What modules are included in the Bachelor’s degree in Industrial Systems Engineering?

How is the curriculum for the Bachelor’s degree in Industrial Systems Engineering organised?

The degree lasts four years and is organised into two four-month terms per academic year. The modules are divided into three categories:

• Core modules (FB): cross-disciplinary subjects that form the scientific and technical foundation for engineers.
• Compulsory (OB): the core of the degree programme, specific to the course and essential for graduation.
• Elective modules (OP): available mainly from the third year onwards, to specialise your profile in areas such as industrial electronics, robotics or energy.

The programme is structured in a progressive and coherent manner. The first two years build your foundation as an engineer from scratch: physics, mathematics, materials science, electrical engineering and thermodynamics. The third year consolidates and specialises your knowledge, with advanced modules and your first optional subjects. The fourth year brings you closer to the real world, with project management, industrial safety, work placements and the Final Year Project.

First year: the scientific foundation that underpins everything

The first year has a very specific aim: to equip you with the scientific and mathematical rigour upon which everything else will be built.

Physics and Mathematical Foundations of Engineering are, by far, the two most demanding modules in the first year. With 9 credits each and running throughout the academic year, they require constant effort from day one. They are not subjects to be memorised: they must be understood and practised. Those who approach them with discipline from the outset have a real advantage for the rest of their degree; those who leave them until the end of the term will struggle.

Technical Drawing is a subject that many underestimate at the start but later recognise as one of the most useful: reading, interpreting and representing parts in 2D and 3D is a skill you will use constantly in real-world projects. Technical English for Engineers rounds off the specialised module: English is the language in which the standards, articles and technical specifications you’ll need to deal with throughout your career are published.

Second year: when the technical demands step up a gear

For most students, the second year is the most intense of the degree programme. This is because the technical workload increases significantly and, at the same time, the level of abstraction also rises considerably.

Mechanics, Kinematics and Machine Dynamics are the subjects that require the most study time. Understanding the behaviour of bodies, power transmission and mechanisms involves solving many problems, not just reading theory. Electrical Engineering and Electrical Machines is another fundamental pillar: circuits, motors and electrical installations are at the heart of any industrial system.

Thermodynamics and Heat Transfer is the subject that most surprises students due to its conceptual depth. Thermodynamic cycles, heat transfer and the design of energy systems require a physical and mathematical way of thinking which, once fully grasped, opens the door to one of the most sought-after areas in the sector. At the same time, Production Organisation and Integrated Engineering introduce students for the first time to a business perspective and management systems, preparing them for the more vocationally-oriented modules in subsequent years.

Third year: technical specialisation and first electives

The third year combines advanced modules with the first real opportunity to specialise your professional profile.

Strength of Materials commands a great deal of respect amongst industrial engineering students: the analysis of stresses, strains and failure criteria is highly technical and applies directly to the design of any real-world mechanical component. It is one of the subjects that most distinguishes industrial systems engineers from other technical specialisms.

Automatic Control is another key subject: industrial process control, feedback loops and PID controllers are found in any modern manufacturing plant. And ‘Big Data & Analytics Fundamentals’ reflects the direction in which the industry is heading: data is now a strategic lever in production environments too, and knowing how to analyse it is not an option, but a competitive advantage. The optional modules on this course allow you to specialise in digital electronics, electrical installations or machine control, depending on your interests.

Fourth year: the leap into the professional world

The fourth year combines advanced specialisation with your first real-world professional experience.

Industrial Safety is not just a compulsory module; it is a genuine market requirement: any engineer working in manufacturing environments needs to be familiar with risk prevention regulations, operational protocols and safe design criteria. Logistics Engineering completes the profile of the industrial systems engineer as a professional capable of optimising the supply chain, one of the areas in highest demand in today’s industry.

External work placements and the Final-Year Project are the definitive bridge to the labour market: the former provide you with real-world experience in companies within the sector; the latter demonstrates that you can solve a complex technical problem independently and in a well-reasoned manner – which is exactly what any employer looks for.

What is the most difficult module on the Bachelor’s Degree in Industrial Systems Engineering?

