Career guidance
Careers are specific job roles. Use this page to compare tasks, tools, portfolio projects, and employer evidence. For broad learning areas such as thermal, controls, or manufacturing, start with Tracks.
Find your direction
Pick the work type that sounds closest to what you want to do. The result suggests courses, tools, and a first project.
Not sure? Pick the task type you would most want to try this month.
Two routes worth knowing
If your main goal is a junior mechanical or design role, this short stack covers what most employers check first.
Then prove it: show the drawing, load calculation, material choice, data analysis, and short report in one place.
If you are aiming at research or graduate study, depth and rigor matter more than tool count. This route builds the modeling and writing skills supervisors look for.
Then prove it: a literature review plus a reproducible simulation project, written up with validation against data and honest limitations.
All paths
Eleven career directions. Use the filters to narrow the list, then open a card for courses, projects, and employer evidence.
Showing all 11 directions.
You may like this if: you enjoy CAD, mechanisms, physical products, force reasoning, tolerances, and design iteration.
Avoid this if: you dislike detailed drawings, standards, manufacturing limits, and repeated redesign.
Recommended tracks: Design and manufacturing, Mechanics and materials.
Become strong in: free-body diagrams, stress reasoning, material selection, CAD assemblies, tolerancing, and design reviews.
Core courses:
Tools to learn:
First portfolio project: Design a bolted bracket with a drawing, a load calculation, a material choice, and a short design justification.
Advanced portfolio project: Design a gearbox, hinge, or lifting mechanism with CAD, drawings, calculations, tolerances, and a design review.
Typical employer evidence: drawings, CAD assemblies, design calculations, tolerance reasoning, material choice, manufacturability, and iteration history.
You may like this if: you like taking a vague idea to a real product: user needs, concepts, prototypes, and trade-offs.
Avoid this if: you would rather go deep in one technical specialty than juggle many at once under deadlines.
Recommended tracks: Design and manufacturing, Practice and career.
Become strong in: requirements, concept selection, CAD, prototyping, testing, and telling the story of a design.
Core courses:
Tools to learn:
First portfolio project: Take a simple product idea from a short requirements list to a CAD model and a prototype plan.
Advanced portfolio project: Run a product from requirements through CAD, a prototype, a test plan, and a portfolio case study.
Typical employer evidence: requirement lists, concept sketches, CAD, prototype photos, test results, and a clear design story.
You may like this if: you want to know why things bend, break, or hold before anything is built.
Avoid this if: you dislike careful setup, mesh checking, and validating every result against a hand calculation.
Recommended tracks: Simulation and computational engineering, Mechanics and materials.
Become strong in: solid mechanics, FEA setup, mesh convergence, boundary conditions, and validation.
Core courses:
Tools to learn:
First portfolio project: Model a cantilever beam, compare tip deflection to the formula, and refine the mesh until it settles.
Advanced portfolio project: Run a validated structural or thermal study: loads, mesh convergence, and agreement with hand calculations.
Typical employer evidence: model setup notes, convergence plots, validation against hand calculations, and clear result interpretation.
You may like this if: you like experiments, sensors, real data, failure analysis, and proving whether a design actually works.
Avoid this if: you dislike messy real-world data, uncertainty, repeated testing, and documentation.
Recommended tracks: Practice and career, Mechanics and materials.
Become strong in: experimentation, measurement, uncertainty, mechanics, data analysis, and technical reporting.
Core courses:
Tools to learn:
First portfolio project: Measure beam deflection, compare it with theory, and report error sources and uncertainty.
Advanced portfolio project: Validate a mechanical subsystem using a test plan, sensor data, plots, acceptance criteria, and a final report.
Typical employer evidence: test plans, raw data, cleaned data, plots, uncertainty estimates, failure notes, and design recommendations.
You may like this if: you care how parts are actually made, and how to make them cheaper, faster, and more reliably.
Avoid this if: you would rather stay in pure design or analysis than work with processes, tooling, and the shop floor.
Recommended tracks: Manufacturing and materials, Design and manufacturing.
Become strong in: process selection, materials behavior, tolerances, quality, design for manufacturing, Lean basics, root cause analysis, process capability, and production ramp-up.
Core courses:
Tools to learn:
First portfolio project: Redesign one part for machining versus sheet metal, and compare cost and tolerance.
Advanced portfolio project: Take one part across machining, sheet metal, and additive, comparing cost, tolerance, and lead time.
