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DIY twin-engine glide aircraft educational toy model

STEM twin-engine glide aircraft science project model

Educational twin-engine glide aircraft for students

Dual motor glide aircraft science working model

DIY twin-engine glide aircraft assembly kit

DIY Twin-Engine Glide Aircraft – Educational Toy Model

Available:Out of Stock

Product SKU: LGPW185

Wishlist

₹ 399 ~~₹ 549~~

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Specification

Description

DIY Twin-Engine Glide Aircraft – Butterfly Life Cycle Science Project

The DIY Twin-Engine Glide Aircraft is a hands-on educational toy that supports interactive STEM learning while aligning naturally with a butterfly life cycle science project. Designed to spark curiosity, this model helps learners explore motion, energy transfer, and real-world aerodynamics in a simple yet engaging way. Additionally, the working principles can be conceptually linked with an exothermic reaction experiment, making it suitable for interdisciplinary science demonstrations. With its dual motors, colorful design, and smooth gliding movement, the model encourages logical thinking and experiential learning.

Materials and User Manual

Propellers: Two red propellers that generate thrust.
Electric motors: Two small DC motors for driving the propellers.
Battery holder: A black case for powering the motors.
Base frame: Multicolored plastic beams to form the aircraft’s structure.
Wheels: Two rear wheels for stability and one front wheel for direction control.
Connecting wires: For transmitting electrical power from the battery to the motors.
Mounting brackets: For securing the motors and propellers to the frame.
User Manual: All the design details are elaborated in documents with this.

Advantages of This Science Project

This model demonstrates key principles of energy conversion and aerodynamics in a way that complements a butterfly life cycle science project by showing transformation and motion in physical systems. When electrical power flows from the battery to the motors, the propellers rotate rapidly and generate thrust. This applied learning approach can also be conceptually connected to an exothermic reaction experiment, helping students relate energy release to visible movement and mechanical output. The lightweight frame minimizes drag, allowing the aircraft to glide smoothly and predictably.