Who protects our minds in the age of neurotech?
- Sylvain Cottong
- May 23
- 9 min read
Updated: Jun 4

Yesterday, I watched an episode of scobel on 3sat titled “Brain Hacks – Who Protects Our Thoughts?”. It sparked a deep dive into the future of brain-computer interfaces and computational neuroscience with ChatGPT. Together, we explored both optimistic and cautionary paths, framing four scenarios using Dator’s model.
Interestingly, the same logic applies to humanoid robots.
Later that day, I watched “Trump and Silicon Valley – Tech Billionaires’ Coup” on German TV channel ZDF, presenting what felt like a real-time dystopia—an emerging tech oligarchy where democracy bends under algorithmic power:
The political development in the USA, in which tech billionaires such as Elon Musk and Peter Thiel, together with Donald Trump, are weakening democratic institutions and driving forward a takeover by the economic elite, is described in current analyses as the emergence of a “tech oligarchy” or “digital oligarchy”. This involves authoritarian rule by a few super-rich people who reject democratic principles and want to run the country like a company under a powerful CEO.
Some pioneers of this movement, such as Curtis Yarvin, even openly speak of a “modern monarchy” or a “monarchy of the technical elite” as the goal. Historians and political scientists also characterise this development as a “digital coup d'état” or “putsch” by the tech elite.
Now imagine such a tech-oligarchy in control of future neurotech....
All of this underscores that we need futures thinking more than ever. This is urgent work for foresight professionals, policymakers, and anyone shaping tomorrow.
Here's the exploration:
🔬 1. State of the Art in Brain-Computer Interfaces (BCIs)
The state of the art in Brain-Computer Interfaces (BCIs) and Computational Neuroscience is advancing rapidly, especially at the intersection with AI and neurotechnology. Here’s a structured overview that addresses questions on current capabilities, roadmap, ethical issues, and leading players:
BCIs are systems that enable direct communication between the brain and external devices. Current capabilities fall into several categories:
✅ Non-invasive BCIs (e.g. EEG, fNIRS, MEG)
Commercial: Used in neurofeedback, gaming (Emotiv, NextMind), mental health.
Scientific: Can decode simple cognitive states, motor imagery, visual/auditory stimuli.
Limitations: Low spatial resolution, limited information throughput.
✅ Invasive BCIs (e.g. implanted electrodes, ECoG, Utah arrays)
Precision: Can record individual neuron activity.
Applications: Restoring speech, controlling robotic limbs, vision restoration.
Breakthrough: In 2023–24, Neuralink received FDA approval for human trials. Similar progress from Synchron and Blackrock Neurotech.
🧠 2. State of the Art in Computational Neuroscience
This field uses mathematical modeling and computer simulations to understand brain function:
Capabilities:
Neural encoding/decoding: Mapping how sensory or motor information is represented in brain signals.
Virtual brain models: e.g. The Blue Brain Project (EPFL), Human Brain Project (EU).
Connectomics: Mapping neural connections at micro- and macro-scales (e.g., Allen Brain Atlas, MICrONS).
Applications:
Disease modeling (e.g., Parkinson’s, epilepsy)
Brain simulation for AI/neuromorphic computing
Synthetic brain architectures
🧠💭 3. Can We Read Thoughts Yet?
We cannot “read thoughts” in the Hollywood sense, but we are getting closer to decoding structured mental content:
Examples:
Visual Reconstruction: Reconstructing images people are viewing using fMRI and AI (e.g., from UC Berkeley, Osaka University, Meta).
Speech Decoding: Turning neural signals into words/speech in real time (Stanford 2023, UCSF).
Motor Intent: Controlling prosthetics or cursors with imagined movement (Neuralink, BrainGate).
Dream Reconstruction & Memory Retrieval: Early-stage, mostly conceptual and experimental.
