Sales of 3 tons of industrial pure water equipment, 100 liters/hour, laboratory pure water machine, 5 tons of process reverse osmosis machine equipment

Our company's small deionized water equipment is tailored for specific companies who require high-quality water, but the daily demand is not significant.

Our company has three types of equipment: capable of reaching over 15M Ω - CM, with a water output of 100 liters -10 tons/hour, and stable water quality.

Suitable for electroplating factories, circuit board factories, cosmetics factories, pharmaceutical factories, laboratories, etc.

1. Small mixed bed (precision mixing)

2. RO+small mixed bed

3. RO+EDI (Electrocontinuous Deionization)

http://www.gz-aoshen.com/projects/project201.htm

1: The deionized water obtained using cation exchange resin can generally reduce the conductivity of the effluent to below 10us/cm after passing through, and then reach below 1us/cm after passing through a mixed bed. However, the water cost produced by this method is not high, but there are too many particulate impurities, which cannot meet the ideal requirements. Currently, it is less commonly used.
2: Pretreatment (i.e. sand carbon filter+precision filter)+reverse osmosis+mixed bed process
This method is currently widely used because the investment cost of reverse osmosis is not high. It can remove 90% of the ions in the water that have already been added, and the remaining ions can be removed through mixed bed exchange. This can increase the conductivity of the effluent to below 1 us/cm. This is currently a popular method.

3: Adopting a two-stage reverse osmosis method: the process is as follows:
Raw water → Multi media filter → Activated carbon filter → Water softener (or scale inhibitor) → Precision filter → Primary reverse osmosis → Dosing machine (pH regulation) → Intermediate water tank → Secondary reverse osmosis (positively charged reverse osmosis membrane) → Purified water tank → Pure water transfer pump → UV sterilizer → 0.22 or 0.5 μ M precision filter → water object;

4: The pre-treatment uses reverse osmosis, just like the D two methods, except that the mixed bed used later uses EDI continuous desalination membrane blocks instead, which eliminates the need for acid alkali regeneration resin and instead uses electrical regeneration. This completely makes the entire process pollution-free, and the treated water quality can reach over 15M. But this method requires a lot of upfront investment and low operating costs, so appropriate investments should be made according to the situation of each company. The process is as follows:
Raw water → Multi media filter → Activated carbon filter → Water softener → Precision filter → Reverse osmosis equipment → Pure water tank → EDI booster pump → Electrodeionization (EDI) → Ultra pure water tank → Ultra pure water transfer pump → Post 0.22 filter → Water object

Raw water → Multi media filter → Activated carbon filter → Water softener → Precision filter → Secondary reverse osmosis → Intermediate water tank → EDI booster pump → EDI device → Ultrapure water tank → Ultrapure water transfer pump → UV sterilizer → Refined mixed bed → 0.22 or 0.5 μ M precision filter → water object
http://www.gz-aoshen.com/projects/project201.htm

Applicable industries:

The electronic industry produces pure water for manufacturing industries such as monocrystalline silicon, semiconductors, integrated circuit blocks, IC chip packaging, picture tubes, glass shells, LCD displays, printed circuit boards, optics, optoelectronics, thermal power plants, metallurgy, chemical engineering, light industry, automotive manufacturing, pharmaceuticals, healthcare, etc;

● Water for infusion, pharmaceutical preparations, laboratory analysis, hemodialysis, pharmaceuticals, and preparation processes in the pharmaceutical industry;

● Painting industries such as electroplating, battery production, and electrophoretic paint production lines; Surface cleaning and coating of automobiles, electrical appliances, and building materials products; Coating on glass and plastic surfaces, etc;

Chemical industries such as chemical pharmaceuticals, textile printing and dyeing, fine chemicals, cosmetics, ink cartridges, daily chemical products, etc;

● Experimental water such as production laboratories, chemical laboratories, physics laboratories, pilot workshops, hospital biochemical rooms, etc. in factories, universities, and companies.