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Future Lab: The Science of How Things Work

June 8th  - July 31th, 2026
8:30 AM - 4:30 PM; Extended Care: 4:30 PM-6:00 PM
Grades TK - G8
Capm Site: Berkeley Academy
                      43475 Ellsworth Street, Fremont CA

An 8-Week Exploration in Chemistry, Energy & Engineering
 

From kitchen chemistry to clean energy systems, from materials science to
engineering innovation — students don’t just learn science.
They investigate how the world works — and design what comes next.

Why FutureLab?

🌱 TK–K 

At FutureLab, children explore how things work through hands-on discovery.

They:

• Observe exciting reactions
• Build simple models
• Test what happens when they change something
• Share their ideas with confidence

This is playful, guided STEM designed to nurture curiosity and problem-solving.

Aligned with:
✔ Careful observation
✔ Cause-and-effect thinking
✔ Early design skills
✔ Confidence in expressing ideas

🌿 Grades 1–2 

At FutureLab, students begin thinking like young scientists and builders.

They:

• Conduct guided experiments
• Compare results
• Build and improve simple designs
• Explain what they learned

This is structured, hands-on STEM designed to build foundational reasoning skills.

Aligned with:
✔ Fair testing
✔ Beginning data recording
✔ Design-and-improve cycle
✔ Logical thinking

🌳 Grades 3–5 

At FutureLab, students move beyond worksheets and into applied experimentation.

They:

• Conduct controlled experiments
• Design functional prototypes
• Test, measure, and refine
• Present evidence-based conclusions

This is inquiry-driven STEM that builds analytical confidence.

Aligned with:
✔ Scientific method
✔ Engineering design process
✔ Data analysis
✔ Critical reasoning

🌲 Grades 6–8 

At FutureLab, students engage in structured applied engineering and scientific analysis.

They:

• Design controlled experiments
• Conduct quantitative testing
• Evaluate system performance
• Defend design decisions using data

This is rigorous, inquiry-driven STEM aligned with pre-engineering and research pathways.

Aligned with:
✔ Experimental design refinement
✔ Engineering trade-off analysis
✔ Systems modeling
✔ Structured scientific argumentation

 

 

WHAT MAKES FUTURELAB DIFFERENT?

🌱 TK–K

✔ Small, supportive learning groups
✔ Real materials children can explore safely
✔ Guided discovery through hands-on building
✔ Time to observe, test, and share ideas

This is not passive learning.
This is curiosity in action.

🌿 Grades 1–2

✔ Small group cohorts
✔ Real materials — not just demonstrations
✔ Structured experiments and simple design challenges
✔ Guided reflection and explanation

This is not passive learning.
This is learning by doing.

🌳 Grades 3–5

✔ Small lab cohorts
✔ Real materials — not toy science
✔ Engineering + inquiry approach
✔ Data recording & structured reflection
✔ Iteration and improvement cycles

This is not passive learning.
This is applied STEM.

🌲 Grades 6–8

✔ Small, high-focus cohorts
✔ Real laboratory materials
✔ Engineering + research-based inquiry
✔ Formal documentation & data analysis
✔ AI as a structured thinking mirror (Advanced Track)

This is not passive learning.
This is applied science and pre-engineering training.

FutureLab operates in four structured 2-week laboratory sessions across Summer 2026. Students may enroll in individual sessions or progress through the full 8-week engineering pathway.

All sessions are differentiated by grade band (TK–K, G1–2, G3–5, G6–8) to ensure academic rigor and developmental alignment.

Camp Session Dates; Monday - Friday

  • Session 1: 6/8 - 19

  • Session 2: 6/22 - 7/3

  • Session 3: 7/6 - 17

  • Session 4: 7/20 - 31

Camp Hours: 8:30 - 4:30 pm,

Extended Care: 4:30 - 6:00

Camp Grade: TK - G8

Fee:

  • Full Day Camp: $1,200/session (Camp Shirt, Field Trip, Snack, Lunch, and PM Snack included);  

  • Half Day Camp:  $600/session (AM/PM)

  • Field Trip: $100 per trip (for Half day campers only)

Discount: 

  • $100/50 session off (full/half day): sign up before April 1, 2025

  • $50/20 session off (full/half day): sign up before May 15, 2025

  • $50/session off (full day only):sign up 1+ sessions

  • $50 registration fee will be credited to Afterschool students (new and existing)

        

Program Highlights

Session 1: 6/8 - 19

Chemistry in the Kitchen

Students explore reactions, acids & bases, emulsions, and food chemistry.

🌱 TK–K

Exploratory Chemistry

Focus: Observation & Sensory Discovery

Students will:
• Observe visible reactions (color change, bubbling, mixing)
• Explore acids and bases using safe food materials
• Compare textures and states (solid, liquid)
• Practice careful observation language

Skills Developed:
• Descriptive vocabulary
• Cause-and-effect recognition
• Early hypothesis thinking (“What do you think will happen?”)
• Safe lab behavior routines

No formal data tables — emphasis is guided discovery.

