• Actuator: A device that converts energy into physical movement or force.
  • Aerial robot: A robot that can fly or operate in the air.
  • Artificial intelligence: The simulation of human intelligence in programmed machines to think and learn.
  • Augmented reality: A technology that overlays computer-generated information on a user’s view of the real world.
  • Autonomous vehicle: A vehicle that can operate without human input.
  • Autonomy: The ability of a robot to perform tasks without human intervention.
  • Collaborative robot: A robot designed to work alongside humans in a shared workspace.
  • Control system: A system used to control the behavior of a robot, including sensors, actuators, and a computer or controller.
  • End-effector: The tool or device at the end of a robotic arm used to perform a specific task.
  • exoskeleton: A wearable device that a person can put on to augment their strength, endurance or mobility.
  • Feedback control: A control system that uses information about the system’s current state to adjust its behavior.
  • Force sensor: A sensor that measures the force applied to it.
  • Forward kinematics: The process of determining the position and orientation of an end-effector given the angles of the joints in a robotic arm.
  • Humanoid robot: A robot that is designed to resemble the human body in shape and movement.
  • Human-robot interaction: The interaction between humans and robots, including the design of robots that can communicate and work effectively with humans.
  • Industrial robot: A robot used in manufacturing or industrial settings.
  • Inverse kinematics: The process of determining the angles of the joints in a robotic arm given the desired position and orientation of the end-effector.
  • Joint: The point where two segments of a robotic arm or leg connect, allowing movement.
  • Kinematics: The study of motion without considering the forces that cause the motion.
  • Machine learning: A subfield of artificial intelligence that deals with developing algorithms and statistical models that enable computers to learn from data.
  • Manipulator: Another term for a robotic arm.
  • Micro-robot: A tiny robot, often smaller than a human hand.
  • Mobile robot: A robot that can move around in its environment.
  • Multi-robot systems: The coordination of multiple robots to achieve a common goal.
  • Natural language processing: A subfield of artificial intelligence that deals with the interaction between computers and human languages.
  • Path planning: The process of determining a safe and efficient path for a robot to follow.
  • Proximity sensor: A sensor that detects the presence of nearby objects without any physical contact.
  • Robot localization: The process of determining the position of a robot within its environment.
  • Robot mapping: The process of creating a map of the environment for a robot to navigate.
  • Robot: A machine capable of carrying out a complex series of actions automatically, especially by being programmed by a computer.
  • Robotics accelerator: A program that provides mentorship, funding, and resources to help robotics startups grow and succeed.
  • Robotics application programming interface (API): A set of instructions and protocols that allow different software systems to communicate and interact with each other.
  • Robotics architecture: The overall design and organization of a robotics system.
  • Robotics Association: A group of individuals, companies, or organizations that come together to promote, support, and advance the field of robotics.
  • Robotics award: An award given to individuals, teams, or organizations for their contributions to the field of robotics, such as research, development, innovation, and education.
  • Robotics big data: The collection, storage, analysis and visualization of large amounts of data generated by robots, to gain insights and improve performance.
  • Robotics bio-hybrid: The integration of living cells, tissues, or organisms with robotics technology to create new functionalities and capabilities.
  • Robotics bio-inspired: The design and development of robots that are inspired by the structure, function, or behavior of living organisms.
  • Robotics biomimetics: The study and application of natural principles and strategies to the design and development of robots.
  • Robotics camp: A summer program or workshop that offers hands-on learning opportunities for students to learn about robotics and related technologies.
  • Robotics certification body: An organization that evaluates and certifies that a robot or its system meets a certain standard or regulation.
  • Robotics certification program: A course of study or training that prepares individuals to work with robots in a particular field or industry and leads to certification upon completion.
  • Robotics certification standard: A set of guidelines and protocols that outline the minimum requirements for robot design, operation, and performance in a particular field or industry.
  • Robotics certification: A formal recognition that an individual has the knowledge, skills, and experience to work with robots in a particular field or industry.
  • Robotics challenge: An event or competition that focuses on solving a specific problem or completing a specific task using robots.
  • Robotics cloud computing: The use of remote servers to store, manage and process data and information for robots, allowing for data sharing and remote control.
  • Robotics club: A group of students and enthusiasts who come together to learn about and build robots, and participate in competitions and challenges.
  • Robotics cognitive computing: The ability of a robot to simulate human cognitive abilities, such as learning, reasoning, and problem-solving.