🔮 Next Decade Forecast: Decoding high-level concepts (e.g., inner speech, abstract thought) may become partially feasible, especially with multimodal AI and higher-resolution brain interfacing. Full “mind reading” remains speculative.
🗺️ 4. Roadmap and Milestones
⚠️ 5. Risks and Ethical Challenges
❗ Ethical and Societal:
Cognitive privacy: Who owns neural data? Consent?
Neurosecurity: Risk of brain “hacking” or manipulation
Identity and agency: If AI co-interprets your thoughts, who’s responsible?
Mental manipulation: Subliminal influence, behavior nudging
Inequality & access: Neuro-enhancement for the wealthy?
⚖️ Regulatory Gaps:
No unified global neuroethics framework
NIH, OECD, and IEEE are developing ethical guidelines
UNESCO proposed a “Universal Declaration on Neurotechnology Ethics” (draft stage)
🤖 6. Role of AI in Neurotech
AI is indispensable in modern BCI and computational neuroscience:
Deep learning: Used to decode neural activity (speech, images, motion)
Transformers & GANs: For reconstructing thoughts or dreams from brain data
RL & Bayesian modeling: To simulate learning in synthetic brains
Brain-inspired AI: Neuromorphic computing (e.g., Intel’s Loihi, IBM’s TrueNorth)
AI not only interprets brain signals — it increasingly co-evolves with neurotech, possibly blurring the line between computation and cognition.
🏛️ 7. Leading Companies, Labs & Institutions
⚙️ Companies
Neuralink (Elon Musk) – invasive BCI, human trials underway
Blackrock Neurotech – medical BCI, already in patients
Synchron – endovascular BCI (less invasive)
Corti – AI-assisted neurological monitoring
Emotiv, OpenBCI, Neurable – non-invasive, consumer-grade BCIs
🧪 Research Institutes & Labs
Stanford Neural Prosthetics Translational Lab
UCSF Chang Lab – speech decoding
MIT McGovern Institute
Berkeley AI Research (BAIR)
Allen Institute for Brain Science
Human Brain Project (EU)
Blue Brain Project (EPFL, Switzerland)
📘 Suggested Readings & References
IEEE Neuroethics Roadmap
NIH BRAIN Initiative
Neuralink Whitepaper & Trials
Nature Neuroscience: AI + BCI Special Issues
“The Age of Surveillance Capitalism” by Shoshana Zuboff (relevant to cognitive privacy)
Ethically acceptable, human-centric innovations
Here’s a forward-looking roadmap showing how Brain-Computer Interfaces (BCIs) and Computational Neuroscience can be used for good, focusing on ethically acceptable, human-centric innovations across health, accessibility, learning, well-being, and societal development.
🌍 Vision: Neurotechnology for Human Flourishing
Goal: Use BCIs + Computational Neuroscience to enhance well-being, restore function, expand human potential, and respect autonomy, privacy, and equity.
🛤️ Roadmap for Ethical Neurotechnology Innovation (2025–2040+)
💡 Potential Ethically Positive Applications
🧠 Health & Medicine
Neurorehabilitation after stroke, TBI, or neurodegeneration
BCI-controlled exoskeletons for spinal injury
Closed-loop implants that predict and prevent seizures
🦾 Accessibility & Inclusion
Communication for locked-in patients
Cognitive assistive tech for aging and neurodivergent individuals
Haptic feedback BCIs for blind or deaf users
📚 Education & Learning
Brain-informed adaptive learning platforms
Neurofeedback-based study aids for focus and retention
Mind-state awareness tools to teach emotional literacy
🧘 Mental Health & Well-being
BCIs for early burnout detection
AI-guided meditation & resilience tools
Non-pharmacological depression support (e.g. tDCS + BCI)
🧭 Societal Good & Collaboration
Collective neurofeedback for empathy and conflict resolution
Neuroscientific models to support inclusive policymaking
Ethical neurogaming to promote prosocial behavior and mental fitness
🛡️ Ethical Principles for Safe Deployment
1. Cognitive Liberty
No one should be forced to share, alter, or enhance their brain activity.
