Journal of Neuroscience Methods

The study presents AutoMI, a framework that uses LLM multi-agents to automatically and rapidly iterate on motor imagery EEG classification models, combining a Q-learning policy with deterministic rules and integrating planning, execution and output agents with predefined tools, plus experience tracking and rollback. Models built by AutoMI reached 77.62%, 78.08% and 83.02% accuracy on the IV2a, OpenBMI and ECUST-MI datasets — up 18.42%, 9.27% and 19.25% over automated optimization algorithms.

An EEG study finds that unilateral lower-limb motor imagery and motor execution elicit similar lateralized neural activity patterns, extending a lateralization pattern long known in the upper limb to the lower limb.

Researchers assessed the feasibility of a hybrid brain-computer interface that integrates motor imagery (MI) and steady-state visual evoked potentials (SSVEP) with robotic glove feedback for upper limb motor rehabilitation in 32 stroke patients, split into a conventional-treatment control group and an experimental group receiving 10- or 20-day BCI interventions. The experimental group showed considerable improvement in Fugl-Meyer scores over the control group, and the BCI achieved EEG classification accuracy up to 98.08% with stable operation; after longer training, accuracy rose, the laterality coefficient moved toward normal, and task-related brain connectivity strengthened. The authors say the hybrid system may overcome the limits of conventional therapy and single-modality BCIs.

To reduce negative transfer in motor imagery BCIs, the study presents an adaptive dynamic transfer learning framework that decomposes EEG time-frequency features via wavelet convolution, matches source and target samples through a dynamic transfer attention module, and uses a joint loss to shrink marginal and class-conditional differences. On BNCI2014001, BNCI2014002 and BNCI2015001 it reached 78.78%, 82.11% and 78.19% accuracy, averaging 0.13% to 27.7% above baseline algorithms.

The study presents MAPS-CS, an online SSVEP brain-computer interface that selects channels dynamically during the experiment. A multi-dimensional feature framework covering signal energy, stability and inter-channel correlation quantifies anomalies and generates scores that a hierarchical decision step combines into a channel-quality score to identify and remove bad channels — with no training required. Against the channel ensemble (CE) method, MAPS-CS lifted standard FBCCA accuracy by 3.5%, 4.1%, 4.4% and 6.5% at stimulus durations of 2 s, 1.5 s, 1 s and 0.5 s, the best among the CE, binary harmony search and TOP-K local optimization methods compared.