Your Trusted Supplier Of Titanium Anodes For Water Treatment
Electrocatalytic oxidation is a form of advanced oxidation. It decomposes organic matter through direct oxidation or indirect oxidation by hydroxyl radicals (·0H) generated on the electrode surface. It has no selectivity and is highly efficient.
The company's electrocatalytic oxidation system has complete process technology and domestically advanced electrocatalytic oxidation water treatment modules. It is mainly concentrated in the wastewater pretreatment and advanced treatment process sections. Currently, it is used in high-concentration refractory organic wastewater, high-concentration ammonia nitrogen wastewater, and RO concentrated water. It has been widely used in other fields. Depending on the working conditions, the anodes are mainly multi-component alloy titanium anodes and ruthenium-iridium system titanium anodes.
What is water treatment?
Simply put, "water treatment" is the process of removing some harmful substances in water that are not necessary for production and life through physical, chemical, and biological means. It is a process of water quality conditioning such as sedimentation, filtration, coagulation, flocculation, corrosion inhibition, and scale inhibition in order to suit specific purposes.
Titanium anodes for water treatment
Seawater electrolysis system
Salt water electrolysis system
Electrodescaling system
Pickling electrolyzed water system
Hydrogen-rich water system
electrocatalytic oxidation system
Electrolytic reduction Fenton reactor
sodium hypochlorite generator
Pickling oxidation potential water
1.Sodium Hypochlorite Generator
Sodium hypochlorite generator:The equipment is a water treatment disinfection and sterilization equipment.The raw material of the equipment is salt water and produces sodium hypochlorite solution through electrolytic reaction.
Sodium hypochlorite (NaCIO) is a light yellow transparent liquid,with a pungent smell similar to chlorine gas,is a strong oxidizing agent.It has the ideal disinfection effect and bleaching deodorization function.
Sodium hypochlorite is a strong oxidizing agent and a strong disinfectant,It is produced by diaphragmless electrolysis by taking a dilute solution from a wide range of cheap industrial salts or seawater.In order to ensure the fresh texture of sodium hypochlorite and high activity,to ensure the disinfection effect,the device occurs while the sodium hypochlorite is added.
The reaction principle of the anode is to electrolyze the sodium chloride (pill sheet) put into the swimming pool.During the electrolysis, sodium hypochlorite is formed.The most suitable salt concentration is 3%-5%.The electrodes used in the sodium hypochlorite generator are plate electrodes and tube electrodes.
Products Specifications:
|
Current density |
<1500A/㎡ |
|
Chlorine evolution potential |
≤1.2V or oxygen evolution potential ≥1.9V |
|
Polarizability |
≤40mV |
|
Life |
5 + years |
|
Intensive life testing |
1 mol/L2 HSO4,current density 20000A/㎡,temperature 40±2°C,strengthening electrolysis time ≥250 h |
|
Specifications |
50g/h,100g/h,200g/h,500g/h,1000g/h and other customized production |
2.Titanium Anode For Electrolytic Wastewater Treatment
Titanium Anode For Electrolytic Wastewater Treatment
The titanium anode for electrolytic wastewater treatment is manufactured using highly corrosion-resistant titanium material, coated with ruthenium oxide or iridium. The composition of the coating plays a crucial role in both the chlorine production efficiency and the lifespan of the cell.
The electrodes for saline electrolysis cells are made from high-purity solid titanium plates, baked with noble metal oxide coating to ensure the long lifespan of the cell, providing cleaner and healthier water, and facilitating electrode cleaning if needed.
