Tajikistan H003 Gas (CO2) Reduction Unit

This is an electrolytic cell designed for electrocatalytic reduction experiments involving carbon dioxide, nitrogen, and oxygen in the laboratory. The cell features two key technical innovations: 1. A short inter‑electrode distance—minimum 2 mm (with optional ranges of 2–5 mm; default upon shipment is 4 mm). Reducing the electrode gap effectively lowers the cell’s internal resistance, energy consumption, and cell voltage, eliminating the need for a high‑voltage electrochemical workstation. High cell voltages can lead to oxidative or reductive degradation of the electrodes and compromise their stability. 2. Simple and convenient disassembly and assembly: This electrolytic cell employs a male‑female interlocking design that addresses structural weaknesses, eliminating the need for multiple layers of gaskets and copper tape. Sealing is achieved with just three O‑rings, making operation straightforward. Our company holds the intellectual property rights to this product; counterfeiting will be prosecuted!

Category:

TajikistanElectrochemical reduction of carbon dioxide

Product Description

H003 Gas (CO2) Reduction Unit
Uses and Features

1. The device features a minimum electrode gap of 2 mm (with a separator in between), with options ranging from 2 to 5 mm; by default, it is shipped with a 4-mm gap. This design significantly reduces electrical resistance, eliminating the need for an electrochemical workstation with high cell voltage—standard workstations can readily handle high‑current measurements.

2. The flow channel end is equipped with stainless steel contact electrodes, and the counter electrode employs graphite combined with gold-plated metal components. Compared to the conventional use of copper tape for conductivity, this design significantly enhances electrical stability. The reference electrode is directly inserted into the liquid flow channel, effectively eliminating bubble‑induced interference. The counter electrode may be a metal sheet, a mesh, or a foam structure—none of these configurations compromise the device’s sealing performance.

3. The electrode and separator mounting areas of the device both feature recessed grooves; pre-cut electrodes and separators are individually placed into these grooves, and tightening them ensures both a secure seal and electrical conductivity, thereby enhancing the overall assembly integrity.

4. The device features a simple, user-friendly overall structure that reduces operational uncertainty; this design effectively prevents leakage, poor insulation, or inadequate conductivity.