Soap Bubble
Soap Bubble
To successfully apply the principles of surface tension and film stability to create a durable, layered structure of soap film.
Project introduction
The Soap Bubble Project is an exploration into the physical and mathematical principles that govern the formation, stability, and geometry of soap films and bubbles. Investigating surface tension, the cohesive forces within the liquid that minimize surface area, leading to the spherical shape of bubbles. Demonstrating minimal surfaces and the principles of fluid dynamics. To understand how factors like soap concentration, environmental humidity, and applied force affect bubble lifespan and structure.
Sustainable Polymer Formation from Milk Proteins and Eggshell

Sustainable Polymer Formation from Milk Proteins and Eggshell
Objective of the Project:
To explore an environmentally friendly method for producing biodegradable polymers using casein from milk and calcium carbonate from eggshells. This project highlights how natural waste materials can be transformed into sustainable alternatives to conventional plastics.
Project Introduction:
This project investigates the creation of a biodegradable polymer by combining milk-derived casein with finely powdered eggshells. Casein acts as a natural biopolymer, while calcium carbonate adds strength and rigidity. Through heating, acid precipitation, filtration, and molding, a solid bioplastic is formed that decomposes faster than petroleum-based plastics.
Biodiesel from Reused Cooking Oil
Objective of the Project:
To demonstrate a sustainable method for converting used cooking oil into biodiesel, showing its potential as a renewable energy source that reduces dependency on fossil fuels.
Project Introduction:
This project outlines the transesterification process, where used cooking oil reacts with alcohol and a catalyst to produce biodiesel. The biodiesel is then separated from glycerin, showing a real-world example of renewable fuel production and sustainable energy solutions.
Wireless transmission of electrical energy
Objective of the project:
1. To demonstrate how electrical power can be transmitted wirelessly using electromagnetic induction or resonance.
2. To explore practical applications of wireless power transmission in modern technology.
3. To show how wireless energy transfer can reduce wire dependency and increase convenience in everyday devices
Project Introduction:
Wireless transmission of electrical energy is a modern technology that allows electricity to travel without physical wires. The concept was first proposed by Nikola Tesla, who experimented with transferring power through the air using electromagnetic fields. Today, the same principles are used in wireless chargers, electric toothbrushes, and even electric vehicle charging pads.
ELECTROLYTE CHALLENGE

Objective of the Project:
To compare the electrolyte levels of different liquids and demonstrate how electrical conductivity helps identify the strength of electrolytes. The goal is to help students understand why electrolytes are important for the human body and how different drinks vary in ionic content.
Project Introduction:
The Electrolyte Challenge uses a simple conductivity-testing setup with a multimeter to measure how well different liquids—such as ORS, sports drinks, and saltwater—conduct electricity. Liquids with high electrolyte content allow electricity to pass easily, causing brighter LED glow or higher readings. Those with fewer ions show weaker conductivity. This experiment helps explain the role of electrolytes in hydration, muscle movement, and nerve functioning. It is a hands-on, engaging project that makes chemistry and health science accessible to all students.
MARBLE RUN – ENERGY & MOTION

Objective of the Project:
To demonstrate how gravitational potential energy transforms into kinetic energy as a marble travels through a track, while showing the effects of gravity, friction, and momentum on motion. The project aims to make physics concepts easy to visualize through an interactive model.
Project Introduction:
The Marble Run project uses a slope-based track to show how a marble gains gravitational potential energy (GPE) when placed at a height. As the marble is released, gravity pulls it downward, converting GPE into kinetic energy (motion). The marble slows down or speeds up depending on friction between the track and the marble, while momentum helps it move through loops, curves, and obstacles. By designing tracks with varying heights, angles, and surfaces, students can explore real physics principles in a fun and hands-on way. This project clearly demonstrates how everyday motion is influenced by energy transfer and forces.
HEMODIALYSIS DIY MODEL

Objective of the Project:
To demonstrate how a hemodialysis system filters waste materials from blood using a safe, simplified model. The project aims to help viewers understand the importance of dialysis in kidney failure and how diffusion and selective filtration work in real machines.
Project Introduction:
This DIY Hemodialysis model simulates the function of an artificial kidney using simple materials such as colored water (representing blood), a pump, and a semi-permeable tube. The setup shows how waste particles can be removed from “blood” through diffusion, similar to how real dialysis machines clean the blood of kidney patients. By running the colored water through the tube and transferring impurities to the surrounding clean water, the model visually explains the concepts of diffusion, filtration, and circulation in an easy and safe way. This project helps students understand human physiology while also showcasing the engineering behind life-saving medical devices
Bunny Lego

