Integral bridge abutment with composite dowels: structural scheme and failure patterns

This paper presents a novel integral abutment design incorporating a composite dowel girder and H-shaped steel pile abutments to enhance load-bearing capacity and construction efficiency. Numerical analysis is conducted to investigate the failure modes, load-transfer mechanisms, and ultimate bearing capacity of the integrated abutment joint. A parametric study examines the influence of key factors, including steel girder web thickness and the reinforcement ratio of the deck and abutment, on structural performance. Results indicate that abutment failure is primarily attributed to concrete compression failure beneath the steel girder. Based on the findings, a formula for predicting the ultimate bearing capacity of the integrated abutment joint is proposed. Under the same steel girder depth and bottom plate width, the steel consumption of the integral abutment proposed in this work is reduced while the section has a slightly higher bearing capacity compared that of the traditional I-shaped steel girder.

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Publication Details

Journal
SHILAP Revista de lepidopterología
Published
2025-06-01
Primary Topic
Theoretical and Computational Physics
Type
article
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article

Integral bridge abutment with composite dowels: structural scheme and failure patterns

SHILAP Revista de lepidopterología
Theoretical and Computational Physics
article

Integral bridge abutment with composite dowels: structural scheme and failure patterns

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Abstract

This paper presents a novel integral abutment design incorporating a composite dowel girder and H-shaped steel pile abutments to enhance load-bearing capacity and construction efficiency. Numerical analysis is conducted to investigate the failure modes, load-transfer mechanisms, and ultimate bearing capacity of the integrated abutment joint. A parametric study examines the influence of key factors, including steel girder web thickness and the reinforcement ratio of the deck and abutment, on structural performance. Results indicate that abutment failure is primarily attributed to concrete compression failure beneath the steel girder. Based on the findings, a formula for predicting the ultimate bearing capacity of the integrated abutment joint is proposed. Under the same steel girder depth and bottom plate width, the steel consumption of the integral abutment proposed in this work is reduced while the section has a slightly higher bearing capacity compared that of the traditional I-shaped steel girder.

SHILAP Revista de lepidopterología
RWTH Aachen University (DE), Northwest A&F University (CN)
Sustainable cities and communities
Openalex Percentile: Top 62%
Theoretical and Computational Physics
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