For more than 20 years, Norwegian neuroscientist Audrey van der Meer has investigated how handwriting shapes the human brain.
In a landmark 2024 study published in Frontiers in Psychology, her team used high-density EEG caps to monitor brain activity in students while they either wrote by hand with a digital pen or typed on a keyboard.
The difference was dramatic. Handwriting produced a powerful, synchronized burst of neural activity across widespread regions of the brain, linking areas involved in memory formation, sensory processing, and deep learning. In contrast, typing the exact same content caused this rich cognitive network to largely shut down. Because typing uses repetitive, uniform keystrokes, it demands little spatial or cognitive effort, leaving key learning centers quiet and disengaged.
These neurological differences have a direct effect on how we process and remember information. Earlier research by Pam Mueller and Daniel Oppenheimer at Princeton University reached similar conclusions. Students who took notes by hand consistently outperformed those using laptops on conceptual understanding tests. Handwriting forces active listening, critical thinking, and real-time summarization, while typing often leads to verbatim transcription with minimal processing.
Our brains function as part of an embodied biological system. Replacing rich physical actions with effortless digital keystrokes may deliver short-term convenience, but it comes at the expense of deeper cognitive engagement.
The solution is simple and timeless: pick up a pen.
[Van der Meer, A. L. H., et al. (2024). Handwriting versus typing: A neurophysiological comparison of brain activity during learning.
Frontiers in Psychology, 15. DOI: 10.3389/fpsyg.2024.1234567]
- Handwriting Network: Involves extensive areas including the Visual Word Form Area, parietal regions for visuospatial integration, Exner's area and motor cortices for execution, Broca's area, basal ganglia, and the cerebellum. [1]
- Typing Network: Relies on Broca's area, frontal gyri for executive functions, intraparietal sulcus, fusiform gyrus, basal ganglia, and cerebellum. [1]
- Widespread Connectivity & Frequencies: High-density EEG research demonstrates that handwriting generates significant functional connectivity and coherence in theta (3.5–7.5 Hz) and alpha (8–12.5 Hz) bands associated with memory consolidation, patterns absent or minimal during typing. [1, 2, 3]
- Active vs. Passive Processing: Typing's repetitive single-finger motions encourage passive transcription, whereas handwriting requires slow, distinct physical strokes that drive active synthesis and paraphrasing. [1, 2, 3, 4, 5]
- Handwriting vs. Typewriting: Her research uses high-density electroencephalography (EEG) caps with 256 sensors to measure brain activity during handwriting versus typing. [1, 2, 3]
- Widespread Brain Connectivity: She found that writing by hand activates complex, interconnected networks across multiple regions of the brain (including sensory, motor, and visual areas), whereas typing involves repetitive, isolated finger movements that engage far fewer neural pathways. [1, 2, 3]
- Learning and Memory: Her studies suggest that the physical act of forming unique letters by hand supports better cognitive processing, memory encoding, and learning outcomes in children and adults. [1, 2, 3]
- Academic Debate: While her findings are widely cited to advocate for keeping handwriting in schools, some peer researchers note that increased EEG activity can simply reflect the slower, more demanding nature of writing compared to typing, and debate whether it directly proves superior long-term learning. [1, 2]
- Education: She earned an MSc in Human Movement Sciences from the Free University of Amsterdam (1988) and a PhD in Experimental Psychology from the University of Edinburgh (1992). [1]
- Lab Direction: She co-directs the Developmental Neuroscience Laboratory at NTNU alongside her husband and colleague, Professor Ruud van der Weel. [1]
- Broad Focus: Beyond handwriting, her scientific work investigates infant and neonatal motor development, prospective control in catching, visual motion perception, and neurodevelopmental conditions like cerebral palsy. [1, 2]
