Safety and optimization are not competing goals—they are intertwined from conception.
As industrial civilization pivots toward hydrogen energy and digital manufacturing, the question of how to move quickly without moving recklessly has grown urgent. In July 2026, the Technical University of Berlin and Germany's Federal Institute for Materials Research and Testing answered that question institutionally, opening a joint research body that refuses to treat safety and efficiency as opposing values. The partnership formalizes what eleven shared doctoral dissertations had already demonstrated: that the engineers who model systems and the engineers who test their limits belong in the same room.
- Hydrogen adoption, digital manufacturing, and sustainable chemistry are advancing faster than existing safety frameworks can reliably contain them.
- Process engineers and safety specialists have historically worked in separate silos, creating blind spots that slow innovation and raise industrial risk.
- The new institute links TU Berlin's simulation and optimization expertise directly to BAM's full-scale safety testing facility in Horstwalde, creating a feedback loop that catches problems before they become costly failures.
- Digital models can now be stress-tested against real-world experiments, and experimental data in turn sharpens the simulations — compressing the timeline from concept to validated industrial application.
- A new generation of engineers is being trained to treat safety and optimization as inseparable from the first moment a process is conceived, not as competing concerns to be reconciled later.
Two German research institutions have formalized a partnership aimed at one of industrial engineering's persistent blind spots: the artificial separation between making processes efficient and making them safe.
The Technical University of Berlin and the Federal Institute for Materials Research and Testing (BAM) opened their Joint Institute for Safe, Digital and Sustainable Process Engineering in July 2026. The collaboration brings together BAM's Department of Process and Plant Safety — specialists in large-scale hazard testing and regulatory compliance — and TU Berlin's Division of Dynamics and Operation of Technical Systems, which focuses on modeling and optimizing how industrial plants run. Eleven jointly supervised doctoral dissertations had already proven the concept; the new institute gives it permanent structure.
The timing is deliberate. Hydrogen energy, rapid digitalization, and sustainable chemistry all introduce safety challenges that conventional frameworks struggle to handle. The institute's central argument is that safety and optimization are not competing priorities to be balanced after the fact — they are intertwined from the moment a process is conceived.
The practical mechanism is an end-to-end research platform. Simulations developed at TU Berlin can be tested against full-scale experiments at BAM's Horstwalde facility in Brandenburg; data from those experiments then refines the models. This loop allows researchers to identify risks earlier and move validated findings into industrial use more quickly than either institution could achieve alone.
Professor Katharina Löwe of BAM described the institute as a natural deepening of existing collaboration, while TU Berlin's Professor Jens-Uwe Repke emphasized its educational mission: students and researchers at every level now work across complementary expertise and experimental scales, learning to treat process development and safety as a single discipline.
Research priorities span hydrogen deployment, AI-assisted plant design, novel safety assessment protocols, and resilient industrial infrastructure. The official opening at Horstwalde — featuring technical presentations, live demonstrations, and poster sessions — signaled Berlin's ambition to become a leading center for the kind of integrated, safety-conscious innovation that Europe's industrial transformation will increasingly demand.
Two German research institutions have joined forces to tackle a problem that traditional engineering has long treated as separate concerns: how to make industrial processes both safer and more efficient as the world shifts toward hydrogen energy and digital manufacturing.
The Technical University of Berlin and the Federal Institute for Materials Research and Testing (BAM) officially opened their Joint Institute for Safe, Digital and Sustainable Process Engineering in July 2026, bringing together researchers who have historically worked in different silos. On one side sits BAM's Department of Process and Plant Safety, which specializes in large-scale safety testing, hazard assessment, and regulatory compliance. On the other sits TU Berlin's Division of Dynamics and Operation of Technical Systems, which focuses on designing, modeling, and optimizing how industrial plants actually run. The two groups had already collaborated informally—eleven doctoral dissertations completed under joint supervision proved the concept worked—but the new institute formalizes and expands what was once ad hoc partnership.