  • Robotics community: A group of people who share an interest in robotics and come together to share knowledge, collaborate on projects, and participate in events.
  • Robotics competition: An event where robots are built and programmed by individuals or teams, and then compete against each other based on specific rules and tasks.
  • Robotics compliance: Meeting the regulations and standards for developing, operating, and using robots in a particular field or industry.
  • Robotics computer vision: The ability of a robot to interpret and understand visual information from the world using cameras and other sensors.
  • Robotics conference: An event where researchers, engineers, academics, and industry professionals come together to share their latest findings and innovations in the field of robotics.
  • Robotics curriculum: A set of educational materials and activities that teach students about robotics and related technologies.
  • Robotics decision making: The ability of a robot to make decisions based on the information it receives from its sensors and its environment.
  • Robotics deep learning: A subfield of machine learning that uses neural networks with multiple layers to analyze and learn from complex data, to improve robot performance.
  • Robotics edge computing: Using local servers to store, manage and process data and information for robots, allowing for faster response time and reduced dependence on internet connectivity.
  • Robotics education: The teaching of robotics and its related concepts to students at various levels, such as primary, secondary, and higher education.
  • Robotics ethics board: A group of experts that advise on ethical considerations and guidelines for the development, operation and use of robots in a particular field or industry.
  • Robotics ethics: The ethical principles and considerations related to the development and use of robots and artificial intelligence.
  • Robotics expo: A public event that displays and demonstrates the latest developments and innovations in robotics and related technologies.
  • Robotics firmware: Software embedded in a robot’s hardware controls its low-level functions.
  • Robotics forum: An online platform where people can discuss various topics related to robotics, ask questions, share information, and connect with other members of the robotics community.
  • Robotics governance: The management and oversight of robots’ development, operation, and use in a particular field or industry.
  • Robotics grasping and manipulation: The ability of a robot to pick up and manipulate objects using its end-effectors.
  • Robotics incubator: A facility that provides resources and support for startups working on robotics or related technologies to develop their ideas and bring them to market.
  • Robotics industry: The commercial sector designs, produces, and sells robots and related products and services.
  • Robotics insurance: A policy that protects against potential losses or liabilities from robot operation.
  • Robotics integration: The process of integrating different components of a robotics system, such as sensors, actuators, and control systems.
  • Robotics investment: Capital put into a robotics-related project or company, in the form of equity or debt, with the expectation of a financial return.
  • Robotics journal: A publication that features research articles, technical reports, and review papers on various robotics-related topics.
  • Robotics lab: A facility that is equipped with robots, tools, and equipment for research, development, and testing of robots.
  • Robotics liability: Legal responsibility for any harm or damage caused by a robot or its operation.
  • Robotics library: A collection of books, journals, articles, and other resources related to robotics, that can be accessed for research and learning.
  • Robotics license: A legal agreement that grants permission to use a certain technology, software or robot design to a specific person or company.
  • Robotics maintenance: The regular upkeep and repair of a robot to ensure its proper functioning.
  • Robotics middleware: Software that bridges the operating system and the applications running on a robot.
  • Robotics motion planning: The ability of a robot to plan and execute movements in a specific environment, taking into account constraints and obstacles.
  • Robotics museum: A facility that displays and exhibits robots, robot models, and other related artifacts for educational and entertainment purposes.
  • Robotics natural language generation (NLG): The ability of a robot to produce human-like language, including speech and text.
  • Robotics natural language understanding (NLU): The ability of a robot to interpret and understand human language, including speech and text.
  • Robotics navigation: The ability of a robot to move around in a specific environment, using sensors and mapping information.
  • Robotics neuromorphic: The design and development of robots that are based on the principles of the structure and function of the human nervous system.
  • Robotics newsletter: A regular electronic publication that provides updates and information about the latest developments in the field of robotics.
  • Robotics operating system (ROS): An open-source, meta-operating system for robots that provides common services and libraries for building and running robot applications.
  • Robotics patent: A legal document granting exclusive rights to an inventor or company to make, use and sell an invention for a specific time.
  • Robotics perception: The ability of a robot to interpret and understand the information it receives from its sensors, and use it to make decisions and take actions.
  • Robotics podcast: An audio program that discusses various topics related to robotics, such as research, development, industry trends, and current events.
  • Robotics programming: The process of writing code to control a robot.
