The derivation above suggests that qualia may be implemented physiologically using quantum computation. In the following, we will discuss how this could be achieved. Quantum computing can be realized in many ways but most involve physical states like polarized photons or Josephson junctions. Because of common intuitions of quantum mechanics we reject the existence of quantum coherence in the hot and wet environment of the brain \cite{Koch_2006,Tegmark_2000}. Another objection may be that neuroscience is defined as classical for good reason. Most observations linked to the mind are classical. Neurones which are considered as main contributors to cognition send information via action potential; a classical signal. However, classical signals can also be observed in quantum computation as result of a measurement during computing or as part of information transfer which is performed using quantum teleportation \cite{Bennett_1996}. But in the end, it is the unimaginable prospective of coherent quantum processes in the brain which has been the stumbling point for any quantum mind theory brought forward. However, over the last 30 years, new quantum theories have evolved through the inclusion of topological aspects. Those ideas  have encouraged us to rethink the prospective of quantum brain computing. In the following, we will now lay out a rough and ingenuous hypothesis of how quantum computing may work in the brain despite all concerns. The aim is to impart clearly the envisioned direction whereby a detailed description may not be possible due to the lack of experimental results.