Guidebook - Level A

Teacher Guide - Early Mechanics Level A Copyright © 2026 Author: Rebecca McDowell Editors: Lindsey Own and Kaylyn Lee ISBN: 978-981-17736-3-1 Published by: SKOOL21 PTE. LTD. 71 Robinson Road, #14-01, 068895, Singapore First Edition published by SKOOL21 PTE LTD - Singapore, 2024 Second Edition published by SKOOL21 LLC - United States, 2026 No part of this book may be reproduced, distributed, or transmitted in any form or by any means, including photocopying, recording, or other electronic or mechanical methods, without the prior written permission of the publisher, except in the case of brief quotations embodied in critical reviews and certain other non-commercial uses permitted by copyright law.

For permissions or inquiries, please contact: Email: info@skool21.org Website: https://skool21.org Address: 600 California St, #13-021, San Francisco, CA 94108, United States

02

Table of Contents S. NO

CONTENT

PAGE NO.

1

PREFACE

04

2

INTRODUCTION TO THE KIT

05

3

LESSON STRUCTURE

06

4

THE ENGINEERING DESIGN PROCESS

07

5

FOSTERING SOCIAL SKILLS

08

6

MAKERSPACE SETUP

09

7

STEM CLASSROOM MANAGEMENT

10

8

EFFECTIVE TEAMWORK

12

9

IMPLEMENTATION GUIDE

14

10

HYBRID APPROACH (BLENDING ALL MODELS)

17

11

STANDARD ALIGNMENT

18

12

CAMBRIDGE MATHEMATICS ALIGNMENT

20

13

SCHEME OF WORK

22

14

LESSON PLANS AND ANSWER KEY

25

15

ASSESSMENT GUIDE / CAPSTONE

90

03

Preface Welcome to the Future of Teaching and Learning!

Thank you for joining us on this exciting journey! The SKOOL21 STEM Innovators series is designed not only to ignite curiosity in students but also to empower teachers to lead meaningful, hands-on STEM learning experiences. Through this series, you will guide young innovators as they explore, design, and solve real-world challenges using science, technology, engineering, and mathematics (STEM).

Building on a Strong Foundation Each level of the SKOOL21 STEM series builds upon the previous one, creating a strong continuum of learning — from simple machines to advanced 3D modeling. Students travel through key technological eras, from the Industrial Revolution to the innovations shaping our future. No matter their starting point, every learner will discover new skills and deeper understanding along the way.

Learning by Doing At SKOOL21, we believe students learn best by doing. Each book comes with a comprehensive STEM kit, enabling students to build, test, and explore concepts through hands-on challenges. As a teacher, you will facilitate engaging projects where students actively create, problem-solve, and apply critical thinking skills — all while having fun.

Making a Real-World Impact

Every project is designed to connect learning to real-world issues, inspired by the Sustainable Development Goals (SDGs). Through these challenges, students see how their ideas can contribute to solving problems like clean water access, renewable energy, and environmental conservation — empowering them to envision a better world.

Teaching Like a Pro The SKOOL21 STEM program aligns with international standards and best practices, ensuring that both teachers and students are developing the collaboration, innovation, and design thinking skills valued in today’s world. You’re not just supporting schoolwork — you’re preparing the next generation of thinkers, leaders, and changemakers.

04

Introduction to the Kit STEM Builders Kit! Look inside your box.

There are many fun parts to use!

CAN YOU FIND THESE 1. The Big Builders Use these to make your machine strong.

Big

Small

Big

Small

Brick

Brick

Rod

Rod

x4

x4

x6

x6

2. The Spinners Use these to make things move.

Connector

Connector

Small

Big

Big

Small

Gears

Gears

x8

x8

x6

x4

Cube

Peg

3. The Rollers Use these to make things go.

Round

Half

Wheels

Circle

x4

x2

Rod x2

x1

4. The Fixers Use these to hold everything together.

Screw

Nail

Nut

Pegs

x6

x8

x6

x1

05

The Engineering Design Process The Engineering Design Process (EDP) is a systematic approach used by engineers and designers to solve problems and create innovative solutions. It provides a structured framework for developing new products, processes, or systems by following a series of well-defined steps. This process is not only applicable in engineering but is also widely used in various STEM disciplines to tackle challenges and develop creative solutions.

