How are we different? We Teach Logic.
The most effective learning happens when it feels natural and intuitive. At The Logic Coders, we create an engaging, hands-on environment where students explore real-world coding challenges. We go beyond teaching syntax—we equip students with logical thinking and problem-solving skills essential for coding and beyond.
Emphasis on coding logic over syntax
Coding logic is the foundation of every program, much like how a story can be told in different languages. Instead of just memorizing syntax, our students learn to think like programmers—breaking down problems, structuring solutions, and applying logic that works across all programming languages.
The 3 core concepts of coding logic
We focus on the three building blocks of all programming: Sequences, Loops, and If-Else Statements. These simple yet powerful concepts form the backbone of every software and algorithm. Mastering them unlocks the ability to solve problems efficiently—just like professional developers do.
Coding as logical thinking
Coding isn’t just about writing commands; it’s about structured thinking and problem-solving. While we use various coding and robotics platforms, we emphasize the importance of what is being taught—the logic behind every program. By focusing on core computational thinking skills, we prepare students for a future where problem-solving is key.
Accredited by STEM.org
The STEM.org Accredited™ trustmark is an esteemed quality assurance recognition awarded to informal organizations and educational service providers who meet high standards for STEM education quality. This trustmark is a symbol of excellence that is respected and trusted by educators, parents, and students worldwide.
Coding and Academic Ability
Math and Science are essential subjects, but many students struggle to develop a deep understanding because school curricula often prioritize examinations over real-world application. Without hands-on experiences, these concepts can feel abstract and disconnected from everyday life.
How coding enhances math & science skills
Our curriculum integrates math and science into engaging coding challenges, encouraging students to apply these concepts intuitively as they solve problems. By tackling real-world missions, students reinforce what they learn in school while developing a mindset of experimentation—something traditional classrooms often overlook.
Reinforce concepts through application
Coding provides a dynamic way to apply school-taught concepts in an interactive, hands-on setting. Unlike paper-based exercises, coding challenges create meaningful experiences that help students internalize and truly understand mathematical and scientific principles.
Building spatial thinking skills
Spatial thinking—the ability to understand relationships between objects in terms of shape, size, orientation, and distance—is a crucial skill for mathematical reasoning. Research shows that early exposure to activities that develop spatial thinking can improve math performance (Christopher et al., 2018). Through coding, students strengthen this ability by visualizing algorithms, manipulating objects, and solving logic-based puzzles.
Developing logical reasoning
Problem-solving is at the heart of our curriculum. Students learn to break down complex challenges into smaller, manageable steps before constructing a complete solution. This structured approach to thinking is a valuable academic skill that benefits subjects beyond coding.
Teaching Pedagogy
David Kolb's Learning Model
“Learning is the process whereby knowledge is created through the transformation of experience.”
Kolb’s theory emphasizes that learning happens when students acquire abstract concepts and apply them in real-world situations. New experiences drive this learning process, making it an ongoing cycle of exploration and refinement. According to Kolb, effective learning requires completing all four stages of the cycle:
Concrete Experience – Engaging in hands-on activities
Reflective Observation – Analyzing and learning from mistakes
Abstract Conceptualization – Forming new strategies and insights
Active Experimentation – Applying knowledge in new situations
How we apply this to coding
At The Logic Coders, we structure our lessons around learning by doing. Instead of memorizing syntax, students develop coding and problem-solving skills through hands-on activities, trial and error, and real-world applications.
Students repeatedly go through Kolb’s learning cycle as they:
Experiment with coding challenges and robotics tasks
Learn from mistakes and refine their approach
Apply new concepts in creative problem-solving scenarios
Reinforce their learning by tackling increasingly complex projects
By immersing students in this experiential process, we ensure they don’t just learn to code—they develop critical thinking, adaptability, and confidence in problem-solving.
When should your child learn coding and logic?
Jean Piaget’s theory of cognitive development explains how children construct mental models of the world. He rejected the idea that intelligence is fixed and instead proposed that cognitive growth occurs through biological maturation and environmental interaction. Coding and logic align with this natural development, reinforcing key thinking skills at every stage.
Ages 5-7: Building Pattern Recognition & Logical Foundations
At this stage, children are in the Pre-operational Stage of cognitive development. While they may not yet grasp complex coding concepts, they can start recognizing patterns and sequences, which lay the foundation for future problem-solving. Early exposure to coding helps them develop computational thinking skills that will accelerate their learning once they reach higher cognitive maturity.
Ages 7-12: Strengthening Logical Reasoning & Academic Performance
As children enter the Concrete Operational Stage, they begin developing inductive and deductive reasoning—critical for problem-solving in math and science. This is the ideal time to introduce structured logic and coding, as it enhances their ability to break down problems, think critically, and master abstract concepts. Early mastery of logical reasoning provides an academic advantage, helping children excel beyond their peers in STEM subjects.
