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Waters of Change: An Innovation and Survival Museum Exhibit
Grade 6EnglishMathScienceHistory25 days
Students take on the role of museum curators from the year 2124 to design an immersive exhibit exploring the historical, scientific, and mathematical dimensions of the global clean water crisis. By analyzing ancient civilizations, engineering filtration prototypes, and calculating personal water consumption data, learners synthesize interdisciplinary knowledge into a cohesive educational experience. The project culminates in the creation of scale blueprints and persuasive narratives that challenge the community to recognize water as a vital resource for human survival.Water ScarcityMuseum CurationHuman InnovationFiltration EngineeringData VisualizationAncient CivilizationsEnvironmental Advocacy
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Inquiry Framework
Question Framework
Driving Question
The overarching question that guides the entire project.How can we, as museum curators, design an immersive exhibit that uses history, science, and data to tell the story of human survival and persuade our community to address the global clean water crisis?Essential Questions
Supporting questions that break down major concepts.- How has the availability of clean water influenced where and how human civilizations have developed throughout history?
- What scientific properties determine water quality, and how have human innovations in filtration and treatment evolved to ensure survival?
- How can we use mathematical ratios, percentages, and data analysis to represent the current state of global water scarcity and individual consumption habits?
- In what ways can a museum curator use persuasive writing and visual storytelling to effectively communicate the urgency of environmental change to a diverse audience?
- How do we apply geometric principles and scale to design an exhibit space that balances educational content with visitor engagement?
Standards & Learning Goals
Learning Goals
By the end of this project, students will be able to:- Analyze and describe the historical correlation between water access and the development of human civilizations across different geographical regions.
- Conduct scientific investigations into water quality and design an effective filtration prototype to demonstrate human innovation in survival.
- Calculate and represent global water scarcity data using ratios, rates, and percentages to quantify the impact of the water crisis.
- Apply geometric principles and scale modeling to design a physical or digital museum exhibit layout that maximizes visitor engagement and educational flow.
- Compose a compelling persuasive argument and curate visual narratives that motivate the local community to take action on global water issues.
TEKS Social Studies Grade 6
TEKS.SS.6.3.A
Primary
The student uses geographic tools to answer geographic questions and analyze patterns of settlement and the location of economic activities. The student is expected to: (A) identify and explain the geographic factors responsible for the location of economic activities in places and regions.Reason: This standard directly aligns with the essential question regarding how water availability influenced where human civilizations developed.
TEKS.SS.6.4.B
Primary
The student understands the impact of interactions between people and the physical environment on the development and conditions of places and regions. The student is expected to: (B) identify and analyze ways people have adapted to or modified the physical environment, such as through irrigation and housing.Reason: The project focuses on human innovation (filtration, irrigation, and storage) as a means of survival and adaptation to the environment.
TEKS Mathematics Grade 6
TEKS.MATH.6.4.H
Primary
The student applies mathematical process standards to solve problems involving proportional relationships. The student is expected to: (H) convert units within a measurement system, including the use of proportions and unit rates.Reason: Students must use ratios and rates to represent global water scarcity and compare individual consumption habits versus global averages.
TEKS.MATH.6.8.D
Secondary
The student applies mathematical process standards to use expressions and equations to represent relationships in a variety of contexts to solve problems. The student is expected to: (D) determine solutions for problems involving the area of rectangles, parallelograms, trapezoids, and triangles and volume of right rectangular prisms.Reason: This supports the exhibit design component where students must use geometry and scale to plan their museum space.
TEKS Science Grade 6
TEKS.SCI.6.11.B
Primary
The student knows that populations and species demonstrate complementary multivariate relationships and that there are costs and benefits to resources. The student is expected to: (B) describe the impact of conservation of resources such as water and energy.Reason: The core of the project is understanding the clean water crisis and the science behind water quality and conservation.
TEKS.SCI.6.1.A
Supporting
The student, for at least 40% of instructional time, asks questions, identifies problems, and plans and safely conducts classroom, laboratory, and field investigations.Reason: Students will be acting as scientists to test filtration methods and scientific properties of water quality.
