Quick Navigation
AUTONOMOUS NAVIGATION#1
The ability of a robot to navigate and make decisions without human intervention, using sensors and algorithms.
Raspberry Pi#2
A small, affordable computer used for programming and building electronic projects, widely utilized in robotics.
SENSOR INTEGRATION#3
The process of connecting and configuring sensors to gather data for a robot's navigation and decision-making.
CONTROL ALGORITHMS#4
Mathematical methods used to control a robot's movements and behavior based on sensor inputs.
PID CONTROL#5
A control loop feedback mechanism that adjusts a robot's actions to minimize error by using proportional, integral, and derivative terms.
STATE MACHINES#6
A computational model used to design the behavior of a robot based on different states and transitions.
ULTRASONIC SENSOR#7
A device that measures distance by sending out sound waves and detecting their reflections, commonly used in obstacle detection.
INFRARED SENSOR#8
A sensor that detects infrared radiation, often used for proximity sensing and navigation.
WIRING DIAGRAM#9
A visual representation of the electrical connections between components in a robot, essential for setup.
DATA INTERPRETATION#10
Analyzing sensor data to make informed decisions about a robot's actions and navigation.
TROUBLESHOOTING TECHNIQUES#11
Methods used to identify and resolve issues in robotic systems, ensuring smooth operation.
MOTOR CONTROL#12
The process of regulating the speed and direction of a robot's motors to achieve desired movements.
NAVIGATION ALGORITHMS#13
Procedures that guide a robot's path through an environment, essential for autonomous movement.
TESTING PLAN#14
A structured approach to evaluate a robot's performance across various scenarios, ensuring reliability.
REFINING ALGORITHMS#15
The process of improving algorithms based on feedback and testing results to enhance performance.
MAZE LAYOUT#16
The design of a maze that a robot must navigate, critical for testing navigation capabilities.
SYSTEMATIC TROUBLESHOOTING#17
A methodical approach to identifying and fixing problems in robotic systems, enhancing reliability.
COMPREHENSIVE GLOSSARY#18
A detailed list of terms and definitions relevant to the course, aiding student understanding.
HANDS-ON EXPERIENCE#19
Practical engagement in building and programming robots, reinforcing theoretical knowledge.
PROTOTYPE#20
An early sample or model of a robot used to test concepts and functionality before final production.
PROJECT-BASED LEARNING#21
An educational approach where students learn by actively engaging in real-world projects.
REFLECTIVE PRACTICES#22
Methods for students to think critically about their learning experiences and outcomes.
PORTFOLIO DEVELOPMENT#23
The process of compiling and presenting work samples to demonstrate skills and learning progress.
PUBLIC SPEAKING TECHNIQUES#24
Skills used to effectively communicate ideas and findings to an audience during presentations.
ENGINEERING PRINCIPLES#25
Fundamental concepts that guide the design and construction of robotic systems.
REAL-WORLD APPLICATIONS#26
Practical uses of robotics in various industries, showcasing the relevance of skills learned.