🌿 Grades 1–2

Guided Investigation

Focus: Beginning Experimental Structure

Students will:
• Test simple pH differences
• Compare reaction speed (temperature or surface area changes)
• Measure using basic tools (graduated cups, timers)
• Record results with structured templates

Skills Developed:
• Controlled comparison (change one variable)
• Beginning data recording
• Pattern recognition
• Clear conclusion statements

Students begin understanding fairness in testing.

🌳 Grades 3–5

Structured Experimentation

Focus: Data & Variable Control

Students will:
• Conduct Vitamin C comparison tests
• Design experiments with independent & dependent variables
• Measure reaction rates quantitatively
• Use basic graphs to represent results

Skills Developed:
• Variable identification
• Data tables & bar graphs
• Basic error discussion
• Experimental refinement

Students begin defending conclusions with evidence.

🌲 Grades 6–8

Quantitative Chemical Analysis

Focus: Precision & Scientific Reasoning

Students will:
• Conduct controlled titration-style analysis
• Calculate concentration comparisons
• Analyze reaction rate trends
• Discuss experimental error & reliability
• Refine experimental design for accuracy

Skills Developed:
• Lab protocol & documentation
• Data validity & reliability evaluation
• Multi-variable analysis
• Structured scientific argumentation

Students maintain engineering-style lab notebooks and justify conclusions with data.


Session 2: 6/22 - 7/3

Electrifying Tomorrow: Clean Energy Design

Students investigate circuits, renewable energy systems, and power storage.

🌱 TK–K

Discovering Energy & Light

Focus: What makes things light up and move?

Students will:
• Explore simple closed circuits (battery + bulb)
• Identify energy sources (sun, wind, batteries)
• Observe cause and effect (switch on/off)
• Compare bright vs dim connections

Hands-On Projects:
• Light-up card
• Simple paper circuit
• Sun-warmth vs shade exploration

Skills Developed:
• Cause & effect reasoning
• Safe material handling
• Early systems thinking (“What connects to what?”)
• Observation language

No abstract theory — focus on visible effects.

🌿 Grades 1–2

Building Basic Energy Systems

Focus: Simple circuit structure & renewable sources

Students will:
• Build series vs simple circuits
• Identify conductors vs insulators
• Explore solar energy basics
• Test how different setups affect brightness

Projects:
• Mini solar car demo
• Conductivity testing lab
• Wind-blade exploration

Skills Developed:
• Beginning systems mapping
• Variable comparison
• Recording observations
• Simple problem solving

Students begin asking: “How can we make it work better?”

🌳 Grades 3–5

Renewable Energy Engineering

Focus: Efficiency & Energy Transfer

Students will:
• Build series and parallel circuits
• Measure voltage differences
• Compare renewable energy models (solar vs wind)
• Explore energy storage limitations

Projects:
• Solar-powered prototype
• Wind blade optimization challenge
• Insulation & heat retention test

Skills Developed:
• Data recording
• Efficiency comparison
• Trade-off discussion
• Engineering redesign cycle

Students begin evaluating performance.

🌲 Grades 6–8

Energy Systems Modeling & Optimization

Focus: System Efficiency & Engineering Trade-offs

Students will:
• Model renewable energy systems
• Analyze energy transfer & storage constraints
• Evaluate battery efficiency & load capacity
• Design optimized clean energy prototypes
• Compare cost vs sustainability trade-offs

Projects:
• Solar array angle optimization experiment
• Wind turbine blade efficiency testing
• Power storage capacity comparison
• Energy redesign challenge

Skills Developed:
• Data graphing & trend analysis
• Systems modeling
• Multi-variable comparison
• Engineering trade-off reasoning
• Structured design justification

Students must defend design decisions with data.


Session 3: 7/6 - 17

Earth Lab: Nature as Engineer

Understanding how natural systems inspire material strength, flexibility, insulation, and conductivity.

🌱 TK–K

Exploring Natural Materials

Focus: Touch, compare, observe

Students will:
• Compare hard vs soft materials
• Test what bends and what breaks
• Explore waterproof vs absorbent items
• Observe how animals and plants protect themselves

Hands-On:
• Leaf water test
• Rock vs sponge absorption
• Build a “strong house” from natural materials

Skills Developed:
• Descriptive vocabulary
• Early classification (strong / weak / bendy)
• Cause & effect observation
• Curiosity about nature’s design

No formal measurement — sensory exploration and guided questioning.

🌿 Grades 1–2

Nature-Inspired Design

Focus: Comparing material properties

Students will:
• Test absorbency rates
• Compare flexibility of materials
• Explore insulation (heat retention test)
• Identify natural design examples (shells, spider webs, bark)

Projects:
• Waterproof challenge
• Mini bridge strength comparison
• Animal shelter design

Skills Developed:
• Controlled comparison
• Beginning measurement
• Recording results
• Early biomimicry thinking

Students begin asking: “Why is this stronger?”

🌳 Grades 3–5

Materials Testing & Structural Design

Focus: Measuring strength & performance

Students will:
• Conduct tensile and compression tests
• Compare insulation performance
• Test conductivity (basic circuit integration)
• Analyze structural stability

Projects:
• Bridge strength challenge
• Heat-resistant container test
• Shock-absorption engineering

Skills Developed:
• Data tables
• Graphing comparisons
• Failure point analysis
• Iterative redesign

Students defend which material performs best — and why.

