Skip to main content

Electives

Mechanical Engineering

Every elective Zooky offers for this major.

Year 4 · Semester 1 · choose 1 of 5

  • Ready to learn · Level 4 · 6 points

    Design Innovation and Product Development

    How a product idea becomes a business case: market size, concepts, cost, prototypes, user tests and launch timing.

    Prerequisites: Introduction to Engineering

    What you'll learn (9 topics)
    • Innovation strategy and markets
    • From needs to concepts
    • Design for cost and value
    • Architecture and platforms
    • Prototyping and test planning
    • User testing and usability
    • Development economics and time to market
    • IP and licensing
    • Lean validation and unit economics
  • Ready to learn · Level 4 · 6 points

    Refrigeration, Air Conditioning and HVAC

    How a building is heated and cooled: heating and cooling loads, supply air and coils, ducts, chilled water and the balance of a refrigeration plant.

    Prerequisites: Fluid Mechanics, Engineering Thermodynamics

    What you'll learn (10 topics)
    • Thermal comfort and design conditions
    • Heating load and degree-days
    • Cooling load and wall response
    • Supply air and coil selection
    • Duct design
    • Fans and air-system control
    • Chilled-water and hydronic systems
    • Refrigeration plant balance and sizing
    • Refrigerants and environmental impact
    • Part-load and seasonal energy
  • Ready to learn · Level 4 · 6 points

    Composite Materials and Mechanics

    From the fibre to the failing laminate: ply stiffness and strength, micromechanics, laminate theory, cure stress and progressive failure.

    Prerequisites: no set prerequisites

    What you'll learn (10 topics)
    • Lamina stress and strain
    • Micromechanics and constituents
    • Lamina strength and failure criteria
    • Laminate stiffness: A, B and D
    • Hygrothermal effects and cure stress
    • Laminate failure
    • Laminate families and design by ply fractions
    • Laminated beams and plates
    • Tubes and pressure vessels
    • Processing and testing
  • Ready to learn · Level 4 · 6 points

    Additive Manufacturing and Design for AM

    From the mesh to the qualified part: layers, orientation, laser and thermal history, defects, lattices, topology, cost and qualification.

    Prerequisites: Manufacturing, Engineering Materials

    What you'll learn (11 topics)
    • Process families and the digital chain
    • Build orientation and supports
    • Laser powder-bed fusion parameters
    • Thermal history and residual stress
    • Density, porosity and hot isostatic pressing
    • Lattice and cellular structures
    • Topology optimisation
    • Design rules and part consolidation
    • Build cost and the business case
    • Directed energy deposition and binder jetting
    • Post-processing and qualification
  • Ready to learn · Level 4 · 6 points

    Advanced Control and Optimisation

    Control run by a computer: sampling and the zero-order hold, z-domain stability, digital equivalents and the digital current loop, then state feedback, observers, LQR, the Kalman filter and LQG, predictive control with input limits, and Lyapunov analysis.

    Prerequisites: Mathematical Methods, Control Engineering, Multivariable Calculus

    What you'll learn (18 topics)
    • Stability margins and Nyquist
    • z-transform: ROC, transfer functions, stability and inversion
    • Sampling and the zero-order hold
    • Analysis in the z-domain
    • Lead and lag compensators
    • IIR filter design: the bilinear transform, Butterworth filters and notches
    • Digital equivalents and PID
    • The delay and the digital current loop
    • State-space models
    • Discrete state space
    • State feedback and pole placement
    • Observers and output feedback
    • Maxima, minima and saddle points
    • Linear quadratic regulation
    • The Kalman filter, linear and extended
    • Kalman filter and LQG
    • Model predictive control, a first look
    • Lyapunov analysis

Year 4 · Semester 2 · choose 1 of 5

  • Ready to learn · Level 4 · 6 points

    Computational Fluid Dynamics

    How a flow solver works and when to trust it: advection schemes, linear solvers, stability, pressure coupling, wall treatment and verification.

    Prerequisites: Fluid Mechanics, Fluid Mechanics 2

    What you'll learn (10 topics)
    • Governing equations and models
    • Finite-volume advection schemes
    • Linear solvers for CFD
    • Unsteady schemes and stability
    • Pressure-velocity coupling
    • RANS models and inlet conditions
    • Near-wall treatment
    • Meshing and mesh quality
    • Domain and boundary conditions
    • Verification, validation and convergence
  • Ready to learn · Level 4 · 6 points

    Renewable and Sustainable Energy Systems

    How to power a country without carbon: hydropower, biofuels, geothermal, hydrogen storage, energy audits and the plan that adds them up.

    Prerequisites: Applied Thermodynamics, Fluid Mechanics, Engineering Thermodynamics

    What you'll learn (10 topics)
    • Hydropower and penstocks
    • Biomass fuels and biofuels
    • Geothermal power
    • Tidal and wave energy
    • Concentrating solar power
    • Hydrogen energy storage
    • Storage cost and thermal storage
    • Energy audit and verification
    • Efficiency measures and leaks
    • Net-zero system planning
  • Ready to learn · Level 4 · 6 points

    Internal Combustion, Combustion and Automotive Engineering

    From the cylinder to the road: engine maps, heat release and knock, flames and fuels, road load and acceleration, handling and electric-vehicle range.

    Prerequisites: no set prerequisites

    What you'll learn (10 topics)
    • Engine maps and part load
    • Heat release, spark timing and knock
    • Flames, fuels and mixtures
    • Emission indices and formation
    • Aftertreatment
    • Road load and acceleration
    • Braking and load transfer
    • Steady-state handling
    • Electric-vehicle energy and range
    • Hybrid energy management
  • Ready to learn · Level 4 · 6 points

    Machine Learning and Vision

    Learning from data and honest evaluation, linear and logistic models, classifiers, PCA and clustering, neural networks and backpropagation, 2-D image filtering, segmentation, convolutional networks, deep learning for signals, and squeezing a model onto a microcontroller.

    Prerequisites: Embedded Systems, Multivariable Calculus, Mathematical Methods

    What you'll learn (22 topics)
    • Events and probability
    • Point estimation: moments, maximum likelihood, bias and variance
    • Learning from data and evaluation
    • Least-squares regression
    • Gradient and directional derivatives
    • Linear and logistic models
    • Detection in noise: matched filter and bit error rate
    • Bayes, neighbour and tree classifiers
    • Joint distributions and correlation
    • Eigenvalues and eigenvectors
    • Features, PCA and clustering
    • The multivariable chain rule
    • Neural networks and backpropagation
    • Discrete convolution and impulse copies
    • Image filtering and edges
    • Thresholding, morphology and segmentation
    • Convolutional networks
    • Windowing and spectral estimation
    • Deep learning for signals
    • Low-power design: duty cycling, battery life, CMOS power and sleep break-even
    • Real-time basics: polling, utilisation, response time and state machines
    • Models on microcontrollers
  • Ready to learn · Level 4 · 6 points

    Manufacturing Systems and Industry 4.0

    Production planning and MRP, scheduling, lean, factory physics, line balancing, PLCs and flexible systems, industrial IoT and analytics, and supply chain and sustainable production.

    Prerequisites: no set prerequisites

    What you'll learn (8 topics)
    • Production planning and MRP
    • Scheduling and sequencing
    • Lean manufacturing
    • Factory physics and layout
    • Line balancing and automation
    • Cells, flexible systems and PLCs
    • Industrial IoT and analytics
    • Supply chain and sustainable production