For students in first grade and above, the typical Engineering Design Process follows multiple iterative steps, including identifying a problem, researching, brainstorming, designing, prototyping, testing, and refining solutions. However, for Preschool and Kindergarten learners, this process has been adapted to three essential steps: Plan, Do, and Review. This simplified version ensures that young learners can engage with STEM concepts in a developmentally appropriate manner.

The table below illustrates how the three-step Pre-K and Kindergarten EDP aligns with the more complex engineering design process used in higher grades: Steps

PreK-K

Define the Problem Brainstorm Ideas

Plan

Design and Plan Build and Create Test and Evaluate

Do

Iterate and Improve Communicate and Share

Review

This structured approach encourages creativity, critical thinking, and iteration, forming a strong foundation for future STEM learning.

07

STEM Classroom Management STEM classes are hands-on, highly engaging, and often noisy—that’s a good thing! But without clear routines and structures, they can quickly become chaotic. A well-managed makerspace allows students to explore and innovate safely, responsibly, and collaboratively.

STEM Class Session Routine Set a clear and consistent structure to each session so students know what to expect and stay focused: 45-minute project ( Pre-K to Grade 2)

a C le

nU

Wa I n t rm - U ro d p uct / i o n 3

p

s min 3 – 2

–5 mi ns

Reflection 2–3 mins

Define the Problem 3–5 mins

Measure Your Success

Math & Science 3–5 mins

5 mins

Share & Improve

Getting Started

3–5 mins

Bui

5–7 mins

ld &

T es

15– 18 m ins

lle Cha

t

nge

s min 3–5

10

Effective Teamwork An important aspect of the social skills developed through STEM learning is effective teamwork. Teachers can support students in developing these skills through purposeful structuring of student teams so that they can practice effective teamwork.

Having an assigned role within a team gives each student specific responsibilities, so that there is no question of who should do what. Assigning roles ensures that no student takes too much control of the group, and no student removes themself from the group’s efforts.

Lessons are intended to be completed in groups of 3 or 4 students, and each lesson has a place to record who will perform each role for that lesson. Whether you assign groups and roles or allow students to self-select, ensure that students rotate roles regularly!

Team Roles The roles in levels 1-3 are basically the same, but with slightly simpler wording for younger students.

Leader

Ensures all team members are able to share their ideas and take turns building (not the “decision maker”)

Material Manager

Collects kits and materials, keeps track of materials during construction, responsible for disassembling and returning materials neatly

Reporter

Brings any questions to the teacher, coordinates project presentations

Testing Supervisor

Compares prototypes to design criteria, looks for missing criteria or for structural weaknesses that can be improved

Note that no one role has the full responsibility of building prototypes - all students in the group should be involved in building!

If your students are working in groups of 3, you might combine the Project Communicator / Reporter and Project Tester /Testing Supervisor roles.

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If your students are working in groups of 5 or more, you might consider the following additional roles: Documentarian - takes photos or makes sketches of each prototype along the way to be able to share the full story of how the group developed their solution idea Timekeeper - pays attention to how much time is available for each step of the project, and encourages the team to keep each step within its allotted time

Levels A and B do not have designated roles within the student workbooks. Ensure that your students are sharing materials and communicating with each other!

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Standards Alignment S. NO PROJECT 1

MAKE IT SPIN

2

MAKE IT ROLL

3

MAKE IT TALL

4

MAKE IT TEN

5

MAKE A PATTERN

6

MAKE A SHELTER

7

MAKE A GAME

CAMBRIDGE MATH Develop Mathematical Language -Recognise numbers from 1 to 10 -Recording numbers -Use everyday language of direction and distance to describe movements of objects or self.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 -Recording numbers -Name and sort commonly found at school or home - 2D shapes.

-Use everyday language of direction and distance to describe movements of objects or self.

