Develop problem-solving strategies using sequential order, loops, and conditional statements.

Explore and understand basic concepts in Science, Technology, Engineering, Art, and Math through engaging activities.

Identify and explain the roles of each discipline in problem-solving and creation.

Build prototypes, test their functionality, and identify areas for improvement.

Understand the use of inputs and outputs in robotics through sensors and motors.

Learn coding fundamentals using drop block-based coding.

Develop computational thinking skills.

Develop spatial ability through following and interpreting building instructions.

Design and construct more complex motorized models.

Utilize loops and conditional statements in coding programs.

Collect and analyze data from sensors to inform robot behavior.

Present creative solutions and explain the reasoning behind them.

Understand the intermediate use of inputs and outputs in robotics through sensors and motors.

Develop algorithms to control robot behavior efficiently and precisely.

Explore advanced programming features like sensor fusion and data logging.

Develop spatial ability through following and interpreting building instructions.

 Introduce students to text-based programming languages used in professional robotics, allowing them to gain a deeper understanding of programming principles.

Understanding of Artificial Intelligence (AI) and its applications in the real world.

Introduction to basic machine learning techniques (pattern recognition, decision-making).

Exploring different types of AI sensors (e.g., camera, microphone) and their uses.

Identify real-world examples of AI applications (e.g., voice assistants, facial recognition).

Use PictoBlox coding blocks to create simple AI programs (sequencing, conditional statements, loops).

Define and identify different types of forces (push, pull).

Explain the concept of friction and its effect on motion. 

Differentiate between different types of motion (e.g., linear, rotational).

Explain the relationship between energy and motion (energy makes things move). 

Identify and explain Newton's Laws of Motion. 

Basic knowledge electronic components like LEDs, resistors, capacitors, and breadboards. This builds a foundation for understanding circuits and how electricity flows.

Beginner-friendly coding exercises that introduce core programming concepts. You'll learn to write simple code to control the behavior of your electronic projects.

Building electronic circuits often involves troubleshooting and debugging. 

Encourages experimentation and develop critical thinking skills to solve problems.

Create various projects and personalize them, fostering creativity and innovation.