NLR EEG Caps – High-Density Research EEG Caps with Detachable Modular Electrodes
NLR EEG Caps are professional high-end research-dedicated EEG solutions, specially developed for advanced neuroscience laboratories, academic research teams and brain-computer interface projects. Adopting an innovative detachable modular electrode structure and high-quality Ag/AgCl electrode configuration, this series breaks the layout limitation of traditional fixed EEG caps. Researchers can flexibly disassemble, adjust and replace electrodes to quickly adapt to different experimental schemes. It is the most cost-effective customizable high-density EEG cap for ERP, BCI, cognitive neuroscience and neurofeedback research.
Different from clinical fixed EEG caps, NLR modular detachable EEG caps focus on experimental flexibility and long-term reusable performance, greatly reducing laboratory repeated procurement costs and improving the diversity of scientific research experimental design.
Unique Modular Detachable Electrode System
The core advantage of NLR research EEG caps is the fully detachable and replaceable electrode module, which solves the single layout pain point of ordinary EEG caps.
- Custom flexible electrode placement: Independent disassembly and assembly, free combination of electrode distribution to meet personalized research schemes
- Separable replaceable electrodes: Local damage can be replaced separately, extending the overall service life of the EEG cap
- Multi-paradigm experimental adaptation: Compatible with multiple research modes such as regional focus detection and full-brain high-density acquisition
- Adjustable experimental layout: Switch electrode positions at any time to meet iterative research and multi-group control experiments
Professional Configuration for Advanced Neuroscience Research
Precision signal collection and experimental stability are essential for academic research; NLR EEG caps are fully optimized for high-standard laboratory scenarios.
- Brain-Computer Interface (BCI) professional research
- Event-Related Potential (ERP) controlled experiments
- Cognitive neuroscience & brain function mechanism research
- Clinical neurofeedback training & auxiliary rehabilitation research
- University laboratories, research institutes and scientific project cooperation
High-SNR Low-Noise EEG Signal Acquisition
NLR high-density research EEG caps are equipped with laboratory-standard Ag/AgCl electrodes, with excellent conductivity and anti-interference performance.
- High signal-to-noise ratio, effectively filtering environmental interference
- Balanced and stable scalp contact impedance, no drift in long-term experiments
- High-fidelity brain wave capture to ensure reliable research data
- Wear-resistant reusable electrodes, suitable for high-frequency repeated experiments
Rich High-Density Channel Combination Options
From conventional low-density to high-precision 128-channel high-density configuration, to meet different research depth needs.
- 16 channel basic simplified research EEG cap
- 32 channel conventional standard experimental EEG cap
- 64 channel high-density full-brain monitoring cap
- Custom high-density layout support up to 128 channels
Cross-Brand Compatibility with Mainstream Laboratory EEG Systems
Reserved universal expansion interface, with strong equipment compatibility, convenient for multi-brand mixed laboratory environment.
- Stable matching with Natus, Nihon Kohden, Compumedics, Cadwell and other mainstream EEG amplifiers
- Custom special connector modification for professional research equipment
- Supporting adapter cables for fast connection and seamless integration
Technical Specifications
| Parameter | Specification |
|---|---|
| Product Type | Modular detachable electrode EEG cap |
| Electrode Material | High-performance Ag/AgCl electrodes |
| Standard Channels | 16 / 32 / 64 Channels |
| Max Custom Channels | Up to 128 high-density channels |
| Core Application | Neuroscience Research / BCI / ERP / Neurofeedback |
Supporting EEG Consumables for Research Experiments
- NL5 Skin Prep Gel – Remove scalp cutin, reduce impedance, and optimize detachable electrode contact.
- NL3 EEG Conductive Paste – Stable long-term conduction, suitable for all-day continuous research experiments.
- NL7 EEG Conductive Gel – Mild formula, no irritation, suitable for repeated wearing of research EEG caps.
Request a Quote or Ask a Question
Customize professional NLR detachable electrode EEG caps for your laboratory. We provide personalized electrode layout design, high-density channel customization, connector adaptation and large-scale bulk OEM services for university research teams and medical research institutions.
- Multiple head circumference sizes for long-term repeated use
- 16–128 channel high-density personalized customization
- Full compatibility with mainstream research EEG amplifier brands
- Lab bulk discount, stable supply and customized solution support
Frequently Asked Questions (FAQ)
What is a detachable electrode EEG cap?
The detachable electrode EEG cap adopts a modular split design. All electrodes can be freely disassembled, adjusted and replaced, allowing researchers to independently arrange electrode positions according to experimental needs, breaking the fixed layout of traditional EEG caps.
What are the advantages of modular EEG caps for research?
Modular detachable design greatly improves experimental flexibility, supports multiple research paradigms switching, realizes local electrode replacement and maintenance, reduces overall use cost, and improves the repeatability and diversity of scientific research experiments.
What channel options are available for NLR EEG caps?
It provides 16/32/64 conventional channel versions, and supports personalized high-density customization up to 128 channels, meeting the needs from basic cognitive experiments to high-precision full-brain advanced neuroscience research.
Is the detachable EEG cap reusable?
Yes. Both the cap body and detachable electrodes are durable and reusable. With regular maintenance and separate replacement of individual damaged electrodes, the service life can be greatly extended, which is more economical for long-term laboratory research.