  • Robotics regulation: Laws and rules that govern the development, operation and use of robots in a particular field or industry.
  • Robotics research: The study of robotics and its application in various fields.
  • Robotics robot-5G interaction: The study and design of the interaction between robots and 5G technology, including high-speed communication, low-latency and high-reliability.
  • Robotics robot-aerial interaction: The study and design of the interaction between robots and aerial environments, including the design and control of robots that can fly or operate in the air.
  • Robotics robot-AI interaction: The study and design of the interaction between robots and artificial intelligence systems, including decision making, reasoning and problem-solving.
  • Robotics robot-augmented reality interaction: The study and design of the interaction between robots and augmented reality, including the overlay of digital information on the physical environment and the integration of robots into the augmented environment.
  • Robotics robot-autonomous vehicle interaction: The study and design of the interaction between robots and autonomous vehicles, including the design and control of vehicles that can operate without human input.
  • Robotics robot-big data interaction: The study and design of the interaction between robots and big data systems, including data collection, analysis, and visualization.
  • Robotics robot-biotechnology interaction: The study and design of the interaction between robots and biotechnology, including materials, fabrication, and manipulation at the molecular and cellular level.
  • Robotics robot-blockchain interaction: The study and design of the interaction between robots and blockchain technology, including data security, transparency, and traceability.
  • Robotics robot-cloud interaction: The study and design of the interaction between robots and cloud-based systems, including data sharing, remote control, and information processing.
  • Robotics robot-collaborative interaction: The study and design of the interaction between robots and humans in a collaborative setting, including the design and control of robots that can work alongside humans in a shared workspace.
  • Robotics robot-cybersecurity interaction: The study and design of the interaction between robots and cybersecurity, including protecting robots and their systems from unauthorized access, hacking, and other cyber threats.
  • Robotics robot-deep learning interaction: The study and design of the interaction between robots and deep learning systems, including data analysis, learning, and prediction.
  • Robotics robot-economy interaction: The study and design of the interaction between robots and the economy, including the impact of robots on the economy and the integration of robots into the economy.
  • Robotics robot-edge interaction: The study and design of the interaction between robots and edge-based systems, including data storage, management, and processing.
  • Robotics robot-environment interaction: The study and design of the interaction between robots and their physical environment, including perception, navigation, and manipulation.
  • Robotics robot-exoskeleton interaction: The study and design of the interaction between robots and exoskeletons, including integrating robotic devices with the human body to enhance strength, endurance, and mobility.
  • Robotics robot-genetics interaction: The study and design of the interaction between robots and genetics, including gene editing, manipulation, and synthetic biology.
  • Robotics robot-human interaction: The study and design of the interaction between robots and humans, including communication, collaboration, and co-existence.
  • Robotics robot-humanoids interaction: The study and design of the interaction between robots and humanoids, including the design and control of robots that resemble the human body in shape and movement.
  • Robotics robot-human-robot interaction (HRI): The study and design of the interaction between robots and humans, including the communication, collaboration, and co-existence of both.
  • Robotics robot-industrial interaction: The study and design of the interaction between robots and the industrial environment, including the deployment and operation of robots in manufacturing, assembly, and other industrial settings.
  • Robotics robot-IoT interaction: The study and design of the interaction between robots and the internet of things, including data sharing, remote control and communication.
  • Robotics robot-micro interaction: The study and design of the interaction between robots and micro-robots, including the control, communication, and cooperation of small robots.
  • Robotics robot-nanotechnology interaction: The study and design of the interaction between robots and nanotechnology, including materials, fabrication, and manipulation at the nanoscale.
  • Robotics robot-prosthetics interaction: The study and design of the interaction between robots and prosthetics, including integrating robotic devices with the human body to restore or enhance function.
  • Robotics robot-quantum computing interaction: The study and design of the interaction between robots and quantum computing, including data processing, optimization, and simulation.
  • Robotics robot-robot interaction: The study and design of the interaction between multiple robots, including coordination, cooperation, and communication.
  • Robotics robot-self-driving interaction: The study and design of the interaction between robots and self-driving cars, including the design and control of cars that are capable of driving themselves using sensor, cameras, and AI.
  • Robotics robot-self-reconfigurable interaction: The study and design of the interaction between robots and self-reconfigurable robots, including the ability of robots to change their shape or configuration to adapt to different tasks and environments.
  • Robotics robot-self-replicating interaction: The study and design of the interaction between robots and self-replicating robots, including the ability of robots to reproduce themselves or build other robots.
