The 2026 Spring STEM Report makes one thing clear: the STEM skills gap may have narrowed, but it is still a long way from being closed. In March 2026, around 133,900 STEM vacancies in Germany could not be filled on a calculated basis. In total, there were approximately 369,400 vacancies in STEM occupations, compared with around 274,100 registered unemployed people holding STEM qualifications. The crucial issue is not simply how many skilled workers are available, but whether their qualifications, level of expertise and location match the vacancies on offer.
And that is where things become interesting.
The STEM gap is smaller — but it is not small
Compared with the previous year, the gap has fallen: from around 163,600 in 2025 to 133,900 in 2026. At first glance, that sounds reassuring. Rather like getting 13 questions wrong in a maths test instead of 17. Progress? Yes. Cause for celebration? Perhaps briefly. A reason to forget the homework? Absolutely not.
Even in a weak economy, STEM professionals remain in short supply. That is particularly troubling because these are precisely the people needed to deliver future-focused projects and drive innovation: digitalisation, infrastructure, climate action, energy supply, defence, AI, mechanical engineering and construction — in other words, everything that must not merely look impressive on a PowerPoint slide, but actually be built, programmed, planned and maintained.
So, who exactly is missing?
The STEM gap is not evenly distributed. According to the report, the greatest shortage is among skilled technical workers. These are the experts without whom no plant runs, no control cabinet is wired and no factory floor quite smells of the future. The current breakdown in the 2026 Spring STEM Report is as follows:
| Occupational level | Unfilled positions in 2026 | Approximate share |
| Skilled STEM occupations (generally vocational qualifications) | 77.400 | approx. 58 % |
| STEM expert occupations (generally graduate-level roles) | 44.200 | approx. 33 % |
| STEM specialist occupations (generally master craftworker and technician roles) | 12.300 | approx. 9 % |
| Total | 133.900 | 100 % |
This means that Germany does not only need more graduates. It urgently needs vocationally qualified professionals, technicians, master craftworkers, hands-on practitioners and problem-solvers as well. Or, to put it less formally: Germany needs not only people who can design the robot, but also those who can connect it, maintain it and explain that Monday morning is no excuse for a system failure.
And then school enters the picture
One might say: ‘Then we simply need to train more people.’ Quite right. But that cannot be achieved with a wave of a magic wand. Fully qualified professionals do not simply fall from the sky at the age of 25, complete with a CV, safety boots and Python skills.
The STEM pipeline begins much earlier: in nursery, at primary school, in the classroom, during the first experiment, with the first ‘Why?’, the first broken bicycle, the first home-made electrical circuit — and sometimes with the first calculator that suddenly looks remarkably innocent during a test.
That is precisely why the 2026 IQB Standardisation Study is so interesting. It is not the sort of study that instantly produces headlines such as ‘Maths improves’ or ‘Reading declines’. It does something more fundamental: it helps test and standardise new assessment tasks linked to educational standards. Around 12,000 pupils in Years 3 and 4 are taking part at approximately 455 mainstream and special schools across all 16 German federal states. Data were collected from early March to early May 2026.
Sounds technical? It is. But it matters.
Before we can say whether children have reached particular levels of competence, we must first ensure that the tasks are fair, reliable and comparable across the country. Put simply, you cannot build a thermometer and immediately start measuring the temperature of education. First, you have to check that the thermometer works properly.
Surprise of the year: children learn better when lessons are enjoyable
And now for the part that may raise a small smile.
A recent analysis published in the Journal of Educational Psychology uses data from the OECD’s Global Teaching InSights study. The OECD study examines teaching in eight countries or economies using classroom videos, teaching materials, surveys of teachers and pupils, and attainment data. The analysis of teachers’ emotions draws on data from 679 mathematics teachers and more than 17,500 pupils.
The findings fit perfectly with what almost every child, many parents and probably every good teacher already knows: when teachers show genuine enjoyment in teaching, this is associated with better teaching quality, greater interest, more confidence and stronger learning outcomes among pupils.
Or, in less academic terms: when lessons come alive, more of the learning sticks.
And yes, one might reasonably ask: ‘Did we really need a study to tell us that?’ It feels a little like receiving scientific confirmation that curiosity is a rather effective way of opening the door to learning.
Yet that is precisely why the research matters. What appears obvious in everyday life is often only taken seriously within the education system once it is there in black and white, complete with sample, methodology and bibliography.
Enjoyment in learning is not an optional extra. It is not educational confetti sprinkled over the curriculum at the end. Enjoyment is a factor in learning.
