100 mL + 100 mL H-Type Electrochemical H-Cell – Dual-Chamber Reactor
The 100 mL + 100 mL H-Type Electrochemical H-Cell is a dual-chamber electrochemical reactor designed for laboratory-scale research involving separated anodic and cathodic reaction environments.
The cell consists of two glass electrolyte chambers, each with a nominal capacity of 100 mL, connected through a central membrane interface. This configuration allows researchers to maintain separate electrolyte compartments while supporting ionic transport through a suitable ion-exchange membrane or separator.
The reactor features a transparent glass chamber construction, PTFE screw-type lids, electrode access ports, gas connection ports, and a central clamping arrangement for securing the two chambers. The separated-chamber design is suitable for electrochemical experiments where the products generated at the working and counter electrodes need to be kept apart to reduce cross-contamination.
The 100 mL + 100 mL H-cell is suitable for electrocatalysis, water-splitting research, hydrogen and oxygen evolution studies, carbon dioxide reduction research, membrane evaluation, and electrochemical reaction investigations.
Technical Specifications:
Product Type: H-Type Dual-Chamber Electrochemical Cell
Product Configuration: 100 mL + 100 mL
Cell Design: Membrane-Separated H-Type Electrochemical Reactor
Chamber Configuration: Two Separate Electrolyte Chambers
Chamber Capacity: 100 mL per chamber
Total Nominal Chamber Capacity: 200 mL
Chamber Material: Transparent Glass
Lid Material: PTFE
Electrode Ports: Multiple Electrode Access Ports
Gas Ports: Gas Inlet and Outlet Arrangement
Membrane Interface: Central Membrane-Separated Configuration
Sealing Configuration: Sealed Chamber and Port Arrangement
Clamping System: Central Mechanical Clamping Assembly
Electrochemical Configuration: Suitable for Two- or Three-Electrode Research Setups, depending on the electrode arrangement
Membrane Compatibility: Application-Specific Ion-Exchange Membranes and Separators
Electrolyte Compatibility: Application-Specific Aqueous or Other Compatible Electrolytes
Operating Environment: Laboratory-Scale Electrochemical Research
Pressure Operation: Suitable for controlled laboratory gas handling; pressure rating must be established for the specific manufactured configuration
Temperature Operation: Dependent on the glass, PTFE, 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.
CO₂ Reduction Reaction (CO₂RR): Electrochemical carbon dioxide conversion studies with a suitable gas and electrode configuration.
Membrane Evaluation: Research involving ion-exchange membranes and separators.
Separated-Product Analysis: Independent collection and analysis of products generated in the two chambers.
Electrochemical Reaction Studies: Investigation of anodic and cathodic reaction behavior.
Electrolyte Research: Evaluation of electrolyte combinations and 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.
Fuel Cell Research: Investigation of membrane and electrode behavior in separated electrochemical compartments.
Electrochemical Measurement Compatibility:
The 100 mL + 100 mL H-Type Electrochemical Cell is intended for electrochemical research involving separated anodic and cathodic compartments. The applicable measurement method depends on the electrode configuration, membrane, electrolyte, and connected electrochemical instrumentation.
Compatible Research Techniques
Cyclic Voltammetry (CV): Electrochemical characterization of electrode and catalyst behavior.
Linear Sweep Voltammetry (LSV): Polarization studies and electrocatalytic activity evaluation.
Chronoamperometry: Current response measurements under controlled potential.
Chronopotentiometry: Potential response measurements under controlled current.
Controlled-Potential Electrolysis: Electrolysis experiments using a suitable potentiostat.
Controlled-Current Electrolysis: Electrochemical experiments conducted at a controlled current.
HER Studies: Hydrogen-evolution catalyst evaluation.
OER Studies: Oxygen-evolution catalyst evaluation.
CO₂RR Studies: Carbon dioxide reduction research using a suitable gas supply and electrode configuration.
Membrane Transport Studies: Evaluation of ion transport, crossover, and membrane performance.
Separated-Compartment Reaction Studies: Independent investigation of anodic and cathodic reaction products.
Electrochemical Stability Studies: Evaluation of electrode and catalyst behavior during extended experiments.
Key Features:
Dual-Chamber H-Type Design: Two separate electrolyte compartments for anodic and cathodic reactions.
100 mL + 100 mL Capacity: Nominal 100 mL chamber capacity on each side.
Transparent Glass Chambers: Supports visual observation of electrolyte behavior and electrochemical reactions.
PTFE Lids: Provides a chemically resistant lid material for laboratory applications.
Membrane-Separated Configuration: Central membrane interface for ionic transport between the two chambers.
Electrode Access Ports: Supports flexible electrode arrangements for electrochemical research.
Gas Connection Arrangement: Supports suitable gas purging and controlled-atmosphere experiments.
Central Clamping Assembly: Holds the chamber arrangement together at the membrane interface.
Separated Reaction Environments: Helps reduce direct mixing of products generated in separate chambers.
Laboratory-Scale Electrolyte Volume: Suitable for experiments requiring a larger electrolyte volume than small-volume H-cells.
Flexible Electrochemical Configuration: Suitable for application-specific electrode and instrumentation arrangements.
Membrane Research Compatibility: Suitable for experiments involving ion-exchange membranes and separators.