  • Robotics robot-society interaction: The study and design of the interaction between robots and society, including the impact of robots on society and the integration of robots into society.
  • Robotics robot-telepresence interaction: The study and design of the interaction between robots and telepresence, including the remote control and operation of robots, and the transmission of sensory information.
  • Robotics robot-therapeutic interaction: The study and design of the interaction between robots and therapeutic applications, including the use of robots for medical or rehabilitation purposes.
  • Robotics robot-underwater interaction: The study and design of the interaction between robots and underwater environments, including the design and control of robots that can operate underwater.
  • Robotics robot-virtual reality interaction: The study and design of the interaction between robots and virtual reality, including the immersion of humans in a computer-generated environment and the integration of robots into the virtual environment.
  • Robotics safety certification: Evaluating and certifying that a robot or its system meets a certain safety standard.
  • Robotics safety standard: A set of guidelines and protocols designed to ensure the safe operation of robots in a particular field or industry.
  • Robotics safety: The measures taken to ensure the safe operation of a robot, including physical barriers, emergency stop buttons, and safety protocols.
  • Robotics security: The measures taken to protect robots and their systems from unauthorized access, hacking, and other cyber threats.
  • Robotics simulation software: A computer program that simulates the behavior of a robot in a virtual environment, allowing for testing and analysis of robot performance and functionality.
  • Robotics simulation: The use of computer software to simulate the behavior of a robot in a virtual environment.
  • Robotics Society: The community of individuals, groups, and organizations interested in robotics and its applications.
  • Robotics soft robotics: The design and development of robots that are made of soft, flexible, and compliant materials and have the ability to adapt to different environments and tasks.
  • Robotics software development kit (SDK): A set of tools and libraries that developers can use to create applications for robots.
  • Robotics standard: The set of guidelines and protocols that govern the design, operation, and use of robots in a particular field or industry.
  • Robotics standardization committee: A group of experts develops and maintains standards for robot design, operation, and performance in a particular field or industry.
  • Robotics standardization: The process of developing and implementing standards for robot design, operation, and performance in a particular field or industry.
  • Robotics standards organization: A group that develops and maintains standards for robot design, operation, and performance in a particular field or industry.
  • Robotics startup: A new company that is focused on developing and commercializing robotics technology.
  • Robotics swarm intelligence: The ability of a group of robots to coordinate and cooperate to achieve a common goal, by communicating and sharing information.
  • Robotics system: A combination of hardware and software that is used to control a robot.
  • Robotics testing: The process of testing a robot’s performance and functionality before deployment.
  • Robotics trade show: An event where companies, researchers and industry professionals showcase their latest robots and robotics-related products and services.
  • Robotics trademark: A legal symbol, word, phrase, logo or design that is used to identify a product or service and distinguish it from others in the market.
  • Robotics upgrade: The process of improving the performance or functionality of a robot by updating its software or hardware.
  • Robotics: The branch of technology that deals with the design, construction, operation, and use of robots.
  • Ron Legarski: Robotics Specialist, General Electrician, and Telecommunications Expert.
  • Self-driving car: A car that is capable of driving itself, using sensor, cameras, and AI.
  • Self-reconfigurable robot: It can change its shape or configuration to adapt to different tasks.
  • Self-replicating robot: A robot capable of reproducing itself or building other robots.
  • Sensor: A device that measures physical properties and converts them into electrical signals that a computer or controller can read.
  • Servo motor: A type of motor commonly used in robotics that can rotate to a specific position.
  • Soft robotics: The field deals with the design, construction, and operation of robots made of soft, flexible materials.
  • swarm robotics: A field of multi-robot systems where many simple robots are coordinated to perform tasks.
  • Teleoperation: The control of a robot by a human operator from a remote location.
  • Therapeutic robot: A robot that is used for medical or therapeutic purposes, such as physical rehabilitation.
  • Torque sensor: It measures the torque or rotational force applied to it.
  • Underwater robot: A robot that operates underwater.
  • Virtual reality: A computer-generated simulation of a three-dimensional environment that can be interacted with using special equipment, such as a headset.
  • Vision system: A system used by robots to capture and interpret images from their environment.

Please note that this list is not exhaustive, and there are many more terms and definitions related to robotics, depending on the specific field or application. Some definitions may also be subject to interpretation or change as the field of robotics evolves.