Ustar Spring Featured STEM Program——Tinkercad – Circuits
Ages 7+ | Core Coding & Engineering Transition
Tinkercad Circuits introduces students to basic electronics, circuits, and hardware–software interaction through simulation and hands-on design. Using a safe, visual circuit simulator, students learn how electrical components work together and how code can control hardware behavior.
This course helps students move from “coding on screen” to real-world engineering thinking, preparing them for Arduino, robotics, and physical computing projects.
📘Tinkercad – CircuitsCourse Content Overview
Course Content (15 Lessons)
1. LED Glow
Concepts Covered: Power, Polarity
What Students Do:
Simulate connecting an LED with a battery in Tinkercad and test correct polarity.
Learning Outcomes:
Understand polarity, circuit flow, and LED behavior.
2. LED with Resistor
Concepts Covered: Resistance
What Students Do:
Add a resistor to an LED circuit and observe changes in brightness.
Learning Outcomes:
Learn current control, the effect of resistance, and how resistors prevent LED damage.
3. Switch Control LED
Concepts Covered: Switch
What Students Do:
Add a switch to turn an LED on and off in simulation.
Learning Outcomes:
Understand switches, digital control, and basic circuit interaction.
4. Series Circuit
Concepts Covered: Series Connection
What Students Do:
Connect multiple LEDs in series and simulate voltage drop.
Learning Outcomes:
Learn series connections, voltage division, and troubleshooting techniques.
5. Parallel Circuit
Concepts Covered: Parallel Connection
What Students Do:
Connect multiple LEDs in parallel and simulate current sharing.
Learning Outcomes:
Understand parallel circuits, current distribution, and voltage consistency.
6. Buzzer Circuit
Concepts Covered: Sound Output
What Students Do:
Add a buzzer component and simulate sound output.
Learning Outcomes:
Learn about output devices and audible signal simulation.
7. Push Button Buzzer
Concepts Covered: Input Devices
What Students Do:
Add a push button to control a buzzer and simulate pressing actions.
Learning Outcomes:
Understand digital inputs, interaction, and control logic.
8. Potentiometer LED
Concepts Covered: Variable Resistor
What Students Do:
Add a potentiometer and adjust LED brightness in simulation.
Learning Outcomes:
Learn analog input, variable control, and real-world applications.
9. LDR Night Lamp
Concepts Covered: Sensors
What Students Do:
Add an LDR sensor and simulate LED turning on/off with light changes.
Learning Outcomes:
Understand sensor input, automatic control, and responsive circuits.
10. Simple Traffic Light
Concepts Covered: Timing
What Students Do:
Simulate traffic lights using LEDs and programmed sequences.
Learning Outcomes:
Learn sequencing, timing, and logical control.
11. DC Motor Circuit
Concepts Covered: Motors
What Students Do:
Add a DC motor and simulate rotation using power.
Learning Outcomes:
Understand motor behavior, basic motor circuits, and energy flow.
12. Motor with Switch Control
Concepts Covered: Control Logic
What Students Do:
Add a switch to control a DC motor’s operation.
Learning Outcomes:
Learn motor control, input-output interaction, and logical thinking.
13. Battery Types
Concepts Covered: Power Sources
What Students Do:
Compare different battery voltages and observe their effects on circuits.
Learning Outcomes:
Understand power supply, voltage differences, and circuit performance.
14. Short Circuit Demo
Concepts Covered: Safety
What Students Do:
Simulate a short circuit and observe its effects safely in software.
Learning Outcomes:
Learn circuit safety, current paths, and real-world consequences.
15. Mini Project (Capstone)
Concepts Covered: Integration
What Students Do:
Design and simulate a small project combining LEDs, motors, buzzers, and sensors.
Learning Outcomes:
Apply learned concepts, develop problem-solving skills, and enhance creativity.
⭐ Course Highlights – Why This Course Is Special
Real Engineering Concepts, Safely Learned
Students experiment with real electronics concepts without the risk of damaging hardware.Engineering Thinking, Not Just Assembly
Students learn why circuits work, not just how to connect components.Strong Foundation for Robotics & Arduino
Prepares students for advanced robotics, Arduino programming, and competition pathways.Project-Based & Hands-On
Every concept is reinforced through simulation, experimentation, and mini-projects.Builds Confidence with Hardware Logic
Helps students overcome fear of electronics and develop logical, structured thinking.
👨👩👧 Ideal for Parents Who Want:
Their child to understand how electronics actually work
A strong foundation before robotics or Arduino
STEM learning beyond screens and worksheets
Skills that transfer to engineering, robotics, and future STEM careers
Safe, structured, and age-appropriate engineering education
Schedule & Enroll Now
CUpertino/San Jose Site
Saturday 2:00 – 4:00 PM
Tuesday 6:45 – 8:15 PM
Wednesday 6:45 – 8:15 PM
Sunday 10:00 AM – 12:00 PM 1:00 PM-2:30 PM
Ustar Cupertino / San Jose Site:1340 S De Anza Blvd, Suite 104, San Jose, CA
Los Altos Site
Saturday 2:00 – 4:00 PM
Tuesday 6:45 – 8:15 PM
Wednesday 6:45 – 8:15 PM
Sunday 10:00 AM – 12:00 PM 1:00 PM-2:30 PM
Ustar Los Altos Site:858 University Ave, Los Altos, CA 94024
Coach Hardeep
STEM/Robotics Teacher
A highly experienced STEM educator with a background in mechanical design and programming, specializing in robotics, coding, and engineering design for K–12 students.Skilled in professional tools such as Onshape, Fusion 360, and SolidWorks, and is well known for mentoring students in robotics competitions—helping them turn ideas into real, working projects.
He focuses on helping learners bridge the gap between theoretical knowledge and real-world application. Driven by the philosophy that learning should be interactive and enjoyable, I strive to cultivate curiosity, critical thinking, and a lifelong love for STEM in every student.