TEKS ELAR Grade 6
TEKS.ELA.6.10.E
Primary
The student uses critical inquiry to analyze the authors' choices and how they influence meaning. The student is expected to: (E) identify and analyze the use of literary devices, including omniscient and limited point of view, and explain how they influence the reader. (Note: Adapted for persuasive curation/argumentation)Reason: Students act as curators using persuasive writing and storytelling to influence their audience to address the water crisis.
TEKS.ELA.6.12.B
Primary
The student uses source materials as ethically as possible to synthesize information and create new understanding. The student is expected to: (B) synthesize information from a variety of sources.Reason: The project requires curating information from history, science, and math to create a unified exhibit narrative.
Entry Events
Events that will be used to introduce the project to studentsThe Crate from the Future
Students discover a weathered shipping container in the classroom labeled "TOP SECRET: ARCHAEOLOGICAL RECOVERY 2124." Inside are common modern items (a Brita filter, a plastic bottle, a LifeStraw) treated like ancient relics, accompanied by a digital transmission from a future museum director begging the students to document how these 'primitive' innovations saved humanity during the Great Water Shift.📚
Portfolio Activities
Portfolio Activities
These activities progressively build towards your learning goals, with each submission contributing to the student's final portfolio.Activity 1
The Civilization Compass: Mapping Ancient Thirst
In this first portfolio activity, students step into their roles as historical researchers for the museum. They will investigate three ancient civilizations (e.g., Mesopotamia, Egypt, and the Indus Valley) and map their proximity to major water sources. Students will analyze how these water sources dictated not just survival, but the 'economic' activities of the time, such as trade and agriculture.Steps
Here is some basic scaffolding to help students complete the activity.1. Select three major ancient civilizations to research using provided maps and historical databases.
2. Identify the primary water source for each civilization and mark it on a digital or physical world map.
3. Research and list three 'Economic Benefits' the water source provided (e.g., transport for trade, silt for farming, water for livestock).
4. Write a 'Curator's Note' explaining the pattern discovered: Why did these people settle exactly where they did?
Final Product
What students will submit as the final product of the activityAn 'Origin Map' and 'Settle-Report' that identifies three historical sites, their water sources, and an explanation of how that water enabled the civilization to thrive.Alignment
How this activity aligns with the learning objectives & standardsTEKS SS 6.3.A: Identify and explain the geographic factors responsible for the location of economic activities. This activity specifically targets the geographic factor of water access as a primary driver for settlement and economic growth.Activity 2
Survival by Design: The Filtration Lab
Acting as the 'Innovation Branch' of the museum, students will design and test a water filtration system. Using 'contaminated' water (water with soil, coffee grounds, and vinegar), students must use the materials found in the 'Crate from the Future' (sand, charcoal, gravel, coffee filters) to create the most effective filtration prototype. This simulates the human need to modify the environment to survive.Steps
Here is some basic scaffolding to help students complete the activity.1. Analyze the materials found in the crate and hypothesize which layers will best remove large debris and microscopic impurities.
2. Construct a tiered filtration device using a plastic bottle and the selected materials.
3. Perform the filtration test, measuring the time it takes for water to pass through and the clarity of the resulting liquid.
4. Document the results in a scientific log, explaining the 'Science of Survival' behind each layer of the filter.
Final Product
What students will submit as the final product of the activityA 'Filtration Lab Report' that includes a diagram of their prototype, a log of the materials used, and a 'Transparency Test' result comparing the before and after states of their water sample.Alignment
How this activity aligns with the learning objectives & standardsTEKS SCI 6.1.A: Plans and safely conducts classroom investigations. TEKS SCI 6.11.B: Describe the impact of conservation of resources such as water. This aligns by having students investigate the science of filtration as a means of conservation and survival.Activity 3
The Scarcity Scorecard: Tracking the Flow
To provide the 'Data' portion of the exhibit, students must quantify the crisis. They will track their own water usage for 24 hours (gallons used for showering, brushing teeth, etc.) and then use unit rates and proportions to compare their usage to a person living in a water-scarce region. They will convert these measurements into various units (liters vs. gallons) to ensure the exhibit is accessible to a global audience.Steps
Here is some basic scaffolding to help students complete the activity.1. Use a water-tracking log to record personal usage over a 24-hour period (estimated based on average flow rates provided by the teacher).
