Key Takeaways:
- Neurobiologist Lila Landovski highlights that neuroplasticity allows the brain to learn throughout life, supporting lifelong learning.
- Adults learn best with clear goals, focused attention, sleep and spaced repetition rather than multitasking.
- Short, regular practice sessions, physical activity and timely breaks boost retention and consolidate new skills.
Neurobiologist Lila Landovski says the adult brain keeps the capacity to acquire new skills and knowledge at any age, provided learning conditions match how neural systems operate. Modern research points to neuroplasticity as the engine of lifelong learning, showing that the brain can form and strengthen connections in response to experience well beyond childhood.
Lifelong learning and neuroplasticity
Landovski rejects the common idea that learning ability collapses after youth. While children do form new connections more rapidly and respond to a wider range of stimuli, neural processes do not stop after the mid-twenties. Instead they become more selective: the adult brain responds best to clear goals, repeat practice and meaningful context.
Neuroplasticity refers to the brain’s ability to change in response to experience, creating new synapses and reinforcing existing circuits. In adults this mechanism still operates, although it often requires more metabolic resources, deliberate focus and structured practice. When new information appears as background noise—delivered chaotically, without attention or repetition—the brain tends to discard it rather than invest energy in consolidation.
That explains why learning between smartphone notifications rarely sticks, while a systematic approach gives reliable results. Landovski emphasises that many adults struggle not because of low ability but because they were never taught how to learn effectively.
Practical factors that speed learning
Landovski outlines six conditions that consistently improve learning outcomes. First, sustained attention is essential. When reading or practising a skill, interruptions and multitasking prevent the formation of stable neural circuits. Physical exercise supports attention by improving blood flow and stimulating the growth of new cells in memory-related regions.
Second, alertness and engagement matter. Fatigue, chronic stress or sleepiness blunt learning. Humans experience attention cycles of roughly 90 minutes; within each cycle there is an 8–30 minute window of heightened receptivity. Movement, breathing exercises or modest caffeine can lift alertness, while heavy meals tend to reduce it.
Third, sleep plays a crucial role in memory consolidation. During sleep the brain transfers short-term traces into long-term storage. Disrupted sleep therefore undermines both attention and the consolidation process that makes learning durable.
Fourth, repetition and spaced practice strengthen neural pathways. Short, distributed sessions on different days outperform single long sessions. Fifth, breaks help: a 10–20 minute pause after a study bout allows subconscious consolidation and protects new material from being immediately displaced by fresh tasks. Finally, errors are vital triggers for growth; they indicate where strategy must change and open windows of plasticity if handled without excessive anxiety.
How adults should train
Landovski recommends planning sessions of 25–40 minutes, eliminating distractions, and repeating material after one day and after a week. Prioritise sleep and regular exercise during intense learning periods. Accept mistakes, analyse them calmly and use them to adjust practice. The scientific approach requires discipline but yields steady gains in language learning, technical skills and professional competencies.
In short, age alone does not determine learning potential. With attention, sleep, repetition and deliberate practice, adults can continue to acquire complex skills and adapt to new roles throughout their lives.
