Pothole Repair for Asphalt and Concrete Base Aggregates

Tech ID: 22313 / UC Case 2009-731-0

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Summary

Researchers at UCLA have identified an ultra-high-toughness nanomolecular resin as a binder for pothole repair material, which dramatically enhances the strength, durability and service life of the asphalt and cement pothole-repair patching practices.

Background

The occurrence of potholes on asphalt and cement pavements are long standing issues. Previous repair methods offer only temporary solutions as traffic stress cause a portion or whole block of the repaired material to separate from the original pothole. In order to boost the lifetime of the repaired potholes, it is necessary to employ strong bonding material with high fracture toughness that can absorb energy without breakage.

Innovation

Researchers at UCLA have developed a strong bonding polymer that offers a long-term solution to asphalt and cement pothole repair patching material. Because the new polymer has high fracture toughness and impact absorbing ability, it serves as a continuous structural cage material for holding aggregates together even when heavy traffic stresses are applied. Furthermore, due to its adjustable viscosity, the material provides penetration depth control for various applications.

Applications

  • Pothole repair
    • Asphalt
    • Cement

Advantages

State Of Development

  • High fracture toughness
  • High impact absorbance
  • Adjustable viscosity
  • Non-toxic and environmentally friendly
  • Compatible with pothole repair processes

Patent Status

Country Type Number Dated Case
China Published Application WO/2012/149429 11/01/2012 2009-731
United States Of America Published Application 20110293954 12/01/2011 2009-731
 

Additional Patents Pending

Inventors

  • Ju, Jiann-Wen Woody

Contact

UCLA Office of Intellectual Property & Industry Sponsored Research / ncd@research.ucla.edu / tel: View Phone Number. Please reference Tech ID #22313.

Other Information

Categorized As

Related cases

2009-731-0

Keywords

Polymer, Materials, Composites, Fracture, Processing, Nanoceramics, Nanomaterial, Nano-molecular, cleantech

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Tel: 310.794.0558 | Fax: 310.794.0638 | ncd@research.ucla.edu