Education
A degree in engineering can mean a lot of things, and course names by themselves aren't always fully descriptive. This page groups the courses I have taken into themed groups to give you a better overview of my formal training.
MSc courses in BOLD
BSc courses not bold
Metrology
No, not meteorology - metrology is the science of measurement.
Master's Thesis
In my thesis I investigated defects inside and on the surface of welds made between metal parts. Defect density in a weld has a profound impact on its strength and fatigue resistance, yet is difficult to get complete data on the defect size and spacial distributions without destructive testing. XCT holds promise as a method for non destructive examinaiton of welds, even on very complex parts where the welds may not be accesible by other methods. My research found that many types of defects can be idntified and measured with XCT. A quantification of the uncertainty is also performed using a calibrated object designed for XCT.
Special course in Metrology
Volume Additive Manufacturing, and more specifically here Tomographic Volumetric Printing is an additive manufacturing method where an entire object is materialised at once in a vat of thick resin, in opposition to layer by layer as is conventionally done. Unfortunately, due to the curing mechanism of the resin, the surface of the parts remain tacky after curing, which diminishes the practical utility of the technology. Oxygen inhibits the polymerisation of the resin, so it has been proposed that post processing the objects in a positively pressurised nitrogen filled chamber would reduce this effect. The project consisted of designing and manufacturing the chamber, as well as printing and post processing the test objects, which were indeed not tacky.
Geometric metrology & machine testing
This course develops capability in assessing the geometric accuracy of manufactured components and machine tools. The work encompasses coordinate measurement systems, acceptance testing procedures, and advanced techniques for verifying precision manufacturing compliance.
Precision Manufacturing
The second - but equally important - part of a degree in Materials & Manufacturing Engineering
Special course in manufacturing engineering
Structured light scanners are now avaliable at a record low price. Some models clain 'Metrology grade accuracy'. Since I found the devices very useful for work, I decided to do a special course where I would verify the advertised precision and accuracy of a low cost structured light scanner with a Coordiante Measuring Machine.
The scanner used greatly underperformed its stated specifications, underlining the importance of instrument validation when it does not come with a calibration certificate.
Precision Machining
Understanding subtractive manufacturing at high precision levels. This course covered CNC machining processes, tooling strategies, metrology integration, and the optimization of cutting parameters to achieve tight tolerances in diverse materials. In a small team of students I planned the CAM strategy for a small injection moulding insert which was designed to achieve extremely tight tolerances straight off the CNC mill - under 2 microns for some critical dimensions.
Micro-Product design
Comprehensive project-based learning in designing, engineering, and manufacturing micro-scale components and systems. Done in collaboration with Widex, a large hearing aid manufacturer in Denmark, I learned how designing parts for the micro scale is different from what I am used to.
Digital Manufacturing - Industry 4.0
Integration of physical manufacturing with digital technologies and data analytics. This course examined multi-physics simulation (finite element methods, computational fluid dynamics), statistical modeling (design of experiments, machine learning), and digital twin technology to optimize manufacturing processes. A lovely visit to a Novo Nordisk factory was also organised to see how some of these things are implemented in practice.
Advanced micro and nano fabricaiton
Exploration of manufacturing at the micro and nanoscale, including advanced deposition techniques, lithography, etching processes, and quality control methods for ultra-precision components. This course bridged materials science with cutting-edge manufacturing methodologies for next-generation applications. It was eye oppening to study the details of so many manufacturing processes that go into making semiconductors or MEMS in such detail.
Aerospace Systems Engineering, Design and Production
This capstone course integrated design and systems engineering principles specific to aerospace applications. The work encompassed requirements derivation, conceptual design, design reviews, and an introduction to manufacturing considerations for aerospace structures and systems
Materials Science
While I am more interested in manufacturing engineering, a strong foundation in materials science is crucial.
Materials in Advanced Applications and Products
Comprehensive study of materials selection methodology for engineering applications. I developed my capabilities in systematic material selection considering multiple constraints and conflicting objectives, including performance requirements, cost, manufacturability, and environmental sustainability. The work emphasized learning to select from hybrid material combinations and understanding real-world failures due to improper material choices. I also learned how to use specialised software for material selection - Granta.
