Issue 02 | creator | #Surgery

Built to Collaborate

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“That looks exciting,” says the cameraman, pointing to a futuristic-looking object being wheeled out of the room. “But you’re not allowed to film that,” says Max Krinninger, Vice President of R&D at Brainlab Robotics GmbH, with a laugh. He has no intention of revealing what he and his robotics colleagues are currently working on. But one thing is clear: the philosophy behind it follows the same principles as those which guided the making of Cirq, the current surgical robotic system from Brainlab. While the cameras were rolling, Max walked us through this way of thinking. 

The top priority? Designing robots that adapt to clinical reality—not the other way around. Cirq, for example, draws inspiration from the natural collaboration between a surgeon and their assistant. In practice, this means the human operator does the rough positioning, and the robot handles the fine alignment. Importantly, this ensures that the surgeon maintains full tactile control and visual feedback throughout the procedure.

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Cirq for Spinal 
Freedom through robotic automation 

What Cirq clearly demonstrates is that surgical robots are more than just the repurposing of industrial robots in the operating room. While those systems excel in environments where every parameter is fixed, surgery is anything but predictable. The surgeon’s region of interest might be a moving target due to breathing, each patient’s anatomy is different, each procedure is unique, and not even the firmness of the operating table mattress is always the same. A surgical robot must therefore be flexible, intuitive, and designed to adapt in real time. 

Cirq reflects this need for flexibility. The system is compact, integrates seamlessly into surgical workflows, and can be repositioned when needed—all without taking up any floor space. According to Max, this is precisely why this technology is being embraced by users around the world. 

“Every minute in the O.R. counts, so we will always use robotic technology in a manner that’s easy to understand, easy to use, and that allows perfect integration into the surgical workflow.”

Max Krinninger, Vice President of R&D, Brainlab

So, what exactly was that mysterious object in the background? Max isn’t saying. But if you watch the full interview, you’ll get a sense of just how much thought, experience, and ambition is shaping the future of surgical robotics at Brainlab. 

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| doctor | #Hardware

“As a surgeon, you don’t get a second chance”—how navigation and robotics support precision and safety

“If you’re not absolutely precise here, things can get critical very quickly,” says Stefan Huber-Wagner, MD, pointing to the cervical spine. “This is where the two posterior cerebral arteries run. The nerve roots that control the biceps, triceps and fine motor skills of the fingers pass through this channel. And just millimeters away lies the spinal cord.” 

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| visionary | #Hardware

“It’s the workflow that matters—not the robot”

Robots in the operating room—it still sounds a bit futuristic. But what really matters when it comes to making them useful for doctors and patients? 

Professor Bernhard Meyer, MD, Director of Neurosurgery at the Technical University of Munich, and Nils Ehrke, President EMEA at Brainlab, explain why robotics in the O.R. isn’t an end in and of itself, the value robotics can bring, and what high-performance surgery has in common with professional sports. 

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| patient | #Hardware

Minimally-invasive surgery—maximal quality of life: Sandra Beck’s return to sports

At one point, Sandra Beck’s pain became unbearable and conservative treatment methods were no longer providing adequate improvement. Osteochondrosis, a condition of the bones and cartilage of the spine caused by wear and tear, was impacting her day-to-day life too much. The team of Markus Bruder, MD, at Kantonsspital in Aarau, Switzerland, opted for a special surgical method known as Cortical Bone Trajectory (CBT) to stabilize the spine with the least possible interference with the surrounding tissue. The team would be supported by Curve Navigation and the robotic arm, Cirq, both from Brainlab.   

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