Manufacturing, Robotics & Systems
Manufacturing processes, automation, robotics, aerospace, energy and professional engineering practice.
102 topics: 35 beginner, 34 intermediate, 33 advanced.
About this discipline
Manufacturing and systems engineering turn designs into products reliably and economically. It covers how parts are made, measured and assembled, how factories are planned and kept running, and how robots, automation and complex systems are designed and verified.
The course starts with the engineering process, measurement and tolerances, and the main manufacturing processes, then moves to quality, production planning and maintenance, robotics and automation, and finally systems engineering, transport, energy and project management.
Who it is for
Manufacturing, mechatronics and systems engineering students, production and quality engineers, robotics developers and project managers who coordinate engineering teams.
How the levels build
Beginner topics cover the design process, measurement, tolerances and basic manufacturing processes. Intermediate topics cover quality, planning, reliability, automation and robot kinematics. Advanced topics cover systems engineering, vehicles, aerospace, energy, biomedical devices and project economics.
Use cases
- Setting tolerances on a shaft so it fits a bearing.
- Planning a machining cell to reduce the distance parts travel.
- Writing an FMEA to rank the risks of a new product before release.
- Calculating the joint angles that move a robot tool to a target point.
Beginner Manufacturing, Robotics & Systems
Topic 1What engineers doApply science and mathematics to design, build and improve things that solve problems.Topic 2Engineering design processDefine, research, ideate, prototype, test and iterate.Topic 3Problem solving and estimationBack-of-envelope calculations check plausibility before detailed work.Topic 4Engineering ethicsHold paramount the safety, health and welfare of the public.Topic 5Codes, standards and regulationsISO, IEC and local codes provide shared safety and quality requirements.Topic 6Technical communicationClear reports, drawings and presentations convey designs.Topic 7Teamwork and project rolesEngineers collaborate across disciplines with defined responsibilities.Topic 8Basic workshop toolsMeasuring, cutting and fastening tools used in fabrication.Topic 9Measurement toolsVernier calipers and micrometers measure dimensions precisely.Topic 10Limits, fits and tolerancesControl interchangeability of mating parts.Topic 11Geometric dimensioning and tolerancingSymbols define form, orientation and location requirements.Topic 12MetrologyThe science of measurement, including calibration and uncertainty.Topic 13CastingPouring molten metal into moulds; sand, die and investment casting.Topic 14Forming and forgingPlastic deformation with compressive forces to shape metals.Topic 15Rolling, extrusion and drawingContinuous deformation processes for sheets, profiles and wires.Topic 16Sheet metal workingBlanking, bending and deep drawing create thin parts.Topic 17Welding processesMIG, TIG, arc and resistance welding join metals.Topic 18Soldering and brazingJoin parts using filler metals lower in melting point than base metals.Topic 19Machining fundamentalsMaterial removal using cutting tools; speed, feed and depth of cut.Topic 20Turning, milling and drillingCommon machine tool operations.Topic 21Grinding and finishingAbrasive processes achieve fine surfaces and tight tolerances.Topic 22Cutting tool materialsHSS, carbide and ceramics resist wear at different speeds.Topic 23Tool life and Taylor equationVT^n=C relates cutting speed and tool life.Topic 24Non-traditional machiningEDM, laser and waterjet cut hard or delicate materials.Topic 25CNC machiningComputer controlled machine tools follow G-code.Topic 26CAMSoftware generates toolpaths from CAD models.Topic 27Additive manufacturing3D printing builds parts layer by layer.Topic 28Plastic and composite manufacturingMoulding, layup and curing methods.Topic 29Powder and ceramic processingSintering and pressing produce hard parts.Topic 30Semiconductor fabricationPhotolithography, etching and doping create chips.Topic 31Assembly and joiningDesign for assembly reduces parts and time.Topic 32Design for manufacturingChoose features and tolerances that are economical to produce.Topic 33Quality controlInspection and statistical methods ensure conformity.Topic 34Statistical process controlControl charts monitor variation to catch drift early.Topic 35Six Sigma and leanMethods to reduce defects and waste.