Physical Metallurgy
Advanced study of the physical and physical-chemical principles governing microstructure evolution in metals and alloys. This course developed my understanding of phase transformations, diffusion phenomena, dislocation mechanics, and the thermodynamic and kinetic principles underlying strengthening mechanisms—critical knowledge for tailoring material properties through processing and heat treatment.
Metals Technology
This course is a precursor to Physical Metallurgy and examined phase diagrams, diffusion theory, heat treatment processes for ferrous and non-ferrous metals, strengthening mechanisms, and degradation phenomena including fatigue and creep—all essential to predicting service performance of metallic materials
Surface Engineering
Specialized study of surface modification and coating technologies for solving wear, tribology, and corrosion challenges. This course examined electrochemical, chemical, physical vapor deposition, thermal spraying (my favourite), and mechanical treatment methods, along with their integration to create innovative solutions for applications in tooling, medical devices, joining technologies, and offshore engineering.
Aerospace Materials and Structures
Fundamental understanding of the structural and material design of aircraft. This course covered the mechanical properties of aerospace materials, manufacturing techniques, fatigue analysis, load paths in structures, pressurization effects, and the integration of materials selection with structural design to achieve safe, efficient, and manufacturable aerospace systems.
Fluid Dynamics
A central part of an Aerospace curriculum which I expanded upon in my Master's.
Tribology of Machine Elements
Having only loosely read the course description I expected a course on bearing selection, instead I learned how to do preliminary sizing and simulations of hydrodynamic and hydrostatic bearings along with analysis of friction, wear, and lubrication in mechanical systems. It was a bit more than I asked for but I am still glad to have taken it.
Fundamentals of Acoustics and Noise Control
Foundational understanding of acoustics principles, sound generation mechanisms, and noise control strategies. This course examined both theoretical acoustics and practical applications relevant to aerospace vehicles, including sound propagation, radiation from sources, and mitigation techniques. I took it as an elective due to its relevance to my work at DeNoize.
Aerodynamics - Sub and Super Sonic
Advanced aerodynamics spanning subsonic and supersonic flow regimes. The course covered fundamental principles of incompressible and compressible flow, airfoil theory, aerodynamic analysis of aircraft configurations, and experimental aerodynamics including wind tunnel testing executed at the low-turbulence-tunnel at TU Delft.
Mechanical Engineering
While many of the categories above could fall into Mechanical Engineering, the courses listed here don't quite fit into any of them.
Fracture Mechanics
Understanding of fracture mechanics principles essential for predicting component failure and designing against catastrophic fracture. This course examined stress concentration, fatigue crack growth, and the application of fracture mechanics to structural design and damage tolerance assessment. It also included the most stressful exam I have ever taken.
Structural and Vibrational Analysis and Design
The course covered stress analysis, beam theory, finite element methods for structural analysis, and dynamic vibration analysis—providing tools for both analysis and design of structures subject to static and dynamic loading.
Engineering Mechanics
Foundational mechanics course covering statics and dynamics, essential for all engineering disciplines.
Aerospace Design and Construction
Project-based integration of design methodology within aerospace context.
Systems Engineering
I learned systems engineering in an aerospace context, but widely applied it at work in a product engineering setting.
Bachelor's Thesis
The Design Synthesis Exercise (DSE) is the culmination of the Aerospace Engineering Bachelor's Degree at TU Delft. My team's project concerned the design of an in space repair satellite, the mission of which would be to correct an electrical fault in a real, on-orbit, but non-functional satellite. I dealt with the design of the propulsion subsystem, as well as contributing to the design of several other subsystems. I made use of my CAD skills to recreate a model of the defunct satellite from it's documentation and photos, allowing us to effectively come up with a plausible repair strategy and also created most of the visualisations. I obtained a very high grade of 8.5 for my contribution to the project.
Aerospace Systems Design
Introduction to systems engineering applied to aerospace vehicles. This course developed capability in requirements definition, trade studies, design reviews, and the integration of multiple disciplines toward coherent system solutions.
Test, Analysis and Simulation
Methodologies for validation and verification of aerospace systems through testing, computational analysis, and simulation. This course covered experimental design, data analysis techniques, and the integration of physical testing with computational predictions.
Aerospace Engineering
Many of my Bachelor courses do not fall into any discipline other than aerospace.