Product Specifications:
|
Product Name |
Titanium Anode for Electrolytic Wastewater Treatment |
|
Brand |
Ehisen |
|
Base Material |
Ti (Gr1, Gr2) |
|
Coating Material |
IrO2, RuO2 |
|
Coating Thickness |
820μm |
|
Shape |
Solid Plate |
|
Lifespan |
10000-18000 Hours |
|
Current Density |
<300A/m2 |
|
Salt Concentration |
0.30.5% |
|
Size |
Customizable |
3.Titanium Electrodes For Swimming Pool Disinfection
Titanium Electrodes For Swimming Pool Disinfection
Titanium electrodes for swimming pool disinfection are cutting-edge technology that ensures clean and safe swimming pool water. The electrode is designed to use the chemical properties of titanium to effectively disinfect water. This is an ideal solution for pool owners who prioritize the hygiene and well-being of their pool users.
Titanium electrodes work through an electrolysis process, which involves using an electric current to create a chemical reaction. When the electrodes are connected to a power source, the titanium reacts with water to produce important cleaning agents, similar to chlorine and bromine. These cleaners effectively kill bacteria, infectious diseases, and other microorganisms that may contaminate your pool water.
Say goodbye to excessive disinfection by-products, pungent odors caused by excessive chlorine, eye irritation, hair damage, swimsuit fading and other problems. Common salt and electricity produce a consistent, right amount of pure chlorine solution to safely, easily and cost-effectively disinfect swimming pools
Performance Parameters:
| Parameter | Value |
|---|---|
| Electrode Material | Titanium |
| Coating Type | Catalytic Coating |
| Corrosion Resistance | Excellent |
| Service Life | 10+ years |
| Parameter | Value |
|---|---|
| Input Voltage | 110-240 V |
| Power Consumption | 60 W |
| Water Flow Rate | 10-20 liters per minute |
4.Ruthenium Iridium Titanium Electrode Rod
Ruthenium Iridium Titanium Electrode Rod
Ruthenium Iridium Titanium electrode Rod or electrode wire is coated with a ruthenium-iridium metal oxide coating as an electronic anti-corrosion anode,Anode Rod uses titanium as the base material.
1. Adding a certain proportion of tin can reduce the depth of cracks on the surface of the anode coating, improve the electrocatalytic activity and corrosion resistance of the oxide, increase the enhanced electrolysis life of the anode, which can reach more than 10 years, and avoid the frequent replacement of traditional sacrificial anode rods. Poor user experience;
2. The ruthenium oxide coating has a certain inhibitory effect on the oxidizing substances produced by bacteria in the water during the electrolysis reaction. It has a certain effect on the "odor" caused by long-term use of the water tank.
3. Since the protective current requirements required by cathode materials at different temperatures are different, constant current cannot meet the requirements, and the constant voltage control system is complex and has poor stability. Moreover, the current required for electronic corrosion resistance is very small.Controlling the constant tank pressure approach is easy and useful. It can take advantage of the characteristic that the resistivity of water decreases with the increase of temperature. When the water temperature is low, the output protection current is small in size and high in water temperature. Output protection current, so that the material can play a good protective role under high and low temperature conditions.
Product Parameters:
|
Grade |
CHEMICAL COMPOSITION (weight %, max or range) |
MECHANICAL PROPERTIES (min) |
|||||||||||
|
ASTM |
UNS |
N |
C |
H |
Fe |
O |
Ti |
Other element (each) |
Other element (total) |
Tensile |
Yield |
El. |
Red. |
|
|
|
|
|
|
|
|
|
|
|
Mpa |
Mpa |
% |
% |
|
GR 1 |
R50250 |
0.03 |
0.08 |
0.015 |
0.2 |
0.18 |
Bal. |
<0.1 |
<0.4 |
240 |
138 |
24 |
30 |
|
GR 2 |
R50400 |
0.03 |
0.08 |
0.015 |
0.3 |
0.25 |
Bal. |
<0.1 |
<0.4 |
345 |
275 |
20 |
30 |
5.Titanium Electrodes For Drinking Water Disinfection
Titanium Electrodes For Drinking Water Disinfection
Our titanium electrodes for drinking water disinfection are an efficient and reliable solution for effectively disinfecting drinking water. It is designed to remove dangerous bacteria, infectious diseases, and other microorganisms to provide safe, clean drinking water to families, communities, and workers.
Our drinking water disinfection uses advanced technology to produce powerful oxidants that effectively disinfect water. The electrodes are made of high-quality titanium material, which is corrosion-resistant and ensures long-term continuity. It works on the principle of electrolysis, converting water particles into oxidants, thereby eliminating microorganisms.
6.Titanium Anode For Fruit And Vegetable Machine
Titanium Anode For Fruit And Vegetable Machine
Fruit and vegetable machine is also called fruit and vegetable purifier or fruit and vegetable washing machine,which refers to the use of electric performance,placing different cleaning disinfection and anti-virus functions in the machine,mainly used for cleaning vegetables, fruits,baby products and so on.
Titanium anode for vegetable machines is a special coating process,which is made by electrochemical oxidation method.Its production principle is to use titanium products as anodes,and through the action of DC voltage,the anode surface is oxidized into a layer of transparent oxide membrane.
Parameters And Properties Of Titanium Anode For Fruit And Vegetable Machine:
|
◆Material: pure titanium material,can choose different purity of titanium material,such as Gr1,Gr2,Gr3,etc.; ◆Craftsmanship: After special treatment,a medium-thick oxide film is formed on the surface, giving it good performance; ◆Anode shape: according to the specific application requirements can be made into groove shape,plate shape,wire shape,tube shape and other different shapes of anode. |
Click on the product list below for more product details
working principle
Titanium-based lead dioxide anode
With the continuous development of industry and science and technology, traditional anode materials are increasingly showing their limitations. For example, platinum is too expensive; graphite has unsatisfactory corrosion resistance and low strength in the chlor-alkali industry and oxygen evolution system; lead alloy anodes have shortcomings such as poor corrosion resistance, low electrocatalytic performance, and high power consumption. Starting from the requirements for so-called "green materials" such as energy saving, consumption reduction, and no pollution, people hope to find new anodes with long life, high electrochemical catalytic performance, and no secondary pollution.
In an oxygen evolution environment, people have developed lead dioxide electrodes. Pb0a: is a non-stoichiometric compound that is deficient in oxygen and contains excess lead. It has various crystal forms. β-PbÛ, which is plated by anodic electrodeposition, has anti-oxidation properties. Oxidation, corrosion resistance (high stability in strong acid HSO or HN0), high oxygen overpotential, good conductivity, strong binding force, strong oxidation ability during electrolysis in aqueous solution, and the ability to pass large currents, etc., are very Has development prospects. It has been widely used in electroplating, smelting, wastewater treatment, cathode anti-corrosion and other fields, and cannot be replaced by many other electrode materials (such as DSA, lead, titanium platinum plating).
In the early days, a layer of β-Pb02 was directly deposited on the Ti plate after pretreatment. The contact resistance between the base and the active layer of this kind of electrode is large, and during use of the electrode, due to the high resistance layer of TiO2 formed between the base and the interface, the anode potential increases, the coating falls off, and the electrode quickly loses its use value. . In order to ensure good bonding performance between the substrate and the surface coating and thus ensure good conductivity and corrosion resistance of the electrode, scholars have developed a new type of lead dioxide electrode. Compared with the old lead dioxide electrode, the new lead dioxide electrode mainly An anti-passivation bottom layer is compounded between the substrate and the β-Pb02 coating, and some also add an intermediate layer on the bottom layer. The new lead dioxide electrode consists of a titanium substrate, a bottom layer, an intermediate layer and a surface layer. The lead dioxide electrode of this structure has the following advantages: (1) It can be used under high current density; (2) It has high current efficiency; (3) It has good corrosion resistance and lifespan.
Performance characteristics of titanium-based lead dioxide electrodes: Titanium-based lead dioxide electrodes have the characteristics of high oxygen evolution overpotential, strong oxidation ability, good corrosion resistance, good conductivity, and can pass large currents during electrolysis in aqueous solution. It has good chemical stability and high hardness, but poor mechanical strength and brittleness. It has better performance in sulfuric acid medium. It is widely used as an insoluble anode in the electrolysis industry, sewage treatment, degradation of COD, and removal of ammonia nitrogen.