To master the technical process of translating a complex organic form into a large, structurally sound, three-dimensional sculpture using LEGO bricks, specifically focusing on digital modeling and internal structural engineering for monumental stability.
Spin the wheel: Material Test Challenge
Objective of the project:
- To identify material properties
- To classify objects by properties.
- To explain why materials behave differently.
Project introduction:
Spin the Wheel: Material Test Challenge is an interactive, hands-on activity designed to help students explore and understand the properties of everyday materials. Players take turns spinning a wheel labeled with properties such as magnetic, waterproof, and flexible, then search through a mystery box to find an object that matches the property they landed on. Using real items like paper, a metal clip, rubber bands, cloth, foil, and plastic, players must explain why their chosen object fits the property before earning points. Through this fast-paced challenge, students practice identifying and classifying materials, discover why different materials behave the way they do, and make connections to how these properties influence the design of tools and products we use in daily life.hs describing your product or services. To be successful your content needs to be useful to your readers.
Groups of Animals
Objective of the Project:
- To classify animals based on their special features and characteristics.
- To help students recall and apply their knowledge about animal groups in a creative and interactive way.
To encourage teamwork and communication as students present and explain each group.
Project Introduction:
Animals come in many shapes, sizes, and forms, but each one belongs to a special group based on its unique features. Understanding these animal groups helps us learn how living things survive, adapt, and stay connected in nature.
This project presents a rotating model with six animal groups. As the model turns, each section highlights the special characteristics of the group and shows examples of animals that belong to it.
By exploring these groups, visitors can discover how animals are alike, how they are different, and why every creature plays an important role in the world we share.
Types of Motion
Objective of the Project:
Explain the meaning of motion.
-Identify different types of motion — linear, circular, and periodic.
-Describe how each type of motion works.
-Give real-life examples of each type of motion.
Project Introduction:
Objects move in different ways depending on the type of motion. In linear motion, an object moves in a straight line from one place to another, like a car on a road. In circular motion, an object moves around a fixed point in a circle, such as the blades of a fan. In periodic motion, an object moves back and forth repeatedly along the same path, like a swing or a pendulum. These motions help us understand how things move in our daily lives.
Water Purifier
Objective of the Project:
To explore how different materials (such as sand, charcoal, cotton, and gravel) can be used to filter dirty water.
Project Introduction:
A water purifier cleans dirty water by removing dirt, sand, and harmful particles so that the water becomes clearer and safer to use. The water purifier works by passing dirty water through layers of gravel, sand, cotton, and charcoal. Each layer removes different types of impurities, making the water cleaner and clearer. We can use and see water purifiers in
- Home Water Filters,
- Disaster Relief and Emergencies,
- Camping and Outdoor Activities,
- Water Treatment Plants
The Continents’ Name Buzzer
Objective of the Project:
To learn how to connect a light bulb and a buzzer in a circuit.
To explore how electrical energy can produce light and sound.
Project Introduction:
The buzzer with light bulbs works by allowing electricity to flow through one path. As current passes through, electrical energy is converted into light, making the bulb glow. The buzzer converts electrical energy into mechanical vibrations, which we hear as sound.
Brainworks-Taunggyi School is hosting its 22nd Annual Science, STEAM, ICT, and Math Fair, an engaging and educational event that showcases the enthusiasm and creativity of students in these diverse fields. This exciting platform brings together projects that highlight innovation across Science, Technology, Engineering, Arts, and Mathematics, as well as cutting-edge developments in AI and robotics.
The Science, STEAM, ICT, and Math Fair 2025 celebrates the wonders of scientific discovery, technological advancement, and creativity.
This year, a special focus will be placed on AI projects, showcasing the transformative role of artificial intelligence in fields such as robotics, machine learning, and data science. Students will demonstrate AI-driven innovations, from autonomous robots to AI-powered vision systems, offering a glimpse into the future of technology.
Through these projects, students will not only hone their scientific and critical thinking skills but also explore how AI can help solve 21st-century sustainability challenges. The fair fosters global collaboration and encourages students to take on the responsibilities of shaping a future driven by technology and innovation.
