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AUTOMATION#1

The use of technology to perform tasks with minimal human intervention, enhancing efficiency in manufacturing.

ROBOTICS#2

The branch of engineering focused on the design, construction, and operation of robots for various applications.

PROGRAMMING LANGUAGES#3

Languages used to write code for robots, enabling them to perform specific tasks and functions.

MECHANICAL PRINCIPLES#4

Fundamental concepts governing the behavior of mechanical systems, crucial for robotic design.

CONTROL SYSTEMS#5

Systems designed to manage, command, and regulate the behavior of robots and automation processes.

SENSORS#6

Devices that detect changes in the environment and provide feedback to robotic systems for decision-making.

ACTUATORS#7

Components that convert electrical signals into physical motion, enabling robots to perform tasks.

PROTOTYPING#8

The process of creating a preliminary model of a robotic system to test and refine design concepts.

PERFORMANCE METRICS#9

Quantitative measures used to evaluate the efficiency and effectiveness of robotic systems.

DEBUGGING#10

The process of identifying and fixing errors in code to ensure reliable robot functionality.

ASSEMBLY TECHNIQUES#11

Methods used to construct robotic systems, ensuring proper integration of components.

SAFETY PROTOCOLS#12

Guidelines established to ensure safe operation and handling of robotic systems.

ITERATIVE DESIGN#13

A design approach that involves repeated cycles of testing and refinement to improve a product.

COLLABORATIVE ASSEMBLY#14

Team-based assembly techniques that enhance efficiency and knowledge sharing among engineers.

PROCUREMENT#15

The process of acquiring components and materials necessary for building robotic systems.

BUDGET MANAGEMENT#16

The practice of planning and controlling financial resources for engineering projects.

QUALITY ASSURANCE#17

Measures taken to ensure that components meet specified standards and performance criteria.

DATA ANALYSIS#18

Techniques used to interpret data collected during testing to improve robotic performance.

FEEDBACK MECHANISMS#19

Systems that provide information on performance, facilitating adjustments and improvements.

PRESENTATION SKILLS#20

The ability to effectively communicate technical information to diverse audiences.

PORTFOLIO DEVELOPMENT#21

The process of compiling and showcasing work samples to demonstrate skills and competencies.

REAL-TIME PROCESSING#22

The capability of processing data instantly to enable immediate responses in robotic systems.

PROTOTYPE CODE#23

Initial programming written to test basic functions of a robotic system.

SUPPLIER NEGOTIATION#24

The process of discussing terms and prices with suppliers to acquire components efficiently.

INDUSTRY STANDARDS#25

Established guidelines that ensure consistency and quality in engineering practices.

ENGINEERING DESIGN PRINCIPLES#26

Fundamental concepts that guide the design and development of engineering projects.