2. Convert your total usage from gallons to liters using the appropriate conversion factor (1 gallon ≈ 3.78 liters).
3. Calculate the ratio of your daily usage compared to the average 5-liter daily limit in extreme scarcity zones.
4. Create a visual representation (graph or chart) for the exhibit that illustrates this ratio for museum visitors.
Final Product
What students will submit as the final product of the activityAn 'Impact Infographic' that uses ratios and unit rates to show the disparity between 'Modern Consumption' and 'Global Scarcity.'Alignment
How this activity aligns with the learning objectives & standardsTEKS MATH 6.4.H: Convert units within a measurement system, including the use of proportions and unit rates. This aligns by requiring students to calculate individual water use and convert it into global scale comparisons.Activity 4
The Curator’s Voice: Storytelling for Change
Students will now synthesize their historical research, scientific findings, and math data into the 'Exhibit Narrative.' They will write the persuasive text that will appear on the museum walls. Using the 'Point of View' of a curator from 2124, they must write a compelling argument that explains why clean water was the most valuable 'relic' of the past and why it must be protected now.Steps
Here is some basic scaffolding to help students complete the activity.1. Review your findings from the History, Science, and Math activities. Identify the 'Key Message' of your exhibit.
2. Draft a 'Call to Action' that uses persuasive language to tell the audience exactly how they can conserve water today.
3. Incorporate 'Future Perspective': Write from the viewpoint of someone in 2124 looking back at the 2020s. How does this shift in perspective change the urgency of the message?
4. Peer-edit the script to ensure it synthesizes at least one fact from each subject area (history, science, and math).
Final Product
What students will submit as the final product of the activityA 'Curator’s Script' for an audio guide or a series of 'Exhibition Panels' that combine history, science, and math into a persuasive story.Alignment
How this activity aligns with the learning objectives & standardsTEKS ELA 6.12.B: Synthesize information from a variety of sources. TEKS ELA 6.10.E: Analyze the use of literary devices (point of view) to influence the reader. This aligns by having students take the 'Future Curator' point of view to persuade the modern audience.Activity 5
The Blueprint of Innovation: Designing the Gallery
The final step is the physical or digital design of the museum floor plan. Students must use geometry to ensure the exhibit fits within a specified 'Gallery Space.' They will calculate the area of the floor for walking paths and the volume of the display cases (rectangular prisms) needed to hold their 'Future Relics' and filtration prototypes.Steps
Here is some basic scaffolding to help students complete the activity.1. Define the total dimensions of your 'Gallery Room' (e.g., a 20ft x 20ft space).
2. Determine the area needed for 'Visitor Flow' (walking paths) versus 'Exhibit Stations' (displays).
3. Design three-dimensional display cases for the 'Future Relics' and calculate the volume of each case to ensure the items fit.
4. Draw the final floor plan to scale, labeling each section with its calculated area and purpose.
Final Product
What students will submit as the final product of the activityA 'Scale Blueprint' of the exhibit space, including a legend and a set of 'Space Calculations' showing the area and volume of all major components.Alignment
How this activity aligns with the learning objectives & standardsTEKS MATH 6.8.D: Determine solutions for problems involving the area of rectangles and volume of right rectangular prisms. This aligns by requiring students to calculate the physical space requirements for their museum exhibit.🏆
Rubric & Reflection
Portfolio Rubric
Grading criteria for assessing the overall project portfolioThe Great Water Shift: Interdisciplinary Curator Portfolio Rubric
Category 1
Historical Foundations & Geography
Evaluates the student's ability to map ancient civilizations and explain the historical correlation between water access and societal development.Criterion 1
Geographic & Historical Analysis
Identify and explain geographic factors (specifically water) responsible for the location of historical economic activities and settlement patterns. (TEKS SS 6.3.A, 6.4.B)
Exemplary
4 PointsProvides a sophisticated analysis of three civilizations, identifying complex geographic and economic links; Curator’s Note offers profound insights into human adaptation patterns.
Proficient
3 PointsAccurately identifies water sources for three civilizations and explains how they enabled trade or agriculture; Curator’s Note clearly explains settlement patterns.
Developing
2 PointsIdentifies water sources for civilizations but offers limited or inconsistent explanations of the economic benefits or geographic factors.
Beginning
1 PointsIdentifies fewer than three civilizations or water sources; Curator's Note is incomplete or fails to explain the pattern of settlement.
