and include at least one note connecting Diamond Valley Lake to local water storage or movement and one note connecting a selected ancient civilization to settlement near reliable water. (15 min)
5 Run a quick peer critique cycle. Pairs of teams give and receive feedback using sticky notes or a feedback form: one comment on scientific accuracy, one on clarity for family visitors, and one question about the settlement connection. Teams then make at least two revisions and mark them in a different color. (12 min)
6 Close with a brief team share and reflection. Each team gives a 30-60 second explanation of their draft model, names one new scientific insight, and records one way their thinking or collaboration changed. Teams then note one next revision step to carry into the next exhibit activity. (8 min)
Preparation (10 items)
  • Gather and organize model-making materials for each team: cardstock or poster base, markers, colored pencils, sticky notes, tape, scissors, index cards, glue, arrows or label templates, and optional simple craft materials for raised features.
  • Prepare 2-3 exemplar water cycle models or photos that clearly show annotation, arrows, color coding, and concise evidence labels appropriate for middle school exhibit work.
  • Create a visible criteria checklist aligned to the activity: includes evaporation, condensation, precipitation, runoff, infiltration, sun energy, gravity, arrows, color key, land-water-atmosphere interactions, and at least two human settlement connections.
  • Print or display a short bank of key vocabulary and sentence stems for evidence labels and oral explanations, including terms for weather processes, freshwater access, settlement, farming, trade, transportation, sanitation, and daily life.
  • Pull forward student materials from earlier work: Diamond Valley Lake observation notes, maps, ancient civilization research, artifact analysis notes, and any How Might We statements that can inform the draft.
  • Set up team workspaces with enough room for sketching and model construction, plus a separate area for the peer critique rotation.
  • Prepare a simple peer feedback tool with three prompts: What is scientifically accurate? What is clear for visitors? What question do you still have about water and settlement?
  • Prepare a quick reflection routine or exit slip for team check-ins that asks for one new academic insight and one way thinking or collaboration changed.
  • Plan brief facilitation checkpoints during building time to verify that teams are explicitly labeling the role of sun energy and gravity and not only naming water cycle stages.
  • If needed, pre-select mixed-readiness team supports such as partially labeled templates, visual icons for processes, and extension prompts for teams ready to add deeper local or ancient civilization connections.
Student-facing instructions
You will work with your team to create a first-draft water cycle model that could become part of your exhibit. Your goal is to show how water moves through Earth's systems and how that movement affects where people live. Use your team materials, Diamond Valley Lake notes, and ancient civilization research. First, study the example models and identify features that make the science easy to understand. Next, plan your layout and decide who will take each role. Then build your draft model or annotated tabletop display so it clearly shows evaporation, condensation, precipitation, runoff, and infiltration. Use arrows, a color key, and short labels. You must also show how sun energy and gravity drive water movement. Add evidence labels that connect water availability to freshwater access, farming, trade, transportation, sanitation, and daily life. Include at least one connection to Diamond Valley Lake and one connection to an ancient civilization your team has studied. After building, you will exchange feedback with another team, revise at least two parts of your model, and finish with a short team explanation and reflection.