Non-toxic Electrolyte-gated Transistor Pec H-cell - Electrolyte-gated Transistor Photo-electrochemical H-cell While Supplies Last [gQux6lTW]

Electrolyte-Gated Transistor PEC H-Cell: Advanced Photo-Electrochemical Measurement

The Electrolyte-Gated Transistor PEC H-Cell is a cutting-edge, horizontally mounted, double compartment photo-electrochemical H-Cell designed for precise measurement of electrolyte-gated transistors. This innovative device is equipped to measure the characteristics of transistors with photo-sensitive channel materials, utilizing either liquid or gel electrolyte in stationary conditions. Its versatile design allows for vertical and horizontal irradiation, making it a versatile tool for various research applications. The cell is constructed with materials that are inert to the sample, ensuring accurate and reliable measurements.

Key Product Properties and Specifications

The Electrolyte-Gated Transistor PEC H-Cell boasts a nominal exposure area of 1 cm², with maximum electrolyte volumes of 15 mL for the gate and 10 mL for the source, drain, and channel. It features a minimum electrolyte volume of 10 mL across all compartments. The electrode plug diameter is 6 mm, and the minimum substrate size is 15 mm x 15 mm, with a recommended size of 25 mm x 25 mm and a maximum thickness of 4 mm. This cell is well-suited for use with both aqueous and organic solvent electrolytes, thanks to its gas-tight construction and the ability to exclude contaminants through bubbling of an inert gas.

Applications and Benefits

This cell is primarily designed for light sensors and opto-logic gates based on various types of electrolyte-gated transistors, including Electrolyte-Gated Field Effect Transistor (EG-FET), Electrolyte-Gated Organic Field Effect Transistor (EGOFET), Organic Electrochemical Transistor (OECT), Ion-Sensitive Field Effect Transistor (ISFET), and Ion-sensitive Organic Field Effect Transistor (ISOFET). It supports various gate electrodes, such as metal wires and meshes, as well as graphite rods, which can be further functionalized with ion-selective membranes. The cell's versatility makes it an ideal choice for researchers and engineers in the field of photo-electrochemical research, offering a reliable and efficient solution for characterizing electrolyte-gated transistors.