Minghao Lu | Soil Physics | Research Excellence Award

Mr. Minghao Lu | Soil Physics | Research Excellence Award

Western Sydney University | Australia

Mr. Minghao Lu’s research profile demonstrates a strong focus on geotechnical engineering, particularly in soil–structure interaction, expansive soil stabilization, and geo-mechanical behavior under varying environmental conditions. His work emphasizes innovative approaches such as alkali-activated stabilization techniques and the application of engineered inclusions to improve structural performance in integral bridge systems. His contributions span experimental investigations, analytical modeling, and practical laboratory testing methods, reflecting a balance between theoretical insight and applied engineering solutions. His research outputs include peer-reviewed journal articles and conference proceedings addressing thermal effects, cyclic loading, and environmental impacts such as bushfire conditions on soil behavior. His scholarly impact is reflected through an h-index of 3, with 5 documents published and 32 citations across 30 citing documents, indicating growing recognition within the academic and engineering community. Overall, Mr. Minghao Lu’s research advances sustainable and resilient geotechnical practices relevant to infrastructure development and long-term soil performance.

Citation Metrics (Scopus)

40
30
20
10
0

Citations
32

Documents
5

h-index
3

Citations

Documents

h-index

View Scopus Profile


Effect of moisture content on alkali-activated stabilisation of expansive soils

– Case Studies in Construction Materials

Minh Canh Tran | Soil Physics | Research Excellence Award

Dr. Minh Canh Tran | Soil Physics | Research Excellence Award

National Center for Earthquake Engineering | Taiwan 

Dr. Minh Canh Tran has established a focused research profile supported by 34 citations, an h-index of 2, and 6 published documents, reflecting steady scholarly growth in geotechnical engineering. His research spans soil mechanics, soil–structure interaction, liquefaction behavior, and advanced physical and numerical modeling, contributing to the understanding of how soils respond under seismic and complex loading conditions. Through a combination of centrifuge modeling and simulation-based investigations, he provides valuable insights into pore pressure development, ground deformation, and foundation performance on challenging soil deposits. His publications demonstrate methodological depth and emphasize practical solutions for enhancing infrastructure resilience. The citation record highlights the relevance and applicability of his work within the scientific community, while the h-index indicates consistent influence across multiple studies. The collection of documents collectively advances knowledge on seismic soil behavior, mitigation strategies, and geotechnical system performance, positioning Dr. Tran as an emerging contributor whose research supports safer engineering practices.

Profiles : Scopus | Orcid 

Featured Publications

Hung, W.-Y., Tran, M.-C., & Ha, T.-Q. (2025). Centrifuge modelling lateral loading test of battered-piled-raft system in sand. Journal of the Chinese Institute of Engineers. Advance online publication.

Hung, W.-Y., Chiang, K.-H., Chen, C.-H., Ha, T.-Q., Tran, M.-C., & Castaldo, P. (2025). Centrifuge modeling of soil loss effects on adjacent pile foundations induced by tunnel excavation. Advances in Civil Engineering, 2025, Article 7569758.

Tran, M.-C. (2025). Assessing influence of waves on riverbank stability: A centrifuge modeling approach. Geomechanics and Engineering, 40(1), 1–15.

Chiang, K.-H., Hung, W.-Y., Tran, M.-C., & Ha, T.-Q. (2024). The vertical loading tests of single and group piles by centrifuge modelling. International Journal of Geotechnical Engineering. Advance online publication.

Hung, W.-Y., Tran, M.-C., & Bui, V.-K. (2022). Seismic response of anchored sheet pile walls by centrifuge modelling tests. International Journal of Civil Engineering.

Hung, W.-Y., Tran, M.-C., Yeh, F.-H., Lu, C.-W., & Ge, L. (2020). Centrifuge modeling of failure behaviors of sandy slope caused by gravity, rainfall, and base shaking. Engineering Geology, 270, 105609.