Module 1 Formstorming

Weekly Activity Template

Xinyu Lu

Project 1

Module 1

I designed and built both parallel and series circuits, starting with hand-drawn diagrams. I used materials like copper tape, batteries, LEDs, and pencil lead to create and test the circuits. All the circuits worked well, showing my designs and ideas were successful. This project allowed me to explore different materials and circuit types in a creative way.

Activity 1

I followed tutorial1 to sketch a simple circuit diagram with a battery and an LED. I made sure to clearly label the positive and negative terminals.

I followed tutorial1 to build this circuit using copper tape, a battery, and an LED. The purple light shows that my circuit works successfully.

I drew this rectangular circuit diagram as a guide. It includes a battery and an LED in a basic loop.

I used copper tape, a coin battery, and an LED to assemble this rectangular circuit. It matches my original diagram.

I pressed on the circuit to test the connection, and the LED lit up red.

I drew a simple circuit diagram using pencil lead as part of the circuit. It includes a battery and a light to demonstrate conductivity.

I constructed the circuit following my drawing. I used copper tape, a coin battery, and pencil lead to connect the components.

I pressed the components together, and the light turned on with a purple glow. It confirmed that the pencil lead works as a conductor.

I designed a simple circuit diagram with a battery and LED. It illustrates a straightforward connection plan.

I assembled the circuit and pressed to test it. The LED lit up, showing my circuit works perfectly.

I carefully placed copper tape to create the circuit connections. The setup ensures a secure path for electricity to flow.

I pressed the components together in my completed circuit. The LED glowed, proving my design was successful.

I drew a circuit diagram with two connected loops. It includes two LEDs powered by a single battery.

I assembled the circuit using copper tape, a battery, and LEDs. The structure follows my diagram closely.

I pressed on the circuit, and both LEDs lit up successfully. It shows the circuit works as intended.

I designed a parallel circuit diagram with two separate LEDs. This layout ensures both lights operate independently.

I constructed the parallel circuit using copper tape and LEDs. The setup aligns with the drawn diagram.

I pressed the connections to test the parallel circuit. Both LEDs glowed brightly, confirming the design works perfectly.

I drew a simple rectangular circuit diagram. It includes a battery, LED, and a clear connection layout.

I built the circuit using copper tape, a coin battery, and an LED. The materials were carefully connected according to my diagram.

I pressed the circuit to test it, and the LED lit up with a blue glow. It was exciting to see it working successfully.

I created a triangular circuit design with a battery and LED. The shape is unique and offers a different connection approach.

I assembled the triangular circuit using copper tape and connected the components as per my diagram. The layout looks clean and organized.

I tested the triangular circuit by pressing the connections. The LED lit up with an orange glow, confirming the circuit works.

The triangular circuit was finalized with all components securely in place. It demonstrates a creative design approach with proper functionality.

Activity 2

This is a simple kite design with bright colors. My original idea was not to limit the kite to flying during the day.

Kites in the night sky. The idea is to make the kite glow in the dark so that people can fly kites in the dark.

The glowing kite design includes LEDs placed at key points to light up when activated. This makes the kite more visible and interactive, especially at night or in low-light conditions. The glowing effect adds a playful and futuristic look to the kite. It also helps others easily spot it in the sky.

The kite uses sensors to detect movement. A tilt sensor is placed on the frame to activate the LEDs when the kite takes off. This makes the kite respond to its motion in the air, creating a dynamic lighting effect. The more the kite moves, the more interactive the lights become. This design makes flying the kite a more exciting experience.

Wind speed and tension sensors help control the kite’s lights. When the wind blows strongly, the wind speed sensor turns on the LEDs to create a glowing effect. The tension sensor in the string activates another set of lights when the kite pulls against the wind. These features allow the kite to react naturally to the environment. It makes the kite feel more alive and connected to nature.

The circuit diagram shows how the battery, tilt sensor, and LED lights are connected. The wiring ensures the LEDs turn on when the kite moves. Planning the circuit before building helps avoid mistakes and makes assembly easier. This step is important for making sure the kite works correctly. Understanding how each part connects helps improve the overall design.

This is a basic fidget cube with various buttons and elements designed for stress relief.

A display showing RGB lights with multiple colors and adjustable brightness to set different moods.

I designed a fidget cube that changes color based on the user's mood. The blue light represents a calm and relaxed state.

The red light on the cube signals anger or anxiety. It helps users recognize and manage their emotions.

When the user is happy, the cube glows yellow. The color change makes the toy more interactive and engaging.

The cube can detect how hard and fast the user presses it. The pressure sensor inside triggers different colors based on the force applied. This makes it a responsive and fun stress-relief toy.

The internal circuit consists of a battery, a pressure sensor, and an RGB LED. The wiring connects these components to allow smooth color transitions. When the sensor detects pressure, it activates the LED and changes the light color accordingly.

This image shows a set of regular keys on a keyring. These keys are standard, made of metal, and do not have any special features.

This illustration shows a glowing key in neon yellow light. It highlights the concept of a key emitting light as a unique feature.

I designed a key that lights up when moved. The light helps users find the key easily in the dark. This makes it both practical and interactive.

The key has a motion sensor and a touch sensor. When the key is picked up or touched, the sensor detects movement. This triggers the LED to turn on.

When the user inserts the key, the light is activated. The LED helps guide the key into the lock, making it useful at night. This design improves convenience and visibility.

A simple wooden door design with traditional features, showing its basic structure.

A door equipped with a smart sensor device to detect motion or presence.

I designed a light that turns on when someone approaches the door. A proximity sensor detects movement and activates the light automatically. This makes it easier to see in the dark and improves safety.

The system uses two sensors, one inside and one outside the door. When a person enters or leaves, the sensors trigger the LED lights. The wiring connects to a battery, making the circuit simple and effective.

A simple scarf made of fabric with a cozy and warm appearance.

In this design, I added a temperature sensor to the scarf. The sensor detects when the temperature is low and activates the internal heating wires. A battery powers the system, making the scarf warm and comfortable to wear.

When I wear the scarf, the heating wires inside start working when the temperature drops. The sensor automatically turns on the heat, providing warmth without needing manual control. This design helps keep me warm in cold weather while staying simple and easy to use.

Project 1

Final Project 1 Design

Wearable Interactive Affordance Based Circuit

I designed these light-up glasses to create a fun and interactive wearable. The glasses feature two LED lights positioned above the eye openings, powered by a simple circuit using copper tape and a coin cell battery. The lightweight foam material makes them comfortable to wear, and the design includes a decorative flower for added personality. The goal of this project was to explore creative circuit integration in wearables while maintaining simplicity and functionality.

Non-Wearable Interactive Affordance Based Circuit

I designed this plush toy to light up when pressed, using a simple circuit inside. It is made of soft felt, LED lights, and conductive materials to create a fun and interactive experience. When I press on it, the circuit completes, and the cheeks glow. This toy is perfect for stress relief, sensory play, and emotional comfort, making it both playful and soothing to use.