🌲 Grades 6–8

Applied Materials Science & Systems Engineering

Focus: Quantitative testing & design refinement

Students will:
• Conduct controlled stress tests (tension/compression)
• Measure load capacity & failure thresholds
• Analyze thermal insulation performance
• Evaluate conductivity differences
• Apply biomimicry principles to prototype design

Advanced Projects:
• Structural load challenge with weight measurements
• Multi-layer insulation efficiency comparison
• Conductivity optimization experiment
• Nature-inspired structural redesign

Skills Developed:
• Multi-variable analysis
• Quantitative graphing
• Trade-off reasoning (strength vs weight, cost vs durability)
• Engineering documentation
• Prototype iteration based on measured data

Students must justify design decisions with quantitative evidence.

.
Session 4: 7/20 - 31

🚀 Innovation Studio: Design the Future

Students integrate chemistry, energy systems, and materials science into a final engineering challenge.

🌱 TK–K

Invent, Build, Share

Focus: Guided invention & creative problem solving

Students will:
• Identify a simple problem (toy storage, shade, light, water)
• Build with structured materials
• Test “Does it work?”
• Share their idea with peers

Projects:
• Light-up model house
• Waterproof shelter
• Mini energy-powered structure

Skills Developed:
• Early design thinking
• Cause & effect reasoning
• Problem → Solution mindset
• Confidence in presenting ideas

Presentation Format:
Show-and-tell style with teacher-guided explanation.

🌿 Grades 1–2

Design & Improve

Focus: Guided engineering cycle

Students will:
• Define a problem with criteria
• Build a prototype
• Test performance
• Improve based on feedback

Projects:
• Solar-powered mini build
• Strongest bridge redesign
• Water filtration model

Skills Developed:
• Beginning design cycle
• Data-informed improvement
• Clear explanation of choices

Presentation Format:
Simple poster + demonstration.

🌳 Grades 3–5

Engineering Challenge Studio

Focus: Structured design process

Students will:
• Define constraints & criteria
• Select appropriate materials
• Apply energy systems knowledge
• Test efficiency & durability
• Redesign based on measured data

Projects:
• Sustainable mini-city
• Energy-efficient home model
• Multi-material structural design

Skills Developed:
• Systems integration
• Trade-off reasoning
• Data-driven redesign
• Team collaboration

Presentation Format:
Formal board + data table + prototype demo.

🌲 Grades 6–8

Applied Innovation & Engineering Defense

Focus: Independent engineering project

Students will:

1️⃣ Identify a real-world problem
2️⃣ Conduct background research
3️⃣ Define constraints (cost, materials, efficiency)
4️⃣ Design & prototype
5️⃣ Collect quantitative performance data
6️⃣ Analyze results & refine
7️⃣ Present at the FutureLab Innovation Summit

Project Examples:
• Micro renewable energy system for small community
• Sustainable food storage system
• Heat-efficient shelter design
• Shock-resistant structural system

Skills Developed:
• Integrated systems thinking
• Multi-variable analysis
• Trade-off evaluation
• Engineering documentation
• Structured presentation defense

Students must justify:
Why this design?
Why these materials?
What does the data show?
What would you improve next?

Design-thinking-for-Students_edited_edited.jpg

It is a problem-solving method where kids, like little designers, listen to peoples's needs, brainstorm ideas, create models, and test them to find the best solution.

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Lego Robotics/Sphero

Our camp cultivates curiosity and passion, laying the groundwork for future learning and exploration, using Lego Robotics & Sphero activities to early exposure to STEM concepts can spark inspiration for future careers.

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It's a kid-friendly power tool for young makers which is great for kids for building creative projects and  ideal for making models, structures, and prototypes. It helps kids explore engineerint ane hands-on problem-solving.

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Math Kangaroo/Reading

It is an internation math competition. It focuses on logical reasoning, problem-solving, and creative thinking rather than just standard math skills. We focus on fun, engaging word problems that requires critical thinking. 

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Strawbees™

It's a hands-on building system that uses colorful flexible plastic straws & connectors to create structures, designs, and models. It encourages creativity, problem-solving, and STEM skills through interactive play.

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Field Trip is always a highlight of the camp. On the 2nd Friday of the camp, students will go on a field trip to a local museum, such as the California Academy of Sciences, or the San Francisco Exploratorium,..

Daily Schedules

Below is a sample schedule for what students will experience on the day-to-day at camp

AM Time

Activity

9:00AM - 12:00PM

  • TeamBuilding Activities

  • Core STEM Activity 

  • Math Kangaroo Problem-Solving & Critical Thinking Challenges

PM Time

1:00PM - 4:00PM 

  • Reading & STEM Story Discussion

  • Creative Design & Maker Projects

  • Reflection, Group Sharing, & Cleanup

Extended Care

Activity

4:30PM - 6:00PM

  • Art for Kids

Food

10:30 - 10:45

12:00 - 1:00

4:00 - 4:30

AM Snack

Lunch

PM Snack

Gallery

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