This is particularly important in STEM. Science, technology, engineering and mathematics must not be served up as a dry compulsory exercise whose very heading already smells of an exam. Children need moments in which they realise: I understand this. I can do this. And perhaps I even enjoy it.
After all, nobody suddenly wakes up at 16 and declares, ‘I love electrical engineering’, after spending ten years learning that ‘maths is a room without windows’.
Good teaching does not mean that everything has to be easy. It means presenting difficult material in a way that makes children want to keep going — through curiosity, humour, experiments, real-life examples and teachers who show that learning is not a worksheet-based detention camp, but an invitation to understand the world a little better.
Why the STEM Report, the IQB study and the OECD findings belong together
At first glance, these three topics appear to come from entirely different worlds.
Here, the labour market.
There, primary school pupils.
And somewhere in between, an OECD classroom study on teachers’ emotions in mathematics lessons.
Yet all three are really concerned with the same question:
How do we help curious children become capable, confident young people who both can and want to shape the future?
The 2026 Spring STEM Report shows where the pressure will be felt later in the labour market. The 2026 IQB Standardisation Study looks much earlier and asks how pupils’ competencies can be measured fairly and comparably. The OECD-based analysis, meanwhile, reminds us that learning is not merely about delivering content. It is also about relationships, motivation, confidence and enjoyment.
That is the common thread: securing tomorrow’s skilled workforce does not begin at the job interview. It begins in the classroom — perhaps at the very moment a child realises: ‘Oh, maths is not a monster after all. It is more like a puzzle with rather poor public relations.’
Start early and strengthen potential
The studies suggest that securing a skilled workforce must be approached as a long-term task. Alongside university places, apprenticeships, continuing professional development and careers guidance, early support also has an important role to play. The key is to create learning environments in which children and young people can discover their interests and develop confidence in their own abilities.
STEM education can help make talent visible at an early stage and open up a range of educational pathways. This requires strong provision both in and beyond school, practical insight into real working environments and opportunities for young people to test their own strengths.
Positive learning experiences can help turn an early ‘I can’t do this’ into a later ‘I’ll give it a go’.
Motivation and self-confidence are essential foundations for lasting learning.
STEM needs more than formulae
Of course, STEM is about science, technology, engineering and mathematics. But it is also about curiosity. Courage. Problem-solving. A healthy attitude towards mistakes. And that wonderful feeling when, after 47 failed attempts, the LED finally lights up.
And yes: STEM is allowed to be fun.
STEM is often perceived as demanding. At the same time, it is creative, practical and solution-focused — and it helps make possible many of the things we take for granted in everyday life.
Without STEM, there would be no bridges, no apps, no heat pumps, no medicines, no connected mobility, no machinery, no energy grids and no secure digital infrastructure.
What needs to happen now
The 2026 Spring STEM Report is not a report of impending doom. But it is a wake-up call with tables attached. The situation is better than it was in 2025, yet it remains serious. The gap is smaller, but the structural challenges persist: demographic change, too few new entrants, and untapped potential among women, people with migrant backgrounds, older workers and those who have followed less conventional educational routes.
At the same time, education studies such as the 2026 IQB Standardisation Study and the OECD-based analysis of teaching show that good education does not begin only in vocational training or at university. It begins wherever children build skills, develop confidence and experience the feeling:
I can understand something. I can solve something. I can create something.
The central point is this: securing the skilled workforce is a shared responsibility across many areas. Business, education, families, integration and equal opportunities can all help people discover their potential and find different routes into STEM careers. It is also about creating learning opportunities that can turn ‘I can’t do this’ into ‘Hang on — this is actually rather interesting.’
Conclusion: the future will not build itself
The message from 2026 is fairly clear: Germany has potential. But potential is rather like a battery — it is not much use if nobody charges it
The 2026 Spring STEM Report tells us that skilled professionals are still urgently needed. The 2026 IQB Standardisation Study reminds us that we need to understand where children are at an early stage, so that support is based on evidence rather than instinct. And the OECD-based study on teaching and emotions shows that learning works better when lessons are not only accurate, but engaging as well.
Or, to put it another way:
Those who want tomorrow’s skilled workforce must take education seriously today — with quality, enjoyment and a generous helping of curiosity.
The future takes shape where knowledge, curiosity and practical experience come together — through calculating, building, programming, measuring, testing and improving. And sometimes it begins quite quietly, with a light-bulb moment in the classroom.
