Luo Liang | Intelligent Construction | Best Research Award
Dr.Luo Liang , Harbin Institute of Technology , China.
Dr.Luo LiangΒ is an Assistant Researcher specializing in intelligent construction and bridge engineering. he is a member of the Chinese Communist Party. He is currently pursuing a Ph.D. in Civil Engineering at Harbin Institute of Technology (HIT), focusing on AI-driven sustainable bridge maintenance and intelligent construction. Luo has published over ten high-impact SCI papers and has contributed to key national research projects. His expertise includes AI-driven decision-making for structural health monitoring and high-performance building connections. Luo is skilled in MATLAB, Python, CAD, and simulation software like Abaqus and ANSYS. ![]()
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Publication Profile
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Education & ExperienceΒ 

- Ph.D. in Civil EngineeringΒ (2021.09β2025.01) β Harbin Institute of Technology (C9)Β
- Research: Sustainable bridge assessment, AI-driven maintenance
- Advisors: Prof. LΓΌ Dagang, Prof. Jia Mingming
- GPA: 3.56/4
- M.Sc. in Civil & Transportation EngineeringΒ (2018.09β2021.06) β South China University of Technology (985)Β
- Research: High-performance building connections
- Advisor: Prof. Wang Zhan
- GPA: 3.54/4
- B.Sc. in Civil EngineeringΒ (2014.09β2018.06) β East China Jiaotong UniversityΒ
- GPA: 3.86/4 (Top 5%)
- Courses: Concrete & Steel Structure Design, Bridge Engineering
- Research Projects:
- National Key R&D Program (2022-2025)Β
Β β AI-based dynamic maintenance for bridges - National Natural Science Foundation Key Project (2017-2021)Β
Β β High-performance structural connections
- National Key R&D Program (2022-2025)Β
- Industry Experience:
- Research Assistant (2021-Present)Β
Β β Assists in national research & academic awards - China Resources Land Guangzhou (2019-2021)Β
Β β Participated in project planning & design
- Research Assistant (2021-Present)Β
Suitability Summary
Professional DevelopmentΒ 

Dr.Luo Liang is dedicated to advancing intelligent construction through AI and digital modeling. His Ph.D. research focuses on integrating AI-driven maintenance strategies for bridge structures, leveraging big data analytics, IoT sensing, and structural health monitoring. Luoβs expertise extends to high-performance structural connections, enhancing infrastructure resilience. He has hands-on experience with simulation tools like Abaqus, ANSYS, and Midas Civil, as well as programming languages such as Python and MATLAB. Additionally, he actively contributes to national research projects, optimizing AI-driven decision-making in civil engineering. His work bridges the gap between traditional structural engineering and emerging intelligent technologies. ![]()
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Research FocusΒ 

Dr.Luo LiangΒ specializes in Intelligent Construction & Bridge Engineering, integrating AI-driven decision-making into infrastructure maintenance. His research revolves around:
- Sustainable Bridge AssessmentΒ
Β β AI-powered maintenance strategies - Smart Infrastructure MonitoringΒ
Β β IoT-based predictive analytics - Structural Health DiagnosisΒ
Β β Digital modeling & 3D reconstruction - High-Performance Structural ConnectionsΒ
Β β Experimental studies & simulations - Lifecycle Structural AnalysisΒ
Β β Failure probability & serviceability evaluations
His work aims to improve infrastructure safety, sustainability, and efficiency through advanced computational models and intelligent monitoring technologies.Β

Awards & HonorsΒ 

- National Ph.D. Scholarship & Inspirational ScholarshipΒ


- Outstanding Graduate & Excellent Party MemberΒ


- Top 3 in University Bridge Design CompetitionΒ


- Outstanding Student Leader & Three-Good Student AwardΒ


- Reviewer for SCI-indexed JournalsΒ

Β β Conducts annual peer reviews for top research publications
Publication Top Notes
- “Exploration of the behavior and evolution features of beam-column joints with T-stub using the structural strain energy method”Β (2024)
- “Experimental study and analytical modeling of tensile performance of ultra-high-performance concrete incorporating modified recycled aggregates”Β (2024)
- “Experimental study and theoretical prediction of axial compression behavior in PMC-reinforced CFST columns with void defects”Β (2024)
- “The treated recycled aggregates effects on workability, mechanical properties and microstructure of ultra-high performance concrete co-reinforced with nano-silica and steel fibers”Β (2024)
- “Seismic behavior of reduced beam section joints considering concrete floor effect”Β (2024)
- “Evolution characteristics and performance evaluation of extended end-plate joints with single and double side connections under cyclic loading”Β (2024)








Β She has developed cutting-edge methods like intelligent safety analysis of formwork, evacuation route planning in dynamic environments, and parameter identification systems using computer vision.Β
Β Her leadership extends beyond academia to industry collaborations, where she has championed high-impact projects improving construction safety and efficiency. Through her work, she bridges the gap between research, education, and real-world applications.Β 

Β and digital transformation of the building industry. Her innovations include safety monitoring using AI, dynamic evacuation planning for construction sites, and defect detection with computer vision.Β 
Β Second PrizeΒ β China Technology Market Golden Bridge Award, 2024
Β Engineering Construction Science and Technology Award, 2024
Β Innovation AwardΒ β China Urban Rail Transit Science and Technology Innovation Competition, 2022
Classification and Application of Deep Learning in Construction Engineering and Management β A Systematic Literature Review and Future Innovations (2024)
Study on the Influence of the Fully Enclosed Barrier on the Vortex-Induced Vibration Performance of a Long-Span HighwayβRailway Double-Deck Truss Bridge (2024)
Research on Intelligent Prefabricated Reinforced Concrete Staircase Lifting Point Setting Method Considering Multidimensional Spatial Constraint Characteristics (2024)
Study on the Influence of Wind Fairing Parameters on the Aerodynamic Performance of Long-Span Double-Deck Steel Truss Suspension Bridge (2024)
Multiobject Real-Time Automatic Detection Method for Production Quality Control of Prefabricated Laminated Slabs (2024)
Conception Design of a Novel Vibration Damping Mechanism for Vibration Reduction of a High-Rise Wind Tower (2023)
Study on the Suppression Effect on Vortex-Induced Vibration of Double-Deck Truss Girder by the Spatial Position of the Deflector Plate (2023)