Build, Code, and Innovate!

Early exposure to advanced robotics and drone technology ignites curiosity, expands horizons, and helps students explore exciting future career paths. Understanding these technologies allows students to instantly see how theoretical science and mechanical engineering concepts power the real world.

Artificial intelligence, robotics, and drones are rapidly transforming the global workforce, creating dynamic new career opportunities for students who develop an interest in these fields. Professionals with STEM expertise are in high demand across a wide variety of modern industries, including e-commerce, emergency rescue operations, finance, medical logistics, and transportation.

• • The program features a progressive learning path starting with screen-free coding and early logic development for JK & Senior Kindergarten students.
• • Elementary students in Grades 1-6 learn block-based programming using Scratch, sensor integration, and dynamic robot design.
• • Middle and High School students advance to text-based coding with Python and C++, advanced robotics, and complex engineering problem-solving.

• • Yes, an Exclusive Discovery Trial package is offered for $99.
• • This trial includes three 60-minute lessons that must be completed within one month.
• • Families receive a Detailed Assessment Report outlining the student's STEM strengths and a recommended learning path.

• • The Annual Plan offers the best value, including 38 lessons at $35 plus tax per lesson.
• • A Fall Season plan is available for 14 lessons at $40 plus tax per lesson.
• • Families can also select a Single/Pay-As-You-Go option for $43 plus tax per lesson.

• • In Phase 1, students build animal and infrastructure models while learning about mechanical principles like levers and inclined planes.
• • During Phase 2, the curriculum introduces transmission systems such as gear acceleration and worm gear boxes, allowing students to build functional catapults and barrier gates.
• • By Phase 3, students utilize complex drives—including crown gears and belt drives—to build autonomous, obstacle-avoidance robots.

• • Early exposure to drones is designed to help students expand their horizons and explore future career paths.
• • The drone curriculum begins with history, safety guidelines, and basic takeoff and hover control.
• • Students progress to designing complex path navigation and executing remote control rescue and delivery simulations before participating in a final drone competition.

• • Students begin with introductory programming to simulate real-world operations in Phase 2.
• • In Phase 4, they master sequence and branch structures using PC Scratch while operating up to three motors independently.
• • Phase 5 introduces advanced logic, dynamic variables, and smart sensors—such as grayscale and color-recognition sensors—to create interactive setups like smart safes.