Industrial Testing of Asphalt Concrete Modified by Capsules for Self-Healing

S.S. Inozemtcev, H.T. Le, E.V. Korolev · Stroymaterialy · 2026

This study demonstrates the effectiveness of AR-polymer capsules in enhancing the self-healing properties of asphalt concrete.

High AI ConfidenceStrong SourceField testingDevelopment Stage

Plain English summary

The article discusses a pilot industrial trial of self-healing asphalt concrete modified with AR-polymer capsules. The trial was conducted in Pestretsy, Republic of Tatarstan, and showed that the self-healing asphalt can be produced without altering existing processes. The study found that the capsules significantly improved the self-healing capabilities of the asphalt.

Why this matters

Self-healing materials like the modified asphalt concrete can lead to longer-lasting infrastructure, reducing maintenance costs and improving safety. This innovation addresses the common issue of road damage, which can be costly and disruptive.

Key findings

  • Self-healing asphalt concrete can be produced without changing the production process.
  • Capsule distribution is uniform, with 22%-28% of capsules in each core sample.
  • Capsules increase self-healing compressive strength to 38.8% of residual strength.
  • Self-healing rate improved by 2.5 times to 11.5% of compressive strength per day.
  • Voids larger than capsule diameter ensure 96% preservation of capsules.

What's new

The study demonstrates the practical application of AR-polymer capsules in asphalt concrete for self-healing, confirming their effectiveness in an industrial setting.

Limitations

The abstract does not provide details on the long-term performance or economic analysis of the modified asphalt concrete.

Commercial context

The research has been tested in a pilot industrial trial, indicating potential for real-world application.

Publication

Publisher
Stroymaterialy
Publication date
April 1, 2026
Research type
Article

Tags

More on Self-Healing Materials

See all →
Self-Healing Materialspaper· Jun 28, 2026

Cold sintering as an enabler for self-healing ceramics: A perspective on sustainable, damage-tolerant materials

A perspective argues that cold sintering can enable self-healing ceramic architectures and even in-field repair, potentially reducing energy-intensive processing while improving damage tolerance.

Kaveh Rahimi Mamaghani, Nader Parvin · SAGE PublicationsConcept
Self-Healing Materialspaper· Jun 9, 2026

Performance of Autogenous and Autonomous Self-Healing Concrete

This study analyzes autogenous and autonomous self-healing concrete methods, highlighting their effectiveness, costs, and environmental impacts.

Alireza Bahrami, Ramtin Shirkhodaee +1 · MDPI AGUnknown
Self-Healing Materialspaper· May 31, 2026

Emerging Self-Healing Concrete Systems: Improving the Durability and Damage Resistance of Reinforced Concrete through Self-Healing Systems

Self-healing concrete systems can enhance durability and sustainability in construction by autonomously repairing cracks.

Firda Herlina, Yuli Panca Asmara +4 · Seventh Sense Research Group JournalsLaboratory Research
Self-Healing Materialspaper· May 14, 2026

Self-healing 2D material composites for intelligent smart bandages: Multiphysics simulation and AI-enabled wound assessment

A study on self-healing 2D material composite bandages, combining multiphysics simulation with AI-enabled wound assessment.

Gayatri Padole, Pravin B. Pokle · Springer Science and Business Media LLCSimulation
Self-Healing Materialspaper· Mar 30, 2026

Self-Healing Concrete Incorporating Bacterial Spores for Sustainable Infrastructure Development

Self-healing concrete incorporating bacterial spores shows significant potential for enhancing durability and sustainability in infrastructure.

Tekram Nishad, Dinesh Kumar Sahu · International Academic Institute for Science and TechnologyLaboratory Research
Self-Healing Materialspaper· Mar 10, 2026

Lactobacilli in Material Science: Sustainable Biopolymers and Self-Healing Technologies

Lactobacilli-based biofabrication is presented as a route to biodegradable biopolymers, self-repairing concrete, and antimicrobial coatings.

N. Murugalatha, Saloni Arora +3 · Society for Himalayan Action Research and Development (SHARAD)Unknown
Method note: Summaries and ratings on this page are generated by AI from the abstract only. Read the original paper for full context. · Model: gpt-4o-mini-2024-07-18