Typical employer evidence: process plans, design-for-manufacturing notes, tolerance and inspection reasoning, root cause notes, capability checks, supplier constraints, and cost comparisons.
You may like this if: you like things that sense, decide, and move: hardware brought to life by code.
Avoid this if: you would rather avoid electronics, programming, and debugging feedback loops.
Recommended tracks: Robotics, control and mechatronics, Systems and control.
Become strong in: dynamics, sensors and actuators, microcontrollers, PID control, PLC basics, motor drives, safety interlocks, and automation workflows.
Core courses:
Tools to learn:
First portfolio project: Close a feedback loop on a simulated motor and watch the response as you raise the gain.
Advanced portfolio project: Build or simulate a controlled mechanism: motor, sensor, controller, and a performance report.
Typical employer evidence: wiring or block diagrams, control code, response plots, and a tuning write-up.
You may like this if: you are curious where energy goes: heat, flow, HVAC, heat pumps, refrigeration, battery thermal management, data center cooling, heat exchangers, and building energy systems.
Avoid this if: you prefer rigid-body mechanics and would rather not reason about heat, flow, and entropy.
Recommended tracks: Thermal and energy systems, Thermal and fluids.
Become strong in: energy balances, the three heat-transfer modes, fluid flow, HVAC basics, refrigeration cycles, heat exchanger sizing, and building energy systems.
Core courses:
Tools to learn:
First portfolio project: Write a one-page energy balance for a real device like a laptop or a kettle.
Advanced portfolio project: Size a cooling loop or heat exchanger and confirm it with hand correlations before trusting software.
Typical employer evidence: energy balances, thermal-network models, correlation checks, and a clear sizing argument.
You may like this if: you are drawn to flight, light structures, aerodynamics, and tight performance margins.
Avoid this if: you prefer heavy, forgiving designs over strict weight and safety constraints.
Recommended tracks: Aerospace and mobility systems, Simulation and computational engineering.
Become strong in: aerodynamics, lightweight structures, propulsion, flight mechanics, stability and control, FEA, CFD, weight budgeting, certification culture, and safety-critical design.
Core courses:
Tools to learn:
First portfolio project: Analyze a simple wing or fin section: lift, drag, and a basic load path.
Advanced portfolio project: Study an aerospace subsystem such as a wing, duct, or lightweight structure, with analysis and validation.
Typical employer evidence: load-path sketches, stress and aerodynamic calculations, simulation with validation, weight statements, safety assumptions, and certification-aware trade-offs.
You may like this if: you like vehicles: how they ride, handle, brake, and manage heat and power.
Avoid this if: you would rather not work with messy real-world testing, packaging, and cost limits.
Recommended tracks: Aerospace and mobility systems, Design and manufacturing.
Become strong in: vehicle dynamics, structures, thermal systems, and testing.
Core courses:
Tools to learn:
First portfolio project: Model a quarter-car suspension and study how stiffness and damping change the ride.
Advanced portfolio project: Study a vehicle subsystem such as suspension, brakes, or thermal management, with analysis and test data.
Typical employer evidence: subsystem models, test data, calculations, and clear trade-off reasoning.
You may like this if: you enjoy open questions, models, and finding out what is really going on.
Avoid this if: you prefer fast, settled answers over long, uncertain investigation.
Recommended tracks: Research and academic path, Simulation and computational engineering.
Research-heavy roles, advanced R&D, and university teaching often require a master's degree or PhD.
Become strong in: mathematics, modeling, uncertainty, experiments, and scientific writing.
Core courses:
Tools to learn:
First portfolio project: Fit a model to one small experiment and report the value with its uncertainty.
Advanced portfolio project: Write a mini research report: a question, a model, validation against data, results, and limitations.
Typical employer evidence: a clear question, a documented model, validation, results with uncertainty, and honest limitations.
You may like this if: you like connecting people and parts: planning, coordinating, and making projects actually ship.
Avoid this if: you want to stay deep in one technical problem rather than span many at once.
Recommended tracks: Practice and career, Design and manufacturing.
Become strong in: systems thinking, requirements, planning, communication, and trade-off decisions.
Core courses:
Tools to learn:
First portfolio project: Write a short project plan for a small build: requirements, milestones, and risks.
Advanced portfolio project: Coordinate a multi-part project: requirements, interfaces, a schedule, and a final technical review.
Typical employer evidence: requirement documents, schedules, interface notes, decision logs, and a clear final report.
Next step
Use the interest picker to narrow the directions, then open the cards that fit.