DeepTech & Brain-Computer Interface

Zander Labs Enters the US Market With Passive Brain-Computer Interface Technology — The Dutch-German DeepTech Company Seeking Partners to Integrate Neuroadaptive AI Into Defence, Healthcare, Robotics, and Autonomous Systems Across the West Coast

Originating from a collaboration between Dutch and German neuroscientists, Zander Labs has developed passive BCI technology that continuously reads human mental states — including workload, focus, intent, and error recognition — without requiring any active input from the user, enabling AI systems to adapt in real time to the cognitive state of the operator across high-stakes roles from air traffic controllers and medical specialists to autonomous vehicle pilots and defence operators.

4 min read


Zander Labs, a Dutch-German neuroadaptive AI company specialising in passive brain-computer interface (pBCI) technology, has announced its entry into the US market. The company is now actively seeking partners — with a particular focus on Bay Area and San Francisco-based organisations — who are interested in integrating its neuroadaptive AI platform into their own software, hardware, and AI solutions. The expansion targets sectors where the ability of AI systems to understand and respond to human mental states in real time is most commercially and safety-critical: defence, mobility, robotics, healthcare, and other human-centred AI applications, as well as highly complex specialist roles including air traffic controllers, medical specialists, and professional trainers.

What Passive BCI Technology Does — and Why "Passive" Changes Everything

The distinction between passive and active brain-computer interfaces is fundamental to understanding Zander Labs' market position. Traditional active BCI systems require users to deliberately generate specific brain signals — concentrating on mental imagery or blinking in controlled patterns — to produce an output the computer can interpret. This places a cognitive and physical burden on the user that limits active BCI to controlled clinical or research environments. Passive BCI technology takes a fundamentally different approach: it continuously and subconsciously monitors brain activity without requiring any deliberate input from the user at all. The system reads ongoing neural signals as the user goes about their task normally — capturing mental states including cognitive workload, attention levels, error-related potentials, and intent — and feeds those signals into the AI platform in real time.

Zander Labs captures these brain signals through its own proprietary hardware and processes them using its own software, combining the raw neural data with contextual data and AI algorithms to produce actionable state estimates that AI-powered systems can act upon. The result is an AI system that knows — without being told — whether the operator is cognitively overloaded, has detected an error, is losing focus, or is approaching a decision threshold. In a fighter aircraft cockpit, an automated trading floor, or a complex surgical procedure, this capability allows the AI layer to modulate its behaviour, increase or decrease automation, surface alerts differently, or redistribute task complexity in ways that are contextually appropriate to the human's actual cognitive state at that moment. The system adapts to the human rather than requiring the human to adapt to the system.

"Our technology is not an end product but a building block. We want to work with partners who share our belief that the future of AI and technology is neuroadaptive. The US market offers a tremendous opportunity to integrate our neuroadaptive AI technology into new, innovative solutions. The recent developments and milestones we achieved show that we are technologically ready for the next step and are able to work with global partners on new use cases that will have global impact."
— Jonathan Zwaan, CEO, Zander Labs

A Platform Architecture Built for Integration — Not a Standalone Product

Jonathan Zwaan's framing of the technology as a "building block" rather than an end product is deliberate and strategically significant. Zander Labs is not entering the US market as a direct competitor to existing AI platform providers — it is positioning its neuroadaptive layer as an integration capability that makes existing AI systems more human-aware. Partners integrate pBCI solutions into their own software, hardware, or AI platforms, adding the neuroadaptive sensing layer without replacing the underlying system architecture they have already built. This approach dramatically lowers the barrier to adoption: organisations do not need to rebuild their platform or retrain users on a new interface. They integrate a new data stream — human brain state — that their AI can consume alongside other contextual inputs, with Zander Labs providing the hardware, the signal processing software, and the validated algorithms that translate raw EEG signals into interpretable mental state estimates.

The platform is built on a privacy-first architecture — a design decision that is practically important for enterprise and defence adoption. Brain data is among the most sensitive personal data that any system can process, and the deployment of pBCI technology in workplace, military, or healthcare contexts raises legitimate questions about consent, data storage, inference limitations, and misuse risk. Zander Labs has built privacy protections into the architecture from inception, with processing designed to generate only the mental state estimates that the integrated system needs — cognitive workload, attention level, error signals — without storing or transmitting raw neural data in identifiable form. This privacy-first approach, combined with scientifically validated algorithms and scalable hardware, is described by the company as what makes it possible to responsibly connect human cognition with intelligent systems at enterprise scale.

The Target Sectors and the European Foundation Behind the Technology

Zander Labs expects neuroadaptive technology to play an increasingly central role across sectors where safety and human wellbeing are paramount. In defence, the ability to monitor operator cognitive state in real time enables adaptive automation that reduces mission-critical errors under high-stress conditions. In mobility and autonomous systems, passive BCI creates a safety layer that can detect driver or operator cognitive degradation and trigger intervention before an incident occurs. In healthcare, it opens possibilities for procedure monitoring, fatigue detection in clinical staff, and neurofeedback applications. In physical AI and robotics, the ability for a robotic system to adjust its behaviour based on the real-time cognitive state of its human operator moves human-machine teaming beyond fixed command-and-control protocols into genuinely adaptive collaboration.

Zander Labs originated from a collaboration between Dutch and German researchers and engineers and operates multiple R&D locations in Europe, combining fundamental neuroscience research with applied AI and hardware development through a multidisciplinary team of scientists, PhDs, and engineers. The company's scientific roots give its platform a research credibility that distinguishes it from the growing number of consumer-grade neurotechnology products entering the market — the algorithms are validated, the hardware is purpose-built, and the neural signal processing has been developed over years of academic and applied research rather than assembled from general-purpose components. Information on partnership opportunities and integration pathways for US companies is available at zanderlabs.com/business.

Key Takeaways

  • Zander Labs, a Dutch-German neuroadaptive AI company specialising in passive brain-computer interface technology, has entered the US market and is actively seeking partners — focused on Bay Area and San Francisco organisations — to integrate its pBCI platform into existing software, hardware, and AI solutions across defence, mobility, robotics, healthcare, and complex specialist roles
  • Passive BCI is architecturally distinct from active BCI: it continuously and subconsciously monitors brain activity — reading cognitive workload, attention, intent, and error signals — without requiring any deliberate input from the user, enabling AI systems to adapt to the operator's actual cognitive state in real time while the user performs their task normally
  • The technology is designed as a building block, not an end product: partners integrate the pBCI sensing layer into their existing platform architectures by adding human brain state as a new real-time data input, without replacing existing systems or retraining users — significantly lowering the adoption barrier for enterprise and defence applications
  • A privacy-first architecture is central to the platform's enterprise and regulated sector suitability: the system generates only the mental state estimates the integrated system needs — cognitive workload, attention level, error signals — without storing or transmitting raw neural data in identifiable form, addressing the consent, data security, and misuse risk questions that arise when processing brain data in workplace and military contexts
  • Zander Labs' scientific foundation — originating from Dutch-German neuroscience research with validated algorithms, purpose-built hardware, and a multidisciplinary team of scientists and PhDs — distinguishes its platform from consumer-grade neurotechnology products, positioning it as a credible partner for safety-critical applications in defence, autonomous systems, clinical healthcare, and physical AI and robotics
Tags: Brain-Computer Interface Neuroadaptive AI DeepTech Human-Machine Interaction Defence AI Healthcare Technology