Six lines of inquiry. One cumulative programme of knowledge.

The decisive movement is brief, while the preparation that precedes it is distributed across attention, physiology, and cortical organisation.

Task-specific EEG windows in shooting, archery, golf, and related precision tasks examine how preparation converges before execution.

Performance quality is associated with measurable differences in pre-action cortical organisation.

Define the sporting question and pre-action window before selecting a signal for interpretation or training.

A task-centred framework for studying the final seconds before precise action.

Expertise cannot be reduced to ‘less brain activity’. Efficient performance depends on where, when, and how cognitive and motor processes are organised.

EEG studies compare expertise levels, successful and less-successful outcomes, attentional focus, and cognitive–motor coupling across precision tasks.

Skilled performance is associated with task-specific refinement and flexible neural organisation rather than uniformly reduced activation.

Use efficiency markers to refine a performance question, not to rank athletes from one isolated recording.

A more precise account of how neural economy and task-relevant control coexist in expertise.

Visible technique may appear stable even while attention, autonomic regulation, and cortical preparation are being reorganised.

Integrated EEG, HRV, and behavioural analysis examines pressure as a coordinated psychophysiological condition rather than a single feeling or score.

Motivational context is associated with coordinated brain–body changes before performance.

Interpret pressure through converging signals and the athlete’s task, rather than treating one measure as the decision.

An integrated model connecting neural, autonomic, and behavioural evidence under motivational stress.

A plausible neural target does not automatically become an effective training method; target engagement, instruction, dose, and task relevance all matter.

SMR neurofeedback studies connect real-time EEG feedback with golf, shooting, visuomotor learning, and controlled sport-performance outcomes.

Controlled evidence indicates potential performance benefits, while protocol quality and study design shape confidence in the estimate.

Individualise the target and instruction, monitor whether the signal is actually trained, and retain the sporting outcome beside it.

A research-informed intervention line linking SMR regulation with precision-sport learning and performance.

Training can change a displayed signal without showing whether the response remains available after feedback is removed.

Systematic review, function-specific instruction, dose–response work, and retention testing examine the full chain from target selection to sporting transfer.

A changed signal is the beginning; transfer requires testing the response again without the display and inside a meaningful task.

Design the transfer test before training begins, and report mechanism, instruction, dose, retention, and limitations together.

A methodological programme for making sport neurofeedback more inspectable, repeatable, and responsible.

A laboratory marker becomes useful only when it can be interpreted alongside the athlete, sport, training phase, and coaching question.

TISS programmes connect EEG, HRV, neurofeedback, precision-sport tasks, and repeated field interpretation within a national sport-science setting.

The work establishes an operational route from measurement to interpretation, training, and verification; it does not treat field use as proof of efficacy.

Bring the signal into a shared decision process, document what changes, and return field observations to the next research cycle.

SPIN Lab methods, funded programmes, national-team support, and a responsible lab-to-field evidence chain.