2. Mental Privacy
Raw and processed brain data must be protected like medical records — or more strictly.
3. Transparency and Explainability
AI systems that interpret brain data must be auditable, interpretable, and bias-aware.
4. Human-Centered Design
Every system should align with user agency, consent, and dignity.
5. Equity of Access
Avoid a neurotech divide. Make BCI and cognitive tools accessible globally and affordably.
🧭 International & Policy Efforts to Build Upon
UNESCO: Toward a global framework for neuro-rights
OECD: Recommendation on responsible innovation in neurotechnology
NeuroRights Foundation: Advocates for mental integrity and identity protections
IEEE Neuroethics Initiative
🚀 Strategic Leverage Points for Innovation Ecosystems
🧠 Foresight Scenarios: Neurotechnological Futures (2025–2045)
Focal Issue:
The convergence of brain-computer interfaces (BCIs), computational neuroscience, and AI raises opportunities for health, learning, cognition, and connectivity — but also deep ethical, societal, and geopolitical dilemmas.
Key Drivers:
AI + neural decoding breakthroughs
Mental privacy legislation / neuro-rights
Accessibility and public health innovation
Private tech dominance vs. public research
Cultural attitudes toward brain enhancement
Global inequality in neurotech access
🧭 Scenario 1: Neurocare Society (Continuation / Status Quo+)
✳️ Summary:
Neurotechnology becomes a trusted tool in healthcare, education, and mental wellness. Public regulation ensures safety and equity, with high adoption in OECD countries.
🔹 Signals:
WHO & OECD roll out neuroethical standards
Public-private partnerships expand neuro-rehab and mental health access
Widespread use of non-invasive BCIs for aging populations
🔸 Impacts:
Improved life quality for neurodiverse and elderly individuals
Mental health stigma declines as neurofeedback tools gain popularity
Surveillance concerns remain low due to strong regulation
🎯 Policy Levers:
Universal neuro-rights legislation
Public investment in open neurotechnologies
Integration of neuroethics into medical education
🌐 Scenario 2: Neurocapitalism (Market-Driven Transformation)
✳️ Summary:
Neurotech becomes a commodity. Elite individuals and corporations use neural enhancement tools to gain productivity, attention, and learning advantages. A brain-data economy emerges.
🔹 Signals:
Neuralink launches a premium “cognition-as-a-service” platform
Employers adopt BCIs to track attention and emotional states
Schools begin piloting “neuro-enhanced learning”
🔸 Impacts:
Neurotech divides society into augmented vs. non-augmented classes
Consent becomes blurred in workplace and education settings
Mental privacy is commodified and traded
⚠️ Risks:
Exploitation of brain data
Coercion to adopt “enhancements”
Biased AI interpretations of neural patterns
🎯 Mitigations:
Mandate brain-data ownership
Regulate corporate neurotech use like biometric data
Ethical review boards for neuro-AI deployments
🛑 Scenario 3: The Cognitive Panopticon (Collapse / Dystopia)
✳️ Summary:
Rapid neurotech deployment without safeguards leads to authoritarian misuse. Governments and corporations use neuro-monitoring for control, prediction, and behavioral conditioning.
🔹 Signals:
Mass deployment of emotion-sensing headsets in public education
State mandates neuro-monitoring for law enforcement or pre-crime
BCI wearables track voter sentiment in elections
🔸 Impacts:
Loss of cognitive liberty and mental privacy
Psychological manipulation by political and commercial actors
Emergence of underground neuro-resistance movements
⚠️ Wildcards:
Neuro-hacking incident in a major city
Leak of “cognitive fingerprint” databases
Mental state scoring (like social credit systems)
🎯 Resistance Pathways:
Digital neuro-rights movement
Ethical BCI alternatives (open source, privacy-first)
Neuro-saboteur activism
🌱 Scenario 4: Cognitive Commons (Transformation / Utopian)
✳️ Summary:
Societies collectively shape neurotechnologies as commons. Public R&D, ethical AI, and citizen assemblies ensure neurotech is used for collective well-being, creativity, and planetary intelligence.
