Module: A Biohybrid Neural Interface

Most humans already use brain-machine interfaces (BMI). The brain has a read and write access to computers like smartphones, in which we store and retrieve information. These machine intelligence modules make us superintelligent compared to our ancestors.

Now, imagine if you could access your computer with the power of thought. The most likely first abilities of neural interface-enhanced humans would include telekinesis (use the power of thought to control machines that move things, for example artificial limbs) and telepathy (e.g. think to type a message and send it). The abilities provided by more advanced neural interfaces and the deeper implications of this are incomprehensible and would forever change what it means to be human.

In my PhD project, Module P, I am developing a preclinical model of a biohybrid digitally controlled implant for motor function restoration after peripheral nerve damage.

The project addresses some of the main limitations of neural interfaces today: they are wired, mechanically incompatible with host tissue causing cellular damage and chronic immune reactions, and produce low fidelity signal.

In future, I will use my experience with Module P to create more complex biohybrid interfaces to recover brain function after injury, or even enhance human capabilities.