Spatiotemporal dynamics of flow experience: an EEG microstate analysis
Shiva Khoshnoud, Federico Alvarez Igarzábal, Marc Wittmann
bioRxiv (Cold Spring Harbor Laboratory) May 14, 2026 DOI: 10.64898/2026.05.11.724329 via OpenAlex
Summary
AI-generated from the abstractDuring flow, a state of full immersion in an activity, brain networks linked to self-referential thinking become less active. Using EEG microstate analysis of 43 people playing a video game, researchers found that two brain states associated with the default mode network (DMN) were shorter and occurred less often during flow compared to boredom or frustration. This suggests that flow reduces self-awareness by dampening DMN activity, similar to effects seen in meditation and psychedelic states.
Study at a glance
| Characteristics | Observational cohort Peer reviewed |
|---|---|
| Sample size | 43 |
| Population | Participants playing the video game Thumper |
| Duration | 25-minute gaming session |
| Topics | Default mode network |
| Keywords | Ministate Electroencephalography Boredom Perception |
| Key finding | Microstates C and E, associated with the default mode network, showed decreased duration and frequency during flow compared to boredom and frustration. |
Abstract
Flow, as defined by Mihalyi Csikszentmihalyi (1975), is a holistic sensation experienced when individuals are fully immersed in an activity, resulting in a mental state characterized by a diminished sense of self and altered perception of time. To investigate the global neural dynamics underlying flow, we employed EEG microstate analysis to capture the spatial and temporal properties of dominant transient global brain states (Lehmann et al., 1998). In a study involving 43 participants playing the video game Thumper for 25 minutes, we extracted three four-minute EEG segments from each session corresponding to reported experiences of flow, boredom, and frustration, as determined by self-reports and performance metrics. Across conditions, six distinct microstate topographies (A-F) accounted for most of the global variance. Given that reduced self-referential processing is a key feature of flow, we hypothesized that flow would modulate the properties of microstates C and E, which have been associated with brain regions resembling the default mode network (DMN). Compared to boredom and frustration, the flow condition showed significantly decreased global explained variance, mean duration, time coverage, and occurrence frequency of microstate E, as well as reduced mean duration and time coverage of microstate C. These findings suggest that microstates associated with self-referential processing are shorter and less frequent during flow than during boredom and frustration. This supports the notion that the flow experience modulates global brain dynamics, particularly within the DMN. Furthermore, our results align with previous research reporting reduced DMN activity during meditative and psychedelic states, reinforcing the idea of diminished self-awareness in such conditions.