Robotics

Fundmentals in Robot C and VEX Robotics

Assemble a test rig with a motor and several sensors. Use the Robot C interface to set up motors and sensors. They will understand and apply motor control ...

KUKA.Sim Tutorials - Beginner Level Part 1

The course is designed for robotics engineers, students studying robotics and simulation, and enthusiasts eager to get into the simulation world of robotics.

Robotics with Python - Think, Code and Move!

This hands-on course teaches core robotics principles through Python by guiding you to write code that makes robots perceive, plan, and act—covering practical implementations of sensing, state estimation, motion planning, and control. Project-based labs with simulator and hardware examples emphasize debugging, system integration, and algorithmic trade-offs, so you finish with runnable demos and reusable code rather than only theory. If you want a code-first pathway to prototype behaving robots and evaluate real-world toolchains and design decisions, this course will quickly show whether to deepen into robotics engineering or specialize in perception, control, or planning.

Industrial Robotics

Learn all the theoretical and practical details to master industrial robotics: solve kinematic models; plan geometrical paths and dynamic trajectories.

Robotics for Kids : Learn coding while building Robots

Master the fundamentals of Arduino hardware and programming. Learn to design circuits, control LEDs, motors, and explore the fascinating world of sensors and ...

Getting into the Robotics with Robotic Manipulators

Learn the fundamentals of robotics over robotic manipulators and how to apply theory into real world situations.

Robotics & Mechatronics 1: Machine Theory & Production ...

This theoretical primer teaches practical machine theory and production-focused analysis—covering mechanical elements and kinematics, sensor/actuator selection and basic control principles, and how common manufacturing processes constrain design choices. You’ll learn to calculate load and torque requirements, model simple electromechanical systems, select components based on performance–cost tradeoffs, and anticipate production issues like tolerances and cycle-time impacts. If you plan to specify, prototype, or manage robotic/mechatronic equipment, the course shortens development time by giving a clear framework to translate functional specs into manufacturable designs and make informed procurement or prototyping decisions before tackling the hands‑on follow-ups.

Robotics for Everyone: Learn, Create, and Control

Apply robotics to real-world projects in automation and AI. Design, test, and troubleshoot robotic systems step by step.

MECHANISMS AND MOTION - ROBOTICS FOCUS

This course teaches the mechanical building blocks—linkages, gear trains, belt drives, bearings and actuators—and the practical calculations (torque, speed, gear ratios, load) needed to choose and size components for specific robotic tasks. Through project-focused modules and prototyping exercises you'll learn to translate functional requirements into mechanism layouts, iterate with simple materials and CAD, and diagnose common motion failures like binding, backlash, and motor overheating. If you want quickly actionable skills to design reliable motion systems for competition or classroom robots—balancing performance, weight, and cost—this course provides step-by-step methods and checklists to take a concept to a field-tested prototype.

Robotics Introductory Course

This Udemy course teaches hands-on integration of sensors, motors, and controllers—practical wiring, motor driver setup, sensor interfacing, and controller tuning (e.g., PID) to implement closed-loop behaviors. It introduces ROS fundamentals by walking you through building ROS nodes and messages, using simulation tools (such as Gazebo), and assembling basic perception-to-action pipelines for real-time control. By completing guided projects like line-following and obstacle avoidance, you'll be able to prototype and debug simple autonomous robots and understand the hardware/software workflow needed to scale to more advanced systems.

Why Is MIT Making Robot Insects?

What happens when you shrink robots down to the size of insects? Let's explore the mind-bending physics behind their ...

Turning Dead Spiders Into Robots 😮

This Robot Will Replace the Police

Spherical police robots by Chinese robotics company have started to patrol the streets of China. Capable of operating both on ...

Boston Dynamics Unveils Fully Electric Atlas Humanoid Robot

Farewell, hydraulic Atlas. Hello, fully electric Atlas. Boston Dynamics just showed off the next generation of Atlas and it's...

Robotic Walking Suit Revolutionizing Mobility 🦿 #shorts

Breaking Barriers: Wearable Robots Are Advancing Mobility Assistance - Scientists and engineers continue to make remarkable ...

20 Amazing Robot Animals That Will Blow Your Mind

Ultimate Fact presents Top 20 Amazing Robot Animals That Will Blow Your Mind. Millions of years of evolution have allowed ...

We Built a Robot to Clean Our Whiteboard

ARE THEY ROBOTS OR REAL PEOPLE!!😳🤖 #shorts #ai #robot #scary #artificialintelligence

make sure to SUBSCRIBE and LIKE this video to see more! FOLLOW ME ON... instagram: ...

I Invented A Robot YOU Can Hack

We built a gum launching robot

Why Can't Robots Check "I'm Not A Robot"?

Why can't a robot just click “I'm not a robot”? Turns out the answer is part of a bigger story about being human. The box test isn't ...

Meet My AI Robot Pet, Loona

I Cooked Against Robots

The last robot was CRAZY... Subscribe before everyone else ...

Rubik's Cube Robot World Record History: Evolution of Speed

The video traces how Rubik’s Cube robot-solving records have improved, showing the rapid progress of high-speed robotics. It highlights the engineering behind the team’s 2025 world-record robot, offering a practical glimpse into designing machines that solve and manipulate puzzles at extraordinary speed. Watch if you’re curious about robotics competitions, performance breakthroughs, or how a seemingly simple puzzle can push engineering to its limits.