Titanium Based Mono polar Sodium Chlorate Electrolyzer Equipment

Product Overview

Description

Model	FG-II20-B	FG-II25-B	FG-II30-B	FG-II60-B	FG-II80-B	FG-II120-B
Electrolytic Area	10M2	12.5M2	15M2	30M2	40M2	60 M2
Anode Material	Noble Metal Oxide Coating + High Purity Titanium
Cathode Material	Extreme Low Carbon Steel
Design Current Density	2200-2500A/M2
Inter Electrode Distance	2.5mm~3mm
Anode Coating	Quintuple Noble Metal Nano-structured Coating
Anode Service Life	>6 Years	>6 Years	>6 Years	>6 Years	>6 Years	>6 Years
Oxygen Content	<3%	<3%	<3%	<3%	<3%	<3%
Current Efficiency	>92%(Secondary Refined Brine)
Shell Material	Carbon Steel, Titanium
Chlorate Output	110MT/Year	130 MT/Year	160 MT/Year	300 MT/Year	400 MT/Year	600 MT/Year
DC Power Consumption	<5100kw/MT
Working Temperature	80°C~85°C

 

Name: Titanium Based Mono-polar Sodium Chlorate Electrolyzer Equipment

Item No.: FG-II20-B 

 

Features:

1. Electrolyzers for producing sodium chlorate and potassium chlorate.

2. Low consumption power.

3. High working efficiency.1

 

Application:

Electrochemistry.

1. Effluent treatment

2. Organic electrosynthesis

3. Oxidant production and regeneration such as perchloride, iodate, chromic anhydride and persulphate etc.

4. Industrial electroplating such as Zn and Cr plating etc.

 

Introduction:  

An electrolytic cell decomposes chemical compounds by means of electrical energy, in a process called electrolysis; the Greek word lysis means to break up. The result is that the chemical energy is increased. Important examples of electrolysis are the decomposition of water into hydrogen and oxygen, and bauxite into aluminium and other chemicals.

An electrolytic cell has three component parts: an electrolyte and two electrodes (a cathode and an anode). The electrolyte is usually a solution of water or other solvents in which ions are dissolved. Molten salts such as sodium chloride are also electrolytes. When driven by an external voltage applied to the electrodes, the electrolyte provides ions that flow to and from the electrodes, where charge-transferring, or faradaic, or redox, reactions can take place. Only for an external electrical potential (i.e. voltage) of the correct polarity and large enough magnitude can an electrolytic cell decompose a normally stable or inert chemical compound in the solution. The electrical energy provided undoes the effect of spontaneous chemical reactions.

Related Items:

 

 

 

 

 

 

Process Flow: