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ROBOTICS#1

The interdisciplinary field that combines mechanical engineering, electronics, and programming to create robots.

MECHANICAL DESIGN#2

The process of designing the physical structure and components of a robotic system for functionality and efficiency.

PROGRAMMING#3

Writing code to control the behavior and operations of a robotic arm, typically using languages like C++ or Python.

SENSOR INTEGRATION#4

Incorporating sensors into a robotic system to gather data and provide feedback for decision-making.

ACTUATOR#5

A device that converts electrical signals into physical motion, enabling movement in robotic systems.

CAD MODELING#6

Using computer-aided design software to create detailed 3D models of robotic components and assemblies.

WIRING DIAGRAM#7

A visual representation of the electrical connections and layout within a robotic system.

DEBUGGING#8

The process of identifying and fixing errors or issues in code or hardware to ensure proper functionality.

ITERATIVE DESIGN#9

A repetitive process of prototyping, testing, and refining a design based on feedback and performance metrics.

PROTOTYPING#10

Creating a preliminary version of a robotic arm to test concepts and functionality before final production.

MATERIAL SELECTION#11

Choosing appropriate materials for constructing robotic components based on strength, weight, and cost.

TESTING METHODOLOGIES#12

Structured approaches for evaluating the performance and reliability of robotic systems through experimentation.

USER MANUAL#13

A document that provides instructions on how to operate and troubleshoot the robotic arm.

PROJECT MANAGEMENT#14

The discipline of planning, executing, and closing projects, ensuring that goals are met within constraints.

SAFETY FEATURES#15

Design elements that protect users and components from hazards during the operation of a robotic system.

FEEDBACK LOOP#16

A system where the output is used as input for further processing, crucial for responsive robotics.

FUNCTIONALITY#17

The range of operations that a robotic arm can perform, determined by design and programming.

PROBLEM-SOLVING#18

The ability to analyze challenges and develop effective solutions during the robotic arm development process.

COMMUNITY ENGAGEMENT#19

Involvement with peers and experts for collaboration, feedback, and support throughout the project.

PRESENTATION SKILLS#20

The ability to effectively communicate project results and processes to an audience.

PORTFOLIO PIECE#21

A completed project that showcases a student's skills and knowledge in robotics for future opportunities.

DATA ANALYSIS#22

The process of examining and interpreting data collected during testing to inform design improvements.

FUNCTIONAL TESTING#23

Evaluating the robotic arm's ability to perform its intended tasks under various conditions.

ELECTRONIC COMPONENTS#24

The various hardware elements like resistors, capacitors, and microcontrollers that comprise a robotic system.

CIRCUIT DESIGN#25

The process of planning and creating electrical circuits that control the robotic arm's functions.