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Wheel Materials vs. Chemical Compatibility Guide

Casters and Wheels need to operate in a wide range of environments. Chemical exposure can greatly reduce the lifespan of certain materials so it's essential to pick the right wheel materials as compared to the chemical environments those wheels will be exposed to. Use our guide to see what wheels best fit your application. As always if you have any questions give us a call or contact us.

Wheel Materials vs. Chemical Compatibility Guide

Casters and Wheels need to operate in a wide range of environments. Chemical exposure can greatly reduce the lifespan of certain materials so it's essential to pick the right wheel materials as compared to the chemical environments those wheels will be exposed to. Use our guide to see what wheels best fit your application. As always if you have any questions give us a call or contact us.

Fluoboric Acid

HBF₄

Fluoboric Acid Caster Compatibility

Chemical Overview

Molecular Formula: HBF₄

Physical Properties: Fluoboric acid is a colorless liquid in aqueous solution, typically 48-50% concentration. It has a density of ~1.4 g/cm³ at 20°C and is highly soluble in water. It is a strong acid and corrosive. (Source: PubChem)

Industrial Applications

Fluoboric acid is used in:

  • Electroplating: In tin and lead plating processes.
  • Metal Cleaning: For surface preparation and pickling.
  • Catalysis: In organic synthesis and polymerization.
  • Exposure Scenarios: Spills in plating facilities or chemical labs may contact caster wheels.

Wheel Material Compatibility Summary

Best Suited Materials (A/B Ratings): Polyolefin (A) resists acid corrosion; Phenolic (B) offers moderate resistance.

Materials to Avoid (C/D Ratings): Avoid metals (Ductile Cast Iron, Forged Steel) and elastomers (Rubber, Urethane) due to corrosion or degradation.

Wheel Compatibility Table

Wheel Material Interaction Description Rating
Ductile Cast Iron Corrodes rapidly in acidic conditions. D
Elastomer Degrades under strong acids. D
Forged Steel Prone to corrosion from acids. D
Neoprene/Nylon Glass Core Neoprene degrades; nylon core has limited resistance. C
Nylon Moderate resistance; degrades over time. C
Nylon Glass Filled Slightly better than nylon; still vulnerable. C
Phenolic Resistant to acids; moderate performance. B
Polyolefin Excellent acid resistance; unaffected. A
Polyurethane on Aluminum Core Polyurethane degrades; aluminum corrodes slightly. D
Polyurethane on Iron Core Polyurethane degrades; iron corrodes. D
Rubber Rapid degradation from acid exposure. D
Solid Elastomer Degrades in acidic conditions. D
Thermoplastic Rubber Poor resistance to acids; degrades. D
Urethane Degrades under acid exposure. D
V-Grooved Iron Corrodes rapidly in acid. D

Conclusion

Fluoboric acid’s corrosive nature makes Polyolefin wheels (A rating) the best choice. Avoid metals (Ductile Cast Iron, Forged Steel) and elastomers (Rubber, Urethane) due to corrosion and degradation. For help, contact CasterTech.