There is no single answer, but there are modules that result in the highest number of failures and require the most study hours at practically all universities:

• Strength of Materials tops almost every list. The combination of elasticity theory, structural analysis and mechanical design problems makes it the greatest technical challenge of the degree programme.
• Thermodynamics and Heat Transfer is the other major contender. The concepts are physically complex and the problems require integrating several principles at once.
• Mechanics, Kinematics and Machine Dynamics also command a great deal of respect, particularly when the analysis of mechanisms and vibrations comes into play.

The important thing is to understand that in industrial engineering, the difficulty rarely stems from concepts that are impossible to grasp, but rather from the need to apply various areas of knowledge simultaneously to solve a real-world problem. Constant practice is what makes the difference.

Which is the most difficult year of the Bachelor’s degree in Industrial Systems Engineering?

Definitely the second year. The reason is structural: it is the year in which the most demanding aspects of mathematics (Advanced Mathematics ), applied physics (Mechanics, Thermodynamics), electronics and manufacturing all converge, with a workload of 60 credits that demands rigorous planning and constant effort. The leap from the first year is significant, and many students acknowledge that this was the year in which they had to completely change the way they studied.

What is the most difficult part of studying Industrial Systems Engineering?

The answer given by those who have already graduated is often surprising: the hardest part is not learning how to calculate, but learning to think like an engineer. Solving a real-world problem involves identifying what data you have, which physical model applies, which simplifications are reasonable, and what the result means in practical terms. That engineering reasoning takes time and practice, and it is the skill that truly sets a good engineer apart.

On a more practical level, other common difficulties include the intensity of exam periods when several technical modules overlap, the need to integrate physics, mathematics and thermodynamics within a single problem, and the final-year projects, which, for the first time, do not have a single, correct solution.

Which is the most important year of the Bachelor’s degree in Industrial Systems Engineering?

It depends on your goal. If you’re looking for a rock-solid foundation, the first year is the most critical: physics and engineering mathematics are the building blocks of everything else. If you grasp these well from the start, the rest of the degree will go much more smoothly.

If your aim is to enter the job market, the third and fourth years are the most decisive: Strength of Materials, Automatic Control, Big Data , well-chosen optional modules, work placements and the final-year project (TFG) all contribute to building the professional profile that companies will value.

Which optional modules can you choose?

From the third year onwards, you can tailor your degree with modules covering the most in-demand areas of modern industrial engineering :

• Digital Electronics and Microprocessors: design of embedded systems for industrial environments.
• Low and Medium Voltage Installations: electrical regulations and installation design.
• Machine and Drive Control: frequency converters, servomotors and advanced process control.
• Graphical Engineering: Standardisation: technical representation and industrial standardisation.
• Industrial Robotics: programming and design of robotic systems in manufacturing.
• Machine Design: sizing of mechanical components based on strength criteria.
• Smart Mobility: sustainable mobility and intelligent transport systems.
• Power Stations and Thermal Power Stations: power generation, a strategic area in the energy transition.
• Power Electronics: energy conversion and efficiency in industrial systems.
• Instrumentation: sensors, actuators and industrial measurement systems.
• High-Voltage Installations: electricity transmission and distribution infrastructure.
• BIM : information modelling for industrial facilities and infrastructure.

If you’re interested in the energy sector, combine Power Stations, Thermal Power Stations and Power Electronics. 

If you’re interested in automation and Industry 4.0 , Machine Control, Industrial Robotics and Digital Electronics make for a very solid combination with growing demand in the labour market.

Conclusion

The curriculum for the UAX Bachelor’s Degree in Industrial Systems Engineering trains engineers for the 21st-century industry: with a solid foundation in physics, mathematics, materials and thermodynamics, and with training in automation, data analysis, sustainability and project management. The most demanding year is the second; the most dreaded module is usually Strength of Materials; and the greatest challenge lies not in memorising formulas but in developing engineering thinking. With the right optional modules and a good work placement, the four years’ effort ultimately results in a highly versatile professional profile, with excellent employability in virtually any industrial sector.

Sources:

• Curriculum for the Bachelor’s Degree in Industrial Systems Engineering – UAX