🔹 Signals:
Citizen juries co-develop neuro-AI policies
Public neuro-labs support community health, trauma healing, and arts
Global alliance forms around cognitive justice
🔸 Impacts:
Increased empathy and cross-cultural understanding
Neurodiversity embraced as a source of resilience and innovation
Cognitive tools help with global cooperation and sustainability
🎯 Enablers:
UN Convention on Cognitive Rights
Radical transparency of neural AI models
Inclusion of marginalized voices in neuro-governance
🧩 Scenario Matrix
📦 Use Cases for These Scenarios
Policy workshops: Envision neurotech futures and design anticipatory regulation.
Corporate strategy: Identify ethical innovation paths for neurotech startups.
Public engagement: Create participatory futures exhibitions on brain-AI convergence.
Education: Teach neuroethics, futures literacy, and scenario planning.
📖 Fictional Storytelling Versions
🧠 1. Neurocare Society – “The Brain Commons Clinic”
Year: 2032
In a modest public hospital in Copenhagen, Lina walks into a Cognitive Recovery Lounge. She suffered a stroke, but her recovery is aided by an AI-powered neural prosthetic that reads her intention to move and guides her through immersive neuro-AR rehabilitation. The program is funded by a pan-European “NeuroCare Fund,” supported by taxes on commercial brain-data services. Open-source BCI software ensures transparency. Brain data is stored on personal secure ledgers — as sacred as a medical record.
“My recovery isn’t just about movement,” Lina says. “It’s about dignity. I never gave up control over my own mind.”
⚠️ 2. Neurocapitalism – “The Enhanced Ones”
Year: 2036
In Silicon Hills, Texas, Diego, a high-performing executive, wears a corporate-issued neural band. It boosts his productivity and automatically blocks distractions. It also tracks his stress levels, attention, and micro-emotions, sending feedback to HR. His bonus depends on his neural metrics.
Meanwhile, his daughter attends “NeuroPrep Academy,” where students are ranked by cognitive analytics.
“Everyone uses it,” Diego shrugs. “If you don’t, you fall behind. It’s not coercion… It’s just the system.”
Outside the corporate bubbles, social unrest brews. Many can’t afford enhancements. Some choose not to, but are locked out of opportunities.
🛑 3. Cognitive Panopticon – “The Thought Census”
Year: 2039
In Neo-Beijing, citizens are subject to the Thought Census. BCIs are mandatory in education, law enforcement, and public spaces. Every neural response is monitored by predictive AI. “Neuroanomalies” trigger intervention.
Wei, a university professor, is flagged during a lecture on political philosophy. Her mental state deviates from the “normative loyalty threshold.” She’s summoned for correction.
“They don’t punish your speech. They punish your thoughts,” she whispers, unplugging her underground neuro-scrambler device.
An encrypted neuro-resistance network forms, trying to build open hardware that restores privacy and agency.
🌱 4. Cognitive Commons – “The Dream We Code Together”
Year: 2045
In a quiet forest settlement in Colombia, artists, neuroscientists, and indigenous leaders co-create a cognitive festival. Using open-source BCIs, they blend music, neural states, and collective emotional rhythms. It’s part of the global “Cognitive Commons Movement.”
Governments, guided by citizens’ assemblies and UNESCO’s NeuroRights Charter, fund decentralized neuro-labs. Neurotech is used to enhance empathy, environmental stewardship, and trauma healing.
“We don’t use tech to escape the world,” says Anika, a neuro-poet. “We use it to feel it more deeply — and shape it together.”
📜 Neurotech Governance Framework
A values-based model to accompany ethical development:
What do you think ? Please leave your comments below or on my related LinkdeIn post.




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