Category 2
Scientific Inquiry & Innovation
Assesses the scientific investigation of water quality and the engineering of a filtration prototype.Criterion 1
Engineering Design & Scientific Log
Design, test, and document a tiered filtration device, explaining the scientific properties of materials used to improve water quality. (TEKS SCI 6.1.A, 6.11.B)
Exemplary
4 PointsInnovative filter design with exceptional documentation; scientific log provides a deep explanation of how specific material properties impact conservation and survival.
Proficient
3 PointsSuccessfully constructs and tests a filter; lab report includes a clear diagram, material log, and accurate transparency results.
Developing
2 PointsFilter is constructed but testing or documentation is incomplete; scientific explanation of the 'Science of Survival' lacks detail.
Beginning
1 PointsFilter design is non-functional or missing; lab report lacks required scientific observations or diagrams.
Category 3
Quantitative Reasoning & Scarcity Data
Measures the ability to quantify the water crisis using ratios, rates, unit conversions, and data visualization.Criterion 1
Data Analysis & Unit Conversion
Accurately convert units (gallons to liters) and calculate ratios to represent the disparity between individual use and global scarcity. (TEKS MATH 6.4.H)
Exemplary
4 PointsCalculations are flawless and presented through a highly impactful infographic that provides deep context for global water disparity.
Proficient
3 PointsCorrectly converts gallons to liters and calculates usage ratios; infographic clearly illustrates the difference between consumption and scarcity.
Developing
2 PointsCalculations contain minor errors; infographic is present but may not clearly communicate the ratio or the scale of the crisis.
Beginning
1 PointsConversions or ratios are incorrect or missing; data representation is unclear or fails to use required units.
Category 4
Exhibit Engineering & Geometry
Evaluates the application of geometric principles and scale modeling in the design of the physical exhibit space.Criterion 1
Spatial Design & Geometry
Apply area and volume formulas to design a scale floor plan for the museum exhibit. (TEKS MATH 6.8.D)
Exemplary
4 PointsScale blueprint is professionally executed with precise calculations for area and volume; maximizes visitor flow through innovative spatial design.
Proficient
3 PointsScale blueprint accurately depicts the gallery space; includes correct calculations for the area of paths and volume of display cases.
Developing
2 PointsBlueprint is mostly to scale, but contains errors in area or volume calculations; layout lacks clear distinction between paths and stations.
Beginning
1 PointsBlueprint is not to scale or lacks required calculations; floor plan is incomplete or unorganized.
Category 5
Curatorial Voice & Communication
Assesses the student's ability to weave together diverse data points into a compelling, professional museum narrative.Criterion 1
Synthesis & Persuasive Storytelling
Synthesize information from history, science, and math to create a persuasive narrative from a specific point of view. (TEKS ELA 6.10.E, 6.12.B)
Exemplary
4 PointsCurator’s script is masterfully synthesized; uses the '2124' POV to create an emotionally resonant and data-backed call to action.
Proficient
3 PointsEffective synthesis of history, science, and math facts; narrative uses the curator’s POV to clearly persuade the audience toward conservation.
Developing
2 PointsIncludes information from multiple subjects, but synthesis is weak; persuasive message or point of view is inconsistent.
Beginning
1 PointsFails to synthesize subject areas; script lacks a clear persuasive argument or fails to adopt the required curator persona.
Reflection Prompts
End-of-project reflection questions to get students to think about their learningQuestion 1
Looking back at your exhibit, which connection between the four subjects (history, science, math, and ELA) was the most surprising or powerful to you?
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Question 2
After researching the global water crisis and tracking your own consumption, how much has your perspective on your daily water usage changed?
Scale
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Question 3
As a curator, which part of the design process was the most challenging to balance between being 'educational' and 'engaging' for visitors?
Multiple choice
Required
Options
Optimizing the filtration layers in the 'Survival by Design' lab
Calculating the geometric scale and flow for the 'Blueprint of Innovation'
Synthesizing data into a persuasive narrative for 'The Curator’s Voice'
Mapping the economic impact of water on ancient civilizations
Question 4
How did taking on a future persona influence the way you chose to present modern objects (like Brita filters or plastic bottles) to your community?
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Required