Prevailing theories in neuroscience explain learning and motivation through reward, drive reduction, or utility maximization. This article challenges that framework by introducing the Demand for Recognition (DfR) as the true root mechanism. DfR is an inherited limbic loop that continuously evaluates feedback in binary terms—comfortable or uncomfortable—modulates plasticity, and sustains self-learning. Unlike AI, which requires externally imposed recognition surrogates, the human brain self-learns because DfR ensures constant adjustment to recognition signals. Reframing recognition as fundamental and reward as secondary unifies perspectives from neuroscience, psychology, AI, and evolutionary theory, setting the stage for broad interdisciplinary debate.
I claim that no self-learning system can exist without recognition. Brains achieve adaptation by minimizing recognition deficits. AI, by contrast, adapts only through external recognition surrogates imposed by developers. Reframing DfR as the fundamental driver of cognition challenges current reward-centric models.
A surreal, soft-white endless space.
Two identical babies—like mirrored copies—sit side by side. Both wear simple, soft white jumpers that blend slightly into the ambient space, emphasizing their purity and unformed identity.
The left baby smiles gently, arms lifted slightly. Around it, glowing green symbols hover: a warm hand, a smiling face, a heart, a gentle soundwave—all symbols of comfort and approval.
The right baby cries with a tense face and clenched fists. Around it, red symbols glow: a turned back, a frowning face, a gust of cold wind, a sharp soundwave—signs of discomfort or rejection.
Behind each baby’s head, translucent neural loops are forming—feedback circuits. The loops behind the left baby are smooth and self-reinforcing. Behind the right, the loops stutter and distort