Engineering
Mechanical Engineering, Robotics & Workplace Automation
A complete self-study engineering path from calculus, physics, and computation through statics, material strength, dynamics, thermo-fluids, machine design, manufacturing, mechatronics, feedback control, robotics, industrial automation, and responsible workplace deployment. MIT OpenCourseWare and Stanford courses anchor the academic sequence; NIST, OSHA, ISO, IEC, ISA, and NIOSH anchor the manufacturing, safety, integration, and human-work systems.
Who it's for
Independent learners who want the reasoning and project habits of a mechanical engineer with a concentration in automation and robotics. The path assumes secondary-school algebra at entry and becomes mathematically technical. It is a rigorous personal curriculum, not an accredited engineering degree or a substitute for supervised shop, electrical, or industrial-safety training.
Course 1 of 11
Engineering Mathematics
Build calculus, linear algebra, and differential equations before using them to model motion, stress, heat, fluids, and feedback.
Single-Variable Calculus
Multivariable and Vector Calculus
Linear Algebra
Differential Equations
Course 2 of 11
Physics for Engineers
Establish mechanics and electromagnetism as the physical language of machines, sensors, motors, and energy conversion.
Classical Mechanics
Electricity and Magnetism
Course 3 of 11
Computation and Programming for Engineers
Learn programming and numerical methods for simulation, data analysis, control experiments, and engineering decision support.
Programming Fundamentals
Numerical Methods
Course 4 of 11
Statics, Strength & Failure
Turn loads into free-body diagrams, reactions, internal forces, stresses, deflections, and defensible safety margins.
Force Systems & Equilibrium
Structures & Material Response
Beams, Deflection & Failure
Course 5 of 11
Dynamics, Vibration & Thermo-Fluids
Analyze moving and vibrating systems, energy conversion, heat rejection, fluid flow, pumps, and pneumatic power.
Motion & Vibration
Energy & Heat
Fluids & Fluid Power
Course 6 of 11
Machine Design & Manufacturing
Convert functions into mechanisms, machine elements, drawings, tolerances, process plans, test evidence, and reliable hardware.
Mechanisms & Transmissions
Materials & Precision
Manufacturing & Reliability
Course 7 of 11
Mechatronics & Feedback Control
Join circuits, sensors, actuators, embedded state machines, dynamic models, and feedback into working controlled machines.
Power, Circuits & Signals
Sensors, Actuators & Embedded Behavior
Modeling & Feedback
Course 8 of 11
Robotics: Modeling, Motion & Interaction
Model robot geometry and motion, reason about workspace and singularity, design interaction, and integrate perception and software.
Geometry & Kinematics
Motion & Interaction
Perception, Autonomy & Integration
Course 9 of 11
Industrial Automation Systems
Program deterministic sequences, design workcells, analyze production flow, and connect PLC, SCADA, MES, and enterprise information safely.
PLC Architecture & Sequences
Cells, Motion & Equipment
Factory Flow & Data
Course 10 of 11
Automation in the Workplace
Select the right tasks, include workers, quantify lifecycle value, manage risk, redesign jobs, and deliver automation that improves the system of work.
Select the Work
People, Safety & Job Design
Value, Deployment & Stewardship
Course 11 of 11
Integrated Automation Capstone
Integrate requirements, calculations, architecture, risk reduction, controls, economics, testing, commissioning, and communication in one traceable design dossier.