The timing reflects genuine industrial pressure. Hydrogen production and use, the rapid digitalization of manufacturing, and the push toward sustainable chemistry all introduce safety challenges that existing frameworks struggle to address. Companies need to develop new processes faster, use resources more efficiently, and identify risks before expensive full-scale experiments. The institute's core insight is simple but powerful: safety and optimization are not competing goals that should be managed separately. They are intertwined from the moment a process is conceived.
The collaboration works by creating what both institutions call an "end-to-end research platform." Digital models developed in simulation can be tested against real-world safety experiments conducted at BAM's full-scale test facility in Horstwalde, Brandenburg. Conversely, data from those large experiments can inform and refine the simulations, making them more accurate and useful for the next round of design work. This feedback loop allows researchers to catch problems earlier, design experiments more strategically, and move validated findings into industrial practice more quickly than either institution could manage alone.
Professor Katharina Löwe, who heads BAM's safety department, framed the institute as a natural evolution of work already underway. "The Berlin Joint Institute builds on the long-standing collaboration between BAM and TU Berlin," she said, noting that the formal structure allows the partnership to deepen and gain visibility within the research community. Her counterpart at TU Berlin, Professor Jens-Uwe Repke, emphasized the human dimension: the institute is designed to train a new generation of engineers who think about process development, optimization, and safety as integrated challenges rather than separate specialties. Students, doctoral candidates, and postdoctoral researchers now have access to complementary expertise and experimental resources across multiple scales—from small pilot plants to full industrial demonstrations.
The institute's focus areas reflect the energy transition underway across Europe. Research priorities include the safe deployment of hydrogen as an energy source, artificial intelligence methods for plant design and operation, safety assessment protocols for novel processes, sustainable chemistry practices, and the design of industrial infrastructure resilient enough to handle new demands. Each of these areas benefits from the collision of safety expertise with systems engineering knowledge.
The official opening took place during a joint scientific program at BAM's Horstwalde test site, where researchers from both institutions presented technical work, ran demonstration experiments, and exchanged findings through poster sessions. The event signaled that Berlin, already a significant center for chemical and process engineering research, is positioning itself as a hub for the kind of integrated, safety-conscious innovation that industry will increasingly demand. For the chemical sector, energy companies, and policymakers watching how Germany manages its industrial transformation, the institute represents a concrete answer to the question of how to move faster without cutting corners on safety.
Citas Notables
The Berlin Joint Institute builds on the long-standing collaboration between BAM and TU Berlin. With the Joint Institute, we are strengthening this cooperation and raising its profile.— Professor Katharina Löwe, Head of Process and Plant Safety Department at BAM
We are training a new generation of experts who think about process development, process optimization, and plant safety together from the very beginning.— Professor Jens-Uwe Repke, Head of Division of Dynamics and Operation of Technical Systems at TU Berlin
La Conversación del Hearth Otra perspectiva de la historia
Why did these two groups need a formal institute? Hadn't they already been working together?
They had, but informally. Eleven joint dissertations proved the model worked. The institute formalizes it, gives it resources, and signals to industry and students that this is the future of the field.
What's the actual innovation here? Combining safety and efficiency sounds obvious.
It is obvious in hindsight. But engineering has traditionally separated them—safety people in one building, process engineers in another. They spoke different languages, used different tools. The institute forces them to speak the same language from day one.
How does the digital-to-physical feedback loop actually work?
You build a computer model of a new hydrogen process. You test it against real safety experiments at their full-scale facility. The real data refines the model. The refined model tells you what to test next. It's faster and cheaper than trial and error.
Who benefits most from this?
Industry gets safer, more efficient processes faster. Students get trained to think holistically instead of in silos. And Berlin gets to claim it's a center for the kind of integrated research that the energy transition demands.
What happens if the digital model and the real experiment disagree?
That's the whole point. That disagreement is where you learn something. You find the gap in your understanding before you scale up to full production.