Why use lead dioxide anodes
Wastewater pollutants: chemical oxygen demand (COD), ammonia nitrogen (NH3-N), total nitrogen (TN), total phosphorus (TP). Key heavy metal pollutants: lead, mercury, cadmium, chromium, and arsenic.
What is COD?
COD (Chemical Oxygen Demand), also called chemical oxygen demand, is a chemical method used to measure the amount of raw substances that need to be oxidized in water samples; wastewater, wastewater treatment plant effluent and polluted water can be oxidized by strong oxidants matter(generally organic matter); in the discussion of river pollution and the nature of industrial wastewater, as well as the operation and management of wastewater treatment plants, it is an important and quickly measured organic matter pollution parameter.Often represented by the symbol COD: under certain conditions, when a certain strong oxidant is used to treat a water sample, the amount of oxidant consumed:
It reflects the degree of material pollution in the water. The greater the chemical oxygen demand, the more severe the pollution by organic matter in the water: COD is expressed in mg/L. The COD value detected by the water quality monitoring instrument can be divided into five categories. Among them, Category 1 and Category 2 COD ≤ 15mg/L can basically meet drinking water standards. Water with a value greater than Category 2 cannot be used as drinking water. Category 3 COD ≤ 20mg/L, Category 4 COD ≤ 30mg/L, Category 5 COD ≤ 30mg/L, and Category 5 COD ≤ 30mg/L. COD ≤ 40 mg/L is considered polluted water quality. The higher the COD value, the more severe the pollution;
COD degradation effects and conclusions of titanium anodes coated with different systems
|
Electrode type |
Inlet water COD/mg.L-1 |
Effluent C0D/mg.L-1 |
|
Titanium based iridium ruthenium |
125 |
67 |
|
Titanium based iridium tantalum |
125 |
56 |
|
Titanium-based iridium ruthenium tin |
125 |
56 |
|
Tin antimony intermediate layer titanium based lead dioxide |
125 |
47 |
|
Composite intermediate layer titanium-based dimorphic lead |
125 |
21 |
It can be seen that under the same incoming water and test conditions, the titanium-based composite intermediate layer lead dioxide electrode has the best effect on sewage treatment. Both are titanium-based lead dioxide, and the electrode treatment effect of the titanium-based lead dioxide composite intermediate layer is better than that of the electrode with a tin-antimony intermediate layer titanium-based lead dioxide. The analysis reason is: the titanium-based composite intermediate layer lead dioxide has a higher oxygen evolution potential than other electrodes, which can effectively prevent the occurrence of side reactions during the electrolysis process. The current efficiency is high, so the treatment effect is good;
On-site data for processing 200m3/h printing and dyeing wastewater
Field measured data
|
Electrolysis time (min) |
Ammonia nitrogen (mg/L) |
COD (mg/L) |
Chroma |
|
0 |
71.26 |
592 |
250 |
|
15 |
50.26 |
468 |
100 |
|
30 |
38.64 |
368 |
30 |
|
60 |
10.94 |
276 |
8 |
|
90 |
0.22 |
140 |
/ |
|
120 |
<0.5 |
37 |
/ |
From the above data, it can be seen that the composite intermediate layer lead dioxide anode has a relatively obvious effect in degrading COD in printing and dyeing wastewater. Through stepped cycle electrolysis, high-concentration COD can be reduced by 50 ppm in the national emission standard within 2 hours of treatment.