Intermediate Manufacturing, Robotics & Systems
Topic 36Process capabilityCp and Cpk compare process spread with tolerance.Topic 37Plant layout and material handlingArrange equipment and flow to minimise movement.Topic 38Production planning and schedulingPlan capacity, materials and timing.Topic 39Inventory managementBalance holding cost against stock-outs with EOQ and just-in-time.Topic 40Supply chain and logisticsCoordinating flow of goods from suppliers to customers.Topic 41Maintenance engineeringPreventive, predictive and corrective strategies.Topic 42Reliability engineeringPredict and improve probability of failure-free operation.Topic 43Failure modes and effects analysisSystematically list failures and rank risk.Topic 44Fault tree analysisTop-down logic to find combinations of events causing failure.Topic 45Ergonomics and human factorsDesign for human capabilities and limits.Topic 46Industrial safetyHazard analysis and controls protect workers.Topic 47Industrial automationMachines and control systems perform tasks with minimal human input.Topic 48PneumaticsCompressed air actuators for fast, simple motion.Topic 49HydraulicsPressurised fluid transmits large forces.Topic 50Sensors in automationProximity, vision and force sensors detect parts and conditions.Topic 51Industrial networksProfibus, EtherCAT and Modbus connect devices.Topic 52Introduction to roboticsMachines combining sensing, computation and actuation.Topic 53Robot configurationsCartesian, SCARA, articulated and parallel robots suit different tasks.Topic 54Degrees of freedom and workspaceJoints define motion capability and reachable volume.Topic 55Homogeneous transformations4x4 matrices describe position and orientation.Topic 56Forward kinematicsCompute end-effector pose from joint angles using DH parameters.Topic 57Inverse kinematicsFind joint angles for a desired end-effector pose.Topic 58Jacobian and singularitiesMap joint velocities to tip velocity; singularities lose mobility.Topic 59Robot dynamicsEquations relating joint torques to motion.Topic 60Trajectory planningGenerate smooth paths in joint or Cartesian space.Topic 61Robot actuators and drivesServo motors, gearboxes and harmonic drives power joints.Topic 62End effectors and grippersTools that grasp or process objects.Topic 63Robot controlPID, computed torque and impedance control.Topic 64Robot visionCameras and algorithms locate and inspect objects.Topic 65Mobile robotsWheeled and legged robots navigate environments.Topic 66Localisation and mappingSLAM builds maps while tracking position.Topic 67Path planningA*, RRT and potential fields find collision-free paths.Topic 68Sensor fusionCombine IMU, GPS, lidar and cameras for robust estimation.Topic 69ROSRobot Operating System provides middleware and tools.
Advanced Manufacturing, Robotics & Systems
Topic 70Human-robot interaction and cobotsCollaborative robots work safely beside people.Topic 71Drones and UAVsMultirotor and fixed-wing aircraft with autonomous control.Topic 72Autonomous vehiclesPerception, planning and control to drive without human input.Topic 73MechatronicsIntegration of mechanical, electronic and software engineering.Topic 74Systems engineeringManage complexity through requirements, architecture and verification.Topic 75V-model and lifecycleLink development phases with corresponding test phases.Topic 76Requirements and traceabilityEach requirement traces to design and test.Topic 77Trade studiesCompare options against weighted criteria.Topic 78Modelling and simulationUse virtual models to predict and refine behaviour.Topic 79Digital twinsLive virtual replicas of physical assets used for monitoring and prediction.Topic 80Aerodynamics for aircraftLift, drag, thrust and weight define flight.Topic 81Aircraft structures and propulsionLight airframes and jet or propeller engines.Topic 82Flight stability and controlControl surfaces manage pitch, roll and yaw.Topic 83Orbital mechanicsKepler's laws and delta-v describe spacecraft motion.Topic 84Rocket propulsionThrust from expelled mass; Tsiolkovsky equation links delta-v and mass ratio.Topic 85Automotive engineeringPowertrain, chassis, safety and electronics of vehicles.Topic 86Electric and hybrid powertrainsMotors, batteries and control replace or assist combustion engines.Topic 87Battery systemsCells, packs and management systems store energy.Topic 88Hydrogen and alternative fuelsLow-carbon energy carriers for transport and industry.Topic 89Nuclear engineering basicsFission releases energy; reactors need control and safety.Topic 90Biomedical engineeringDevices and methods applied to healthcare.Topic 91Medical imagingX-ray, CT, MRI and ultrasound visualise the body.Topic 92Prosthetics and rehabilitationDevices restoring function.Topic 93Renewable energy systemsIntegrate solar, wind and storage for clean power.Topic 94Sustainability and life-cycle engineeringDesign for reduced environmental impact across the product life.Topic 95Engineering economicsTime value of money, NPV and IRR compare investments.Topic 96Project managementScope, schedule, cost and risk control.Topic 97Risk assessmentIdentify, evaluate and mitigate hazards and uncertainty.Topic 98Intellectual property and patentsLegal protection of inventions.Topic 99Entrepreneurship and innovationTurning engineering ideas into products.Topic 100Career paths and lifelong learningContinuous skill development and professional licensure.Topic 101Model-based systems engineeringUses connected models rather than documents as the source of truth for design.Topic 102Prognostics and health managementPredicts remaining useful life from condition data.
Frequently asked questions
What is Manufacturing, Robotics & Systems?
Manufacturing processes, automation, robotics, aerospace, energy and professional engineering practice.
How many topics are in Manufacturing, Robotics & Systems?
102 topics, ordered from beginner to advanced: 35 beginner, 34 intermediate and 33 advanced.
Where should a beginner start in Manufacturing, Robotics & Systems?
Start with "What engineers do" and work through the list in order. Each topic builds on the one before it.
Why are tolerances so important for manufacturing?
Tolerances decide whether parts fit and work together. Tighter tolerances raise cost, so they should be specified only where function requires them.
How do I choose a manufacturing process?
Consider the shape, material, volume, tolerance, surface finish and cost. Casting suits complex shapes, machining suits precision, and forming suits high volume.
What makes a robot accurate?
Good kinematic models, rigid structure, precise encoders and well-tuned control. Calibration and temperature compensation also matter.
What is the difference between quality control and quality assurance?
Quality control inspects products to find defects. Quality assurance designs the process so that defects are prevented in the first place.
What does systems engineering add to a project?
It manages requirements, interfaces, verification and risk across all disciplines, so a complex product works as a whole.
Practise in the interactive course with quizzes, tests and labs.