A high school robotics team has $218 to spend on motors and sensors. Each motor costs $18.50 and each sensor costs $12.75. If they buy 6 motors, how many sensors can they purchase with the remaining budget?

Thu, 16 Apr 2026 06:50:14 +0000

**A high school robotics team has $218 to spend on motors and sensors. Each motor costs $18.50 and each sensor costs $12.75. If they buy 6 motors, how many sensors can they purchase with the remaining budget?** In a world where student-led innovation blends schoolwork with real-world engineering, teams across the United States are pushing creative boundaries on tight budgets. For many high school robotics groups, limited funding shapes every decision—choosing between reliable motors and precision sensors is a daily reality. With $218 in hand, a project’s success often hinges on smart allocation of cost-effective components. Understanding simple budget math like this helps teams maximize their impact without overspending. **Why This Math Matters More Than Ever** Across the U.S., more students are pursuing STEM through hands-on teams like FIRST Robotics, where funding constraints make strategic planning essential. As costs rise across electronics, teams must balance performance with affordability. When a robotics group allocates $18.50 per motor, that leaves tangible limits on how many sensors—critical for detection, navigation, and feedback—can be integrated. Consumers and educators alike are noticing how careful planning transforms limited budgets into functional, competitive systems, sparking interest in practical engineering education.