What makes Ehisen a top choice
The titanium-based lead dioxide anode is based on titanium material TA1. After the titanium substrate is acid-etched, the tin-antimony oxide bottom layer is plated by thermal decomposition, and then the α-PbO2 intermediate layer is electroplated with an alkaline solution, and then acidic composite is used. The electroplating solution prepares a fluorine-containing β-PbO2 surface layer doped with an active metal and a high-adsorption performance particle, thereby obtaining a titanium-based lead dioxide electrode. The titanium-based lead dioxide electrode prepared by this method is low-priced. ,long lasting.
PbO2 surface active layer
The PbO2 surface active layer is generally prepared by electrodeposition. It has two crystal forms, α and β. β-PbO2 has good corrosion resistance and conductivity, and is usually used as the surface active layer of electrodes. However, α-PbO2 has a strong binding force, and its O-O atomic distance is between the "bottom layer" and β-PbO2, which can act as a buffer and fusion, reduce electrodeposition distortion, and increase the affinity between the surface and the bottom layer. Therefore, during the electroplating process, α-type PbO2 can be deposited first under strong alkaline conditions, and then β-type PbO2 can be deposited under acidic conditions to increase the service life of the electrode.
Product advantages
1. Oxygen evolution potential ≥1.70v, extremely oxidizing.
2. The current efficiency is high, and at low current density, the energy consumption is equivalent to that of iridium and tantalum anodes. When the current density is greater than 500A/m2, the energy consumption is about 0.2v higher than the iridium-tantalum tank voltage.
3. It has a double-coated three-dimensional structure, and the coating has good bonding force.
4. It is an insoluble anode and is corrosion-resistant.
5. After the anode coating is damaged, the substrate can be reused.
6. Low cost, long working life and high cost performance
Conditions of Use
1. Solution concentration:30%
2. Temperature range:<80℃
3. Current density:5000a/m
4. f ion content:60mg/l
5. Coating thickness: 0.8~3mm
6. ph value: 7~9
7. Electrode shape: Generally mesh-shaped, but also
Customized according to customer needs
Customized Titanium Anodes For Water Treatment
Customizing The Shape Of Your Titanium Anodes For Water Treatment
Our customisation options cover a wide range of shapes, so you may get the ideal fit for your application using strips, sheets (available in standard, expanded, corrugated, or perforated forms), foils, squares, wires, rods, discs, bars, and tubes.
Dimensional Variety For Precise Applications:
Rods: Available from 10mm to 50mm in diameter, accommodating robust designs.
Wires: Ranging from 0.5mm to 10mm in diameter, for intricate connections.
Tubes: From 10mm to 200mm in diameter, supporting substantial structures.
Plates: Thicknesses from 0.5mm to 5mm, for sturdy surface coverage.
Meshes: 0.5mm to 2.0mm thick, offering versatile applications.
How Do I Choose The Best Titanium Anodes For Water Treatment?
Evaluate Your Requirements: To start, make sure you are aware of the particular demands and specifications of your project. Clearly state why you require the anode and what results you hope to achieve..
EVALUATE YOUR REQUIREMENTS
To start, make sure you are aware of the particular demands and specifications of your project. Clearly state why you require the anode and what results you hope to achieve.
ELECTROLYTE COMPATIBILITY:
Check the electrolyte solution's makeup before using it with the anode. To prevent undesired reactions or corrosion, make sure the anode and electrolyte are compatible.
CONSIDERATION OF CURRENT DENSITY:
Consider the current density per square meter. This figure shows how much current, relative to surface area, one anode can support. Select an anode that is capable of supporting the current density needed for your application.
TEMPERATURE RANGE:
Determine the range of temperatures at which the anode can function as intended. Choose an anode that won't deteriorate under the process's temperature settings..
PH TOLERANCE
Take into account the ranges of pH that the anode may withstand without degrading. Make sure the pH tolerance of the anode matches the pH range of your electrolyte solution.
CLEARLY STATE YOUR INTENDED APPLICATION
Clearly state your intended application for the anode as well as the anticipated results you hope to attain. Anode properties may vary depending on the application.
ESTIMATE LIFESPAN
Find out how long the anode is predicted to live. In the long term, a longer lifespan can save replacement costs and downtime.