Thinking and Working Mathematically Develop Mathematical Language -Name and sort commonly found at school or home - 3D shapes.

-Compare lengths or mass of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 -Name and sort commonly found at school or home - 3D shapes.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 -Use beads or counters to make repeating colour patterns Thinking and Working Mathematically Develop Mathematical Language -Name and sort commonly found at school or home - 2D shapes.

-Compare lengths or mass of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically

Develop Mathematical Language -Recognise numbers from 1 to 10 -Recording numbers -Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically

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S. NO PROJECT 8

MAKE A TOY

9

MAKE A MACHINE

10

MAKE A MODEL

11

MAKE A WRECKING BALL

12

MAKE A CITY

13

MAKE A ROBOT

14

MAKE A VEHICLE

15

MAKE A PLAYGROUND

CAPSTONE: MAKE A PARK

CAMBRIDGE MATH Develop Mathematical Language -Name and sort commonly found at school or home - 2D shapes -Use everyday language of direction and distance to describe movements of objects or self.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 Thinking and Working Mathematically Develop Mathematical Language -Compare lengths or mass of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically

Develop Mathematical Language -Name and sort commonly found at school or home - 3D shapes.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 -Name and sort commonly found at school or home - 2D shapes.

-Compare lengths or mass of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 Thinking and Working Mathematically Develop Mathematical Language -Use everyday language of direction and distance to describe movements of objects or self.

-Compare lengths or mass of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 -Name and sort commonly found at school or home - 2D shapes.

-Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically Develop Mathematical Language -Recognise numbers from 1 to 10 Thinking and Working Mathematically

19

Cambridge Mathematics Project #

Learning Objective

Project Name

Develop Mathematical Language

Recognise numbers from 1 to 10

Recording numbers

Use everyday language of direction and distance to describe movements of objects or self.

Name and sort commonly found at school or home - 2D shapes.

Use beads or counters to make repeating colour patterns

20

1

Make it spin

2

Make it roll

4

Make it ten

5

Make a pattern

7

Make a game

9

Make a machine

12

Make a city

13

Make a robot

15

Make a playground

Capstone

Make a Park

1

Make it spin

2

Make it roll

7

Make a game

1

Make it spin

2

Make it roll

8

Make a toy

14

Make a vehicle

2

Make it roll

6

Make a shelter

8

Make a toy

11

Make a wrecking ball

12

Make a city

15

Make a playground

5

Make a pattern

Compare lengths or mass of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

Represent and interpret data using pictorial representations or concrete materials.

Thinking and Working Mathematically

3

Make it tall

6

Make a shelter

10

Make a model

12

Make a city

14

Make a vehicle

3

Make it tall

4

Make it ten

6

Make a shelter

7

Make a game

8

Make a toy

10

Make a model

11

Make a wrecking ball

12

Make a city

14

Make a vehicle

15

Make a playground

1

Make it spin

2

Make it roll

3

Make it tall

4

Make it ten

5

Make a pattern

6

Make a shelter

7

Make a game

8

Make a toy

9

Make a machine

10

Make a model

11

Make a wrecking ball

12

Make a city

13

Make a robot

14

Make a vehicle

15

Make a playground

Capstone

21

Make a Park

Scheme of Work Session

Objectives

Materials

Related Science

Related Math

Vocabulary

Project 1: Make it Spin 1 (45mins)

Use math and engineering to build and describe an object that spins

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise Spin: To move in a circle numbers from 1 around a point or axis to 10.

Record numbers.

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise numbers from 1 to 10.

Record numbers.

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Name and sort Tall: having a greater than 3D shapes average height commonly found at school or home.

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise numbers from 1 to 10.

Name and sort 3D shapes commonly found at school or at home.

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise Pattern: A repeated numbers from 1 sequence that can be to 10. observed and predicted Use beads or counters to make repeating colour patterns.

