- Knowledge Base
- Ion Exchange Troubleshooting
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Softening
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Groundwater & Wastewater
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Municipal Water Treatment
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Fundamentals of Ion Exchange
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Activated Carbon
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Deionization
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Emerging Contaminants
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Ion Exchange Leachables
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Non-Aqueous
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Chemistry
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Condensate Polishing
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Ion Exchange Troubleshooting
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Resin Sampling & Testing
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Water Quality Standards
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Metals Removal
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Specialty Media
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Dealkalization
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Dialysis
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Resin Filling, Removal, Storage, & Disposal
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Industrial Applications
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Equipment Guidelines
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Resin Fouling & Cleaning
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Portable Exchange DI (PEDI)
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Removal of Oxygen
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Nuclear
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Chemical Specifications
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Sugar
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Organics Removal
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Lab Water
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Silica
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Ultrapure Water
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Water Testing
Osmotic Shock
What resins are more suitable for resistance to osmosis shock.
Ion exchange resins encounter osmotic shock when they are exposed to a concentrated solution after being in a dilute solution and vice versa. These occurrences result in repeated shrinking and swelling of the bead.
The more porous a gel ion exchange resin is, the softer and more elastic it is. This makes it more suitable for resistance to osmosis shock. The harder a resin is the less elastic it is and the more prone it will be to osmotic damage.
In general, smaller resin beads are less susceptible to breakage as caused by osmotic shock than are larger beads.