Reusable Silver EEG Earclip Electrodes (1 pair)

These Reusable Silver EEG Earclip Electrodes are precision-engineered for reliable auricular signal capture in EEG and evoked potentials, commonly used as reference for Linked-Ears (LE) configurations. With robust 10 mm silver cup clips and long 150 cm lead wires, they deliver consistent quality in research and laboratory settings.

Manufactured using thick, pure silver (99.9%) stamping, the cup shape holds more conductive paste, promoting better skin contact and signal stability. The black and white molded leads resist oxidation and moisture ingress, unlike standard shrink‑tube wiring. Using 0.9 mm diameter silver‑plated copper foil wire sheathed in TPU, they seamlessly integrate with standard Nicolet or other neurophysiology systems via DIN 1.5 mm touch‑proof DIN sockets (female connector).

One pack contains one pair of Reusable Silver EEG Earclip Electrodes.

Technical Specifications

• Electrode type: Pair of 10 mm stamped silver cup ear‑clip electrodes
• Cable lead length: 150 cm (~59″)
• Cable lead wire: 0.9 mm silver-plated copper foil
• Cable colour: Black and white
• Cable jacket material: TPU
• Connector: DIN 1.5 mm touch-proof (TP) safety plug (female socket connector)
• Compatibility: Nicolet and any other neurophysiology system with 1.5mm touch-proof inputs
• Packaging: 1 x Reusable Silver EEG Earclip Electrode Pair per pack

Features

• Compatible with EEG, EP, and other neurophysiology systems using 1.5 mm touch-proof inputs
• Cup-shaped electrodes hold ample paste for improved contact and reduced impedance
• Molded leads eliminate joint corrosion risks from paste or fluid exposure
• Colour-coded wires allow clear placement identification and flexible ear assignment

Application Note

These silver earclip electrodes are ideal for auricular placement in long-term EEG and evoked potential recording. The cup design retains conductive gel such as Ten20® or NuPrep®, enhancing contact integrity. Molded wire-to-electrode junction prevents failure due to moisture, making them suitable for extended monitoring and multiple reuse cycles.