30 mL + 30 mL H-Type Electrochemical H-Cell – Dual-Chamber Electrochemical Cell
The 30 mL + 30 mL H-Type Electrochemical H-Cell is a dual-chamber electrochemical reactor designed for laboratory-scale electrochemical research, electrocatalysis, membrane evaluation, and separated-compartment reaction studies.
The cell consists of two independent electrolyte chambers, each with a nominal capacity of 30 mL, separated by a central membrane interface. This configuration enables researchers to maintain separate anodic and cathodic reaction environments while supporting ionic transport through a suitable membrane or separator.
The H-cell is constructed using Borosilicate Glass 3.3 chambers, PTFE lids, O-ring sealing components, and a stainless-steel clamp. Multiple electrode and gas ports support flexible experimental arrangements for electrochemical measurements and controlled gas purging.
The dual-chamber configuration is suitable for research involving hydrogen evolution, oxygen evolution, carbon dioxide reduction, membrane evaluation, electrocatalyst screening, and electrochemical reaction studies where separation of reaction products is required.
Technical Specifications:
Product Type: H-Type Dual-Chamber Electrochemical Cell
Product Configuration: 30 mL + 30 mL
Cell Design: Membrane-Separated H-Type Electrochemical Reactor
Chamber Configuration: Two Separate Electrolyte Chambers
Chamber Capacity: 30 mL per chamber
Total Nominal Chamber Capacity: 60 mL
Chamber Material: Borosilicate Glass 3.3
Electrode Ports: 3 Electrode Ports
Gas Ports: 4 Gas Ports
Membrane Interface: Central Membrane-Separated Configuration
Lid Material: PTFE
Sealing Configuration: O-Ring Sealing System
Clamp Material: Stainless Steel
Gas Connection Arrangement: 4 Gas Inlet Tubes
Electrochemical Configuration: Suitable for Two- or Three-Electrode Research Setups, depending on the electrode arrangement
Membrane Compatibility: Application-Specific Ion-Exchange Membranes and Separators
Operating Environment: Laboratory-Scale Electrochemical Research
Pressure Operation: Suitable for controlled laboratory gas handling; not specified as a high-pressure-rated reactor
Temperature Operation: Dependent on the cell materials, sealing components, membrane, and experimental conditions
Applications:
Electrocatalysis Research: Evaluation of electrode and catalyst materials.
Water Splitting Research: Investigation of hydrogen and oxygen evolution reactions.
Hydrogen Evolution Reaction (HER): Testing and comparison of hydrogen-evolution catalysts.
Oxygen Evolution Reaction (OER): Evaluation of oxygen-evolution catalysts.
Membrane Evaluation: Research involving ion-exchange membranes and separators.
CO₂ Reduction Reaction (CO₂RR): Electrochemical carbon dioxide conversion studies with a suitable gas and electrode configuration.
Electrochemical Reaction Studies: Investigation of anodic and cathodic reaction behavior.
Separated-Product Analysis: Independent analysis of products generated in the two chambers.
Electrolyte Research: Evaluation of electrolyte combinations and electrochemical reaction environments.
Ion-Exchange Membrane Research: Investigation of ionic transport and membrane performance.
Electrochemical Energy Conversion: Laboratory research involving electrochemical conversion systems.
Catalyst Screening: Comparative evaluation of electrochemical catalysts.
Material Science Research: Study of electrode materials, membranes, and electrochemical interfaces.
Renewable Energy Research: Research related to hydrogen production and electrochemical energy technologies.
Key Features:
Dual-Chamber H-Type Design: Two separate electrolyte compartments for anodic and cathodic reactions.
30 mL + 30 mL Capacity: Nominal 30 mL chamber capacity on each side.
Borosilicate Glass 3.3 Chambers: Suitable for laboratory electrochemical applications.
Membrane-Separated Configuration: Central membrane interface for ionic transport between the chambers.
PTFE Lids: PTFE lid construction for the chamber assemblies.
Multiple Electrode Ports: Supports flexible electrode configurations for electrochemical research.
Gas Connection Ports: Supports suitable gas purging and controlled-atmosphere experiments.
O-Ring Sealing System: Sealing arrangement for the chambers, electrode ports, and gas ports.
Stainless-Steel Clamp: Secures the cell assembly.
Separated Reaction Environments: Helps reduce direct mixing of products generated in separate chambers.
Laboratory-Scale Electrolyte Volume: Suitable for experiments requiring relatively small electrolyte quantities.
Flexible Electrochemical Configuration: Suitable for application-specific electrode and instrumentation arrangements.
Membrane Research Compatibility: Suitable for experiments involving ion-exchange membranes and separators.