BUDGET AND PRICING:
Consider the pricing and see if it is within your means. Finding a balance between performance and cost-effectiveness is crucial, even though quality is still critical.
INVESTIGATE RELIABLE PRODUCERS OR SUPPLIERS
Investigate reliable producers or suppliers of titanium anodes coated with iridium oxide. Verify if they have a history of creating dependable, high-quality products.
CONSULTATION:
Seek advice from specialists or other professionals in the industry who, thanks to their experience, can offer valuable insights.
REVIEW AND COMPARISON:
Using the above mentioned criteria, evaluate several anode choices. Consider their features, benefits, and specifications.
TRIAL TEST
Whenever feasible, test a sample anode in your application to objectively evaluate its efficacy and appropriateness for your operating environment.
FAQ
FAQ
Q: 1. What coating is best for chlorine evolution?
A: Ru-Ir MMO with high RuO₂ content.
Q: 2. Why is titanium mesh widely used in chlorine generation cells?
A: Mesh provides high active surface area and efficient gas release.
Q: 3. What is typical current density for NaClO production?
A: 100–300 mA/cm².
Q: 4. Why does chlorine generation require Ru-rich coatings?
A: RuO₂ increases catalytic activity for chlorine evolution reaction (CER).
Q: 5. What causes premature coating wear in chlor-alkali systems?
A: High acid concentration, high temperature, or excessive current density.
Q: 6. What lifetime is expected for Ru-Ir MMO in NaClO?
A: 2–5 years depending on chlorine concentration.
Q: 7. Why does anode surface turn black?
A: Normal RuO₂ color or electrolyte staining.
Q: 8. Why is Ta₂O₅ added to MMO coatings?
A: Improves chemical stability and prevents rapid corrosion.
Q: 9. Can these anodes operate in high salinity seawater?
A: Yes. Ru-rich coatings are ideal for seawater electrolysis.
Q: 10. What temperature is ideal for NaClO production?
A: Below 40°C to prevent accelerated coating loss.
Q: 11. Why do anodes generate bubbles unevenly?
A: Scale buildup or coating wear.
Q: 12. Can chlorine evolution damage titanium?
A: Not if coating remains intact.
Q: 13. Why does cell voltage increase?
A: Coating depletion or high-scale deposition.
Q: 14. Can hypochlorite attack the coating?
A: Yes, at high concentrations or high temperatures.
Q: 15. What thickness of titanium mesh is recommended?
A: 1.0–3.0 mm depending on cell design.
Q: 16. Why do chlorine cells need consistent flow velocity?
A: To carry away gas bubbles and reduce back pressure.
Q: 17. Can MMO anodes be used with polarity reversal?
A: Only with Ir-rich or special bipolar-resistant coatings.
Q: 18. Why does coating sometimes peel at mesh edges?
A: High-current-density edge effect; requires reinforced coating.
Q: 19. Can these anodes be recoated?
A: Yes, substrate can be reused multiple times.
Q: 20. What inspection is recommended for chlorine plants?
A: Check anode potential weekly; inspect mesh edges monthly.
Production Process Of The Ehisen Titanium Anode
1
SUBSTRATE PREPARATION:
The first step in our process is the careful selection of titanium substrates, which can be plates, sheets, meshes, or rods, according on the needs of the customer. This crucial stage establishes the anode's properties, guaranteeing endurance and optimum performance in a range of electrochemical applications.
2
SANDBLASTING PROCESS:
By employing sophisticated sandblasting methods, we improve the substrate's surface area and texture, removing any remaining oxidation and guaranteeing a consistent, coating-ready surface. The careful preparation yields a matte finish that improves the electrochemical performance and adherence of the coating.
3
LASER CUTTING
We shape titanium with unmatched precision using state-of-the-art laser technology, producing edges that are burr-free and maintain structural integrity and dimensional accuracy. Our anodes fulfill strict specifications and function dependably in challenging operating settings thanks to their precision.
