Directed Neurogenesis is the intentional stimulation and regulation of neurogenic processes to promote the formation of new neurons, synaptic connections, and adaptive neural pathways. Our pioneering research has explored the mechanisms through which specific learning stimuli and environmental factors trigger neuroplastic responses, facilitating the modulation of existing neural networks and the generation of new cellular structures. These discoveries have led to innovative applications in areas such as stroke recovery, neurological trauma, bone regeneration, vision enhancement, sensory optimization, accelerated problem-solving and decision-making, as well as novel approaches for mitigating the effects of aging, chronic illness, autoimmune conditions, fibromyalgia, multiple sclerosis (MS), amyotrophic lateral sclerosis (ALS), stuttering, and various dermatological disorders.

Memory reconsolidation is the process by which previously stored memories are reactivated, destabilized, and subsequently restabilized through molecular and synaptic modifications. This process, which involves regions such as the hippocampus, amygdala, and related neural circuits, can alter the emotional and physiological charge associated with traumatic or maladaptive memories. Through our pioneering research in this field, we have developed innovative applications of memory reconsolidation, contributing to breakthroughs in the treatment of PTSD, chronic pain, visual function, chemical sensitivities, post-surgical recovery, and other conditions.