The LABNIRS (Laboratory Near-Infrared Spectroscopy) system by Shimadzu is a cutting-edge, high-density fNIRS neuroimaging platform designed to deliver exceptional performance in brain function research. Utilizing near-infrared light to non-invasively monitor changes in oxygenated and deoxygenated hemoglobin, LABNIRS allows researchers to visualize and analyze hemodynamic responses in the cerebral cortex with remarkable spatial and temporal precision.
This system is engineered with modularity, flexibility, and precision at its core, supporting a wide range of experimental setups and participant profiles—from infants to adults, and from basic research to applied clinical studies. Its lightweight, flexible fiber-optic optodes allow for custom probe configurations, while its robust hardware and advanced software provide high-speed, high-resolution measurement capabilities. LABNIRS is fully compatible with EEG, TMS, eye tracking, and other multimodal systems, making it ideal for cutting-edge multimodal neuroscience research.
Shimadzu’s LABNIRS combines cutting-edge optical technology, a flexible and user-friendly design, and seamless compatibility with other systems to deliver a robust and reliable fNIRS platform for advanced human brain research. Whether you're running cognitive load studies, hyperscanning paradigms, or pediatric neurodevelopment research, LABNIRS offers precision, comfort, and versatility that scale with your scientific ambition.
One of the most powerful features of Shimadzu’s LABNIRS system is its exceptional compatibility with BioSemi’s ActiveTwo and ActiveThree EEG amplifiers, enabling truly multimodal neuroimaging. Through this integration, researchers can simultaneously record high-density fNIRS and EEG data with precise temporal synchronisation, unlocking unique insights into the dynamic interplay between electrical and hemodynamic brain activity.
Combined EEG-NIRS Cap for Optimal Co-Localization
To ensure perfect spatial alignment of EEG electrodes and NIRS optodes, we offer a combined EEG-NIRS cap specifically designed for concurrent use of LABNIRS and BioSemi systems. The cap layout is optimized to maintain excellent optical coupling while adhering to international EEG placement standards (10-20 or 10-10 systems). It supports a wide variety of configurations—whether you're using 32, 64, or 128 EEG channels alongside dense fNIRS probe arrays.
Accurate Synchronisation of EEG and fNIRS Data
Accurate time-locking between modalities is critical for high-quality multimodal analyses. LABNIRS and BioSemi systems are synchronized via hardware trigger signals and supported by dedicated software tools to ensure sub-millisecond alignment between EEG and NIRS recordings. This enables high-resolution temporal correlation between electrophysiological responses and hemodynamic changes during cognitive tasks, motor execution, or sensory processing.
EEG-NIRS Merger Tool
Our EEG-NIRS Merger Tool streamlines the fusion of EEG and NIRS datasets into a single, synchronized file. Compatible with major analysis platforms such as MATLAB, Brainstorm, and EEGLAB, this tool allows researchers to explore cross-modal signal relationships, perform artifact correction across modalities, and co-visualize brain activity in both electrical and metabolic domains. The Merger Tool supports flexible epoching, signal quality checks, and export in standard formats for advanced statistical modeling and machine learning applications.
Together, LABNIRS and BioSemi create a complete multimodal neuroimaging ecosystem—offering real-time, synchronized insights into both the fast neural oscillations of EEG and the slower vascular dynamics captured by fNIRS. This integration is ideal for research in:
Watch our 2-part video series on how EEG and NIRS are combined, recorded and analysed with the LIGHTNIRS and ActiveTwo!
Important Note: This product is for research applications only. Not a medical device as defined in Regulation (EU) 2017/745 (EU MDR), Swiss Medical Devices Ordinance (MedDO, SR 812.213), or FDA 21 CFR Part 860. Not designed or intended to be used for diagnosis, treatment of disease or any other medical purposes.
