CNB-12-EC-UV1
Electrochemical Cells Series EC-UV1 / EC-UV2
Electrochemical Cells Series EC-UV1 / EC-UV2
In Situ UV–Vis Spectroelectrochemical Cell
In situ UV–Vis cells for potential-controlled optical monitoring in single-compartment and membrane-separated configurations.
Product Overview
The EC-UV Series is designed for in situ UV–Vis spectroelectrochemical studies under electrochemical control. EC-UV1 features a compact single-chamber design with an ITO working electrode and sapphire optical window, while EC-UV2 provides a membrane-separated H-type configuration with gas access to the working compartment. The series supports potential-dependent optical monitoring of redox processes and electroactive interfaces.
Key Features
Shimadzu UV-2600 Compatibility
Designed for in situ UV–Vis measurements with the Shimadzu UV-2600 spectrophotometer.
Potential-Controlled UV–Vis Monitoring
Combines electrochemical control with real-time monitoring of potential-dependent absorption changes.
Flexible Cell Configurations
EC-UV1 offers a single-chamber design, while EC-UV2 provides a membrane-separated H-type configuration with gas access.
Technical Specifications
| Specification | Details |
|---|---|
| Chamber structure | Single-chamber (EC-UV1); Two-chamber (EC-UV2) |
| Electrode system | Three-electrode |
| Working electrode | ITO or FTO electrode; customizable |
| Counter electrode | Pt wire or graphite rod electrode |
| Reference electrode | Standard Ø6 mm reference electrode |
| Cell body material | PEEK |
| Optical window material | Sapphire |
| Optical window diameter | Ø25 mm |
| Membrane separation | Replaceable membrane (EC-UV2) |
Typical Applications
Redox Process Monitoring
Tracking potential-dependent UV–Vis spectral changes during oxidation and reduction.
Electrocatalyst & Electroactive Material Studies
Monitoring catalyst states, intermediates and electroactive interfaces under applied potentials.
Time-Resolved Spectroelectrochemistry
Following transient optical responses during potential-step or pulsed measurements.
Membrane-Separated & Gas-Controlled Studies
Using EC-UV2 for compartment-separated or gas-controlled measurements.
Model Selection Guide
EC-UV1 — Single-chamber
A compact single-chamber design with an ITO working electrode and sapphire optical window. Recommended for conventional in situ UV–Vis spectroelectrochemical measurements. Select this model when direct monitoring of potential-dependent spectral changes is required.
EC-UV2 — Two-chamber, Membrane-separated
An H-type two-chamber design with a replaceable membrane and gas access to the working compartment. Recommended for in situ UV–Vis studies requiring electrode-compartment separation. Select this model when membrane separation or controlled gas introduction is required.
Published Application Example
Potential-Dependent In Situ UV–Vis Monitoring of Ir-Based OER Catalysts
Shen et al. used a custom transmission-type in situ UV–Vis electrochemical cell compatible with a Shimadzu UV-2600 to investigate the oxidation-state evolution of CeO₂–IrO₂ and IrO₂ during oxygen evolution. The catalyst was deposited on a transparent FTO working electrode in the optical path. Potential-dependent and time-resolved UV–Vis measurements revealed sequential Ir redox transitions and correlated absorbance changes with electrochemical charge accumulation.
Capabilities Relevant to the EC-UV Series
- Supports potential-dependent in situ UV–Vis monitoring during electrochemical polarization.
- Enables transmission measurements with transparent conductive working electrodes.
- Supports kinetic and pulsed-potential studies of redox-state changes.
Application Studies
Application studies using this series are currently underway.
Note: The referenced study used a custom transmission-type in situ UV–Vis electrochemical cell compatible with a Shimadzu UV-2600 and a catalyst-coated FTO working electrode. The commercial cell model and manufacturer were not identified, and the study is included solely as a related application example.