Wildfires threaten road networks, complicating emergency responses.
Proposed framework integrates wildfire simulation, risk assessment, and retrofitting.
GAN-based model evaluates risks using synthetic and historical data.
Network Performance Tensor combines key metrics for optimal retrofitting decisions.
Tested in Los Angeles, the framework enhances resilience and scalability.
Recent Californian route closures underscore earthquake landslide risks.
Proposes a framework for managing landslide risk to road networks.
Introduces Siamese Graph Convolutional Network (GCN) infused Genetic Algorithm (GA) for efficient optimization of retrofits.
Retrofit policy aims for equitable outcomes across income groups.
Framework applied to Los Angeles, enhances road network resilience.
Paper - link
Rapid urbanization strains roads, and increases disaster vulnerability.
A capital investment algorithm is proposed for optimal road width expansion.
Novel framework combines mobile mapping, cameras, and lidar.
Utilizes deep learning, and point cloud processing for precision.
Outperforms traditional methods in budget-limited situations.
Enhances hillside road planning and automated feature detection.
Paper - link
Proposed method identifies critical road segments for resilience.
Utilizes Graph