Core ConceptsThe theory describes the evolution from simple systems to consciousness as a sequence of
bifurcation transitions — points at which a system increases its complexity in order to remain stable far from thermodynamic equilibrium. The central mechanism throughout is
feedback loops that provide self-regulation. These loops evolve hierarchically across levels.
- Single-celled organisms Cells stabilize themselves by triggering their own chemical reactions (RNA, kinesis, taxis) in response to environmental gradients. The emergence of RNA → DNA + cell membrane creates the first closed self-replication loop. Behaviour is governed by primitive taxes (chemo-, photo-, thermo-, etc.): the organism moves toward the beneficial or away from the harmful along a gradient. The earliest form of “memory” appears — the stored nucleotide sequence.
- The emergence of the nervous system With the appearance of neural networks comes tissue and organ specialization, allowing animals to recognize the consequences of environmental impacts through multimodal cues (light, sound, vibration, smell). However, specialization introduces synaptic delay. To compensate, the neural network stores memories of past reactions and begins to predict them in advance.
Because behaviour is now triggered by the network’s own prediction, the network evaluates the outcome after the action is completed. This outcome becomes new input, thereby closing genuine
neural feedback loops. Pain and pleasure arise as evolutionary mechanisms for regulating prediction-based behaviour.
Internal and external signals are translated by the neural network into a single language of action potentials.
Qualia (phenomenal experience) emerge as a necessary means of binding multimodal and temporally dispersed signals from the environment and the body into a single coherent stream. Neurotransmitters serve as the universal “translator” between chemical processes and electrical potentials for neural computation, and then back into chemical reactions in the body. In this way, the neural network establishes
gain control over cellular processes.
This framework allows the Theory of Time and Consciousness to answer why qualia and phenomenal experience evolved, and to show that they are a
necessary but not sufficient condition for human-like consciousness. Millions of animal species possess phenomenal experience yet lack consciousness in the human sense.
TTC also demonstrates that known laws of chemistry and physics are fully sufficient for the emergence of qualia — no additional principles are required.
Within the nervous system, three major bifurcation transitions occur, successively closing the dolimbic sensorimotor, limbic, and neocortical feedback loops — yet the underlying thermodynamic principle remains the same at every level. All incoming signals are compared against experience accumulated during ontogeny (i.e., memory). The network predicts future states of the organism, alters its own neurochemistry to initiate movement at the cellular level, and registers the outcome of the predictive action as prediction error or success, thereby adjusting the thresholds of innate programs.