4
WELDING:
The final structure of the titanium is formed by our expert professionals using argon arc welding and spot welding, among other welding techniques. We provide optimal structural integrity, preventing deformations or fractures, and ensuring durability in service by customizing each technique to the specifications of the substrate.
5
ACID PICKLING:
In the acid pickling step, substrates are submerged in an accurately measured solution of oxalic acid that has been heated to exact temperatures to ensure complete cleaning. A flawless substrate is left behind after this painstaking process eliminates all oxide coatings and contaminants, which is necessary for better coating adherence and performance.
6
PRECIOUS METAL SOLUTION PREPARATION:
We customize precious metal solutions to the application environment of the anode, adjusting the blend to improve performance and increase longevity. Precise alignment with application requirements is ensured by this customized method, which also guarantees optimum performance in various electrochemical environments.
7
TITANIUM ELECTRODE COATING PROCESS:
With several passes, we apply valuable metals like ruthenium-iridium with precision, guaranteeing a consistent coating thickness of 8–10 μm. By improving electrocatalytic characteristics precisely, this coating guarantees uniform performance throughout the whole anode surface.
8
SINTERING AND ANNEALING:
Annealing is a methodical process that reduces hardness, relieves internal tensions, and refines grain structure after sintering in our specially constructed furnace. By improving binding strength and material endurance, this method guarantees that our anodes will fulfill the most stringent performance standards in the most demanding applications.
9
QUALITY TESTING (LIFE ENHANCEMENT TEST):
Strict industry standards are followed during the extensive testing that every anode goes through to verify performance and durability. We guarantee long-term operating stability and reliability through thorough examination, ensuring that our anodes perform above expectations in a variety of electrochemical settings.
10
PACKAGING:
Our anodes undergo rigorous quality control testing before being carefully packaged to preserve integrity during transit. Because of the careful packaging, our clients can be confident in our products and have peace of mind knowing that they will arrive in perfect shape, ready for deployment.
About Us
20+
Senior technical engineer
500+
Global customers
2000+
Factory land occupation
10+
Utility model patent
Honor and qualification
Official certification, professional after sales service.
cooperative partner
We are looking for a cooperative partner to expand our business.
Processing Equipment
Melting Equipment
Forging Equipment
Pickling Production Line
Plate Rolling Equipment
Stamping Equipment
Surface Treatment Equipment
Machining Center
Chemistry Lab
Detection Process
Dimensional Test
Grain Size Test
Plate Tensile Test
Flaw Detection
Three-coordinate Optical Measuring Machine
CMM
Anode Strengthening Life Test
Anode Composition Test
Why Choose Us
why choose us
ADVANCED EQUIPMENT
Ehisen has multiple processing equipment to quickly provide products to customers
Perfect Sales Service:
Ehisen provides you with one-stop non-ferrous metal production, processing, after-sales, and other supporting services
Quality Advantage:
Strictly control quality, guaranteed quality, and high processing precision
Price Advantage
High-cost performance, all products are produced independently
Complete Manufacturing Proficiency
Top-notch titanium items covering all grades are offered in a range of forms, such as plates, flanges, rods, bolts, and tube fittings.
Personalized Solutions For Titanium Anodes
Our unique, near-net-shape titanium fabrication services can help you achieve greater value from your titanium anodes.
Confidentiality Advantage:
After signing a confidentiality agreement, non-relevant personnel cannot enter the workshop at will, making proofing more secure.
Economical Production Solutions
Discover specialized, affordable manufacturing options for an extensive array of titanium items. Our LOW MOQ ensures excellent quality at an affordable price.
As one of the leading titanium anodes for water treatment manufacturers and suppliers in China, we warmly welcome you to buy or wholesale bulk high purity titanium anodes for water treatment at competitive price from our factory. Contact us for quotation and free sample.
Platinum Plated Anode for Hydrogen Rich Water Cups