Exploring Aerospace Engineering and Design
Project-based introduction to the breadth of aerospace engineering.
Introduction to Aerospace Engineering
Two-part foundational course establishing core principles across the aerospace discipline.
Flight and Orbital Mechanics & Propullsion
This course derived and applied equations of motion for flight phases including climb, turn, cruise, takeoff, and landing for aircraft, and launch, orbital insertion, and orbital maneuvers for space vehicles. I practiced for the exam by playing Kerbal Space Program and doing the calculations for orbital maneuvers by hand.
Aerospace Flight Dynamics, SVV Including Flight Test
Advanced flight dynamics including simulation and flight testing. This course covered nonlinear six-degree-of-freedom dynamics, simulation validation and verification, and practical application through flight test execution. The physical testing required each group to fly the TU Delft research aircraft over Rotterdam while collecting data from onboard sensors for later analysis. It even included some parabolic flights. I've done worse group projects.
Project Management
During my BSc degree I did a semester long minor in Management of Engineerig Projects at TU Delft.
Fit for Purpose Project Management
Foundational project management course establishing core methodologies, planning frameworks, and execution strategies aligned with project-specific objectives and constraints.
Process Management & Decision Making in Project Environments
Advanced study of decision-making processes and governance within project contexts, including risk management, stakeholder coordination, and adaptive management strategies.
Integration - Technical Project
Capstone integration project applying project management methodologies to a real or realistic engineering scenario, requiring synthesis of planning, execution, and stakeholder management. Unfortunately the topic was civil engineering, not aerospace.
Introduction to Project Finanse & Legal Aspects of Project Management
Essential knowledge of financial planning, contract structures, and legal frameworks governing engineering projects—critical for understanding project viability and organizational compliance. The course had a special focus on EU law, which I enjoyed more than anticipated.
Project Management Basics
Overview of project management fundamentals, tools, and processes applicable across engineering domains.
Basic Competences
Mathematics, Physics, Entrepreneurship or other one off courses.
Innovation in Engineering
Denmark's biggest innovation course! The course was mandatory and I found that I had already learned everything it had to offer and more through my work in startups.
Ready to Startup
Practical introduction to entrepreneurship and startup concepts, examining business planning, market analysis, patents, and team formation for technology ventures. Each group guides a startup they apply with through the course evaluating its business potential. The course is praised by entrepreneurs at YES!Delft and it was one of the best courses I've ever taken. It is a TU Delft course that I did during my BSc, but it is a graduate level course.
Quantitative Sustainability
Methodologies for quantifying and assessing environmental and sustainability impacts of engineered systems, including life cycle assessment and sustainability metrics. I learned to use the Idemat dataset to perform CO2 impact estimates.
Hystory of Technology
Contextual understanding of how technological innovation has shaped society, providing perspective on the role of engineers in broader societal and economic development. I used the final essay as an excuse to borrowed books on the history of CERN from a library in Copenhagen, and learned why it is different from all other EU scientific institutions.
Calculus I
Foundational differential calculus establishing mathematical tools for analysis and optimization essential across engineering disciplines.
Calculus II
Advanced integral calculus and multivariate analysis extending mathematical toolkit for engineering applications.
Linear Algebra
Mathematical foundations for systems of equations, matrix operations, and transformations—essential for computational methods, control theory, and structural analysis.
Physics
Comprehensive foundational physics covering mechanics, thermodynamics, waves, and electromagnetism—establishing the physical principles underlying engineering analysis.
Differential Equations and Probability & Statistics
Advanced mathematics for modeling dynamic systems and uncertainty quantification. Had the differential equations curriculum not been revised before I graduated I'm not sure I would have.
Applied Numerical Analysis and Computational Modeling
Development of numerical methods and computational techniques for solving engineering problems. This course covered finite element analysis, computational fluid dynamics, and algorithmic approaches to problems lacking closed-form analytical solutions.
Aerospace Signals, Systems and Control Theory
Application of signals and systems theory to aerospace vehicles. This course developed understanding of feedback control, stability analysis, and modern control design methods essential for flight control systems.
Programming and Scientific Computing in Python
Practical programming for engineering analysis and simulation. This course developed proficiency with Python for numerical computation, data analysis, and scientific visualization. LLM's have since delivered me from having to apply these skills very often.