Project 2: Make it Roll 2 (45mins)

Use math and engineering to build and describe an object that rolls

Roll: to move over oneself in a circle while moving along a surface, sometimes in a line

Project 3: Make it Tall 3 (45mins)

Use math and engineering to build and describe a tall object

Project 4: Make it Ten

4 (45mins)

Use math and engineering to build and describe an object with a set number of pieces

Ten: a natural number having one more than nine and one less than eleven

Project 5: Make a Pattern 5 (45mins)

Use math and engineering to make colour and shape patterns

22

Project 6: Make a Shelter 6 (45mins)

Use math and engineering to describe and build a shelter for a pet

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Name and sort commonly found 2D shapes at school or at home.

Shelter: A structure that provides protection and safety

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise Game: An activity or numbers from 1 structured form of play to 10.

Record numbers.

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Name and sort Toy: An object designed 2D shapes for play commonly found at school or home.

Project 7: Make a Game 7 (45mins)

Use math and engineering to describe and build a game

Project 8: Make a Toy 8 (45mins)

Use math and engineering to describe and build a toy

Project 9: Make a Machine 9 (45mins)

Use math and engineering to describe and build a machine

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise Machine: A tool designed numbers from 1 to perform a specific task to 10.

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Compare Model: A representation of lengths or mass the real thing of objects using words such as longer, shorter, taller, bigger, smaller, lighter, heavier, etc.

Project 10: Make a Model

10 (45mins)

Use math and engineering to describe and build a model

Project 11: Make a Wrecking Ball 11 (45mins)

Use math and engineering to describe and build a wrecking ball

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

23

Name and sort 3D shapes commonly found at school or home.

Wrecking Ball: A heavy, (usually) round metal ball used to knock down buildings

Project 12: Make a City

12 (45mins)

Use math and engineering to describe and build a city

Early Mechanics Kit whiteboard Pencils Art Supplies Projector STEM Books

Engineering Design

Recognise numbers from 1 to 10.

Name and sort 2D shapes commonly found at school or home.

City: A big place where many people live and work with many types of buildings

Project 13: Make a Robot 13 (45mins)

Use math and engineering to describe and build a robot

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise Robot: A machine that numbers from 1 can move or do tasks on to 10. its own or by following instructions

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Use everyday language of direction and distance to describe movements of objects or self.

Project 14: Make a Vehicle 14 (45mins)

Use math and engineering to describe and build a vehicle

Vehicle: A machine or object that moves people or things from one place to another

Project 15: Make a Playground 15 (45mins)

Use math and engineering to describe and build a playground

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

Recognise Playground: An area with numbers from 1 equipment for children to to 10. play on

Capstone Project: Make a Park

16 (90mins)

Use math and engineering to describe and build a Park

Early Mechanics Engineering Kit Design whiteboard Pencils Art Supplies Projector STEM Books

24

Recognise Park: An outdoor area with numbers from 1 paths, benches, and often to 10. playground equipment

Lesson Plans and Answer key

S. NO

STEM PROJECTS

PAGE NO.

1

MAKE IT SPIN

26

2

MAKE IT ROLL

30

3

MAKE IT TALL

34

4

MAKE IT TEN

38

5

MAKE A PATTERN

42

6

MAKE A SHELTER

46

7

MAKE A GAME

50

8

MAKE A TOY

54

9

MAKE A MACHINE

58

10

MAKE A MODEL

62

11

MAKE A WRECKING BALL

66

12

MAKE A CITY

70

13

MAKE A ROBOT

74

14

MAKE A VEHICLE

78

15

MAKE A PLAYGROUND

82

C

CAPSTONE PROJECT: MAKE A PARK

86

25

Project 1: Make it Spin Lesson Plan Duration: 30-45 minutes

Learning Objectives

At the end of the lesson, the learners will: Recognise numbers from 1 to 10.

Record numbers.

Use everyday language of direction and distance to describe movements of objects.

Materials

Early Mechanics Kit

whiteboard

Pencils

Art Supplies

Vocabulary

Meaning

Word Spin

To move in a circle around a point or axis

Preparation (Teacher To-Do Before Class) Prepare the materials for the class.

Set up a sample working for demonstration.

Learning Activities Plan 1. Prompt learners to describe each picture.

2. Then, direct learners to circle the objects that spin.

3. After learners make their choices, invite them to share their thinking and propose a definition for “spin.”.

After listening to their classmates, allow learners to change their responses.

4. Next, have learners circle the description that matches the movement of a spinning object.

26

Projector

STEM Books

5. Then, have learners draw another spinning object from their daily lives. Examples may include a merry-go-round, a bicycle tire, or a globe. Encourage learners to use arrows to show the movement of the object.

Draw a picture of an object spinning.

Do 1. Prompt learners to identify how they imagine the sample objects might spin. They may use the samples to familiarize themselves with the materials, but they should work towards building their own design.

2. Provide access to the kits and cleared-off building areas, which may be tabletops or the floor. learners should have the opportunity to work independently or in pairs, as materials are available.

3. Once learners have created their first spinning object, have them draw it. Engineers often make sketches of their prototypes or working designs to record the evolution of their ideas throughout the design process.

Draw the object you built.

27

Improve 1. Invite learners to take apart their first design and build a second spinning object. They may want to keep both designs, but this may limit other learners access to the same unique pieces. learners should draw their new objects and can compare and discuss the changes they made and why with a partner or as a class discussion.

Build another object that spins.

Review 1. Read the first question aloud. Then, have learners point to and say the name of each number. Ask learners to share why they think the word “more” is listed after the number. Have learners count the pieces on their second design and circle their answer.

2. Read the second question aloud—prompt learners to analyze their current design and evaluate how many of its pieces spin. Then, using the numbers in the first question as a guide, have learners write the numeral for their answer.

28

Review answers will vary depending on students’ spinning objects.

Answer key

Review answers will vary depending on students’ spinning objects.

Sample Solution

x2

x1

x1

x2

x1

x2

29

x4

x1

x2

Project 2: Make it Roll Lesson Plan Duration: 30-45 minutes

Learning Objectives

At the end of the lesson, the learners will: Recognise numbers from 1 to 10.

Record numbers.

Name and sort 2D shapes commonly found at school or home.

Use everyday language of direction and distance to describe movements of objects or self.

Materials

Early Mechanics Kit

whiteboard

Pencils

Art Supplies

Vocabulary

STEM Books

Meaning

Word Roll

Projector

to move over oneself in a circle while moving along a surface

Preparation (Teacher To-Do Before Class) Prepare the materials for the class.

Set up a sample working for demonstration.

Learning Activities Plan 1. Prompt learners to describe each picture.

2. Then, direct learners to circle the objects that roll.

3. After learners make their choices, invite them to share their thinking and propose a definition for “roll.”. After listening to their classmates, allow learners to change their responses.

4. Next, have learners circle the description that matches the movement of a rolling object.

Students may identify the marble as something that rolls, or they may decide to not mark it as the marble run itself does not roll.

30

5. Then, have learners draw another rolling object from their daily lives. Examples may include a child rolling down a hill, a ball rolling down a street, or a stroller. Encourage learners to use arrows to show the movement of the object.

Draw a picture of a rolling object.

Do 1. Prompt learners to identify how they imagine the sample objects might roll. They may use the samples to familiarize themselves with the materials, but they should work towards building their own design.

2. Provide access to the kits and cleared-off building areas, which may be tabletops or the floor. Learners can work independently or in pairs, as materials are available.

3. Once learners have created their first rolling object, have them draw it. Engineers often make sketches of their prototypes or working designs to record the evolution of their ideas throughout the design process.

Draw the object you built.

31

Improve 1. Invite learners to take apart their first design and build a second rolling object. They may want to keep both designs, but this may limit other learners' access to the same unique pieces. learners should draw their new objects and can compare and discuss the changes they made and why with a partner or as a class discussion.

Build another object that spins.

Review 1. Read the first question aloud. Then, have learners point to and say the name of each number. Ask learners to share why they think the word “more” is listed after the number. Have learners count the pieces on their second design and circle their answers.

2. Read the second question aloud. Prompt learners to analyze their current design and circle which shapes made it possible for their object to roll.

Review answers will vary depending on students’ rolling objects.

3. Read the third question aloud. Help learners interpret the first two arrows as moving towards the left or right and the second two arrows as moving up or down. Most objects will roll left or right depending on how they push the object, but if it falls off a table or down a ramp, it might also move down!

4. As an optional extension, you could help learners construct ramps to test and compare their rolling objects.

32

Answer key

Review answers will vary depending on students’ rolling objects.

Students may identify the marble as something that rolls, or they may decide to not mark it as the marble run itself does not roll.

Sample Solution

x1

x2

x1

x2

33

x1

x2

Assessment Guide At SKOOL21, assessments are a tool for learning and growth — not just grading.

From Pre-K to Grade 12, we use assessments to guide students in building skills, confidence, and a love of STEM learning. We focus on feedback, reflection, and continuous improvement to help every student reach their full potential.

Pre-Assessment (optional)

STEM Learning Process

Post-Assessment: Capstone Project

Students embark on the STEM Learning Journey, consisting of an Introductory Lesson followed by 15 hands-on STEM projects aligned with curriculum objectives.

Get a snapshot of students’ starting knowledge before onboarding in STEM.

Math & Science Connection

Self-Assessment Rubrics

Help students connect math and science concepts through real-world STEM challenges.

Encourage students to reflect, take ownership of their learning, and set personal goals.

Celebrate students' learning through realworld projects that apply key skills.

Pre-Assessment (optional) Pre-assessment can be formal (a short quiz) or informal (a discussion or activity) – SKOOL21 treats it as optional so teachers use it when it adds value. Done thoughtfully, pre-assessment honors Dewey’s idea that connecting to students’ prior experience boosts learning Teacher Tips: Keep it low-stakes: Thumbs-up/down polls.

Open-ended questions: Quick discussions.

Mini-quizzes: Short and simple.

KWL Charts: Capture what students know and want to learn.

Play-based observation: Especially for Pre-K/K

Math & Science Connection By assessing how students apply math skills in science activities (and vice versa), teachers can deepen understanding of both subjects. This underscores the real-world relevance of STEM learning and reinforces critical thinking.

Teacher Tips: Cross-link activities: Measure, graph, or calculate during science experiments.

Ask math questions in science: “How tall is your plant?”

Teamwork: Solve science problems with math in groups.

Use real tools: Rulers, scales, charts, simple coding tools.

Link to standards: Align with both math and science goals.

90

Self-Assessment Rubrics Self-assessment helps learners identify their strengths and areas to improve, reinforcing metacognition. Teachers play a guiding role in this process, helping students learn how to honestly and constructively judge their work.

Teacher Tips: Introduce rubrics early: Define "what success looks like."

Model reflection: Score sample work together.

Self and peer review: Students rate and discuss.

Ask reflective questions: “What was your biggest challenge?”

Celebrate honesty: Praise accurate self-assessment.

Self-reflect on your work on this project.

I can break down a problem.

I can develop a working prototype.

I can code my prototype to do what I want.

Post-Assessment: Capstone Project The capstone project designed as a culminating experience for students to demonstrate and share their learning with an authentic audience. The capstone can be considered and used as an assessment task, allowing students to synthesize knowledge and skills developed over the course of the 15-project STEM series.

Through the capstone project, students engage in a meaningful application of problemsolving, critical thinking, and engineering design principles. They are challenged to address real-world problems, showcasing their ability to integrate concepts across science, technology, engineering, and mathematics disciplines.

STEM Innovation Fair To celebrate student achievements, schools are encouraged to organize events such as a STEM Showcase, Innovation Fair, or Open House. These events provide an authentic platform for students to present their capstone projects to peers, educators, families, and community members.

Students articulate their design process, explain their decisions, and respond to feedback from an engaged and supportive audience.

Possible presentation formats include: Interactive demonstrations Poster sessions Digital portfolios Pitch presentations modeled after professional STEM conferences

STEM

Organizers may also invite industry experts, local businesses, or university partners to serve as panelists or mentors, further enhancing the real-world relevance of student projects. By celebrating student innovation in a public forum, these events reinforce the value of STEM education while fostering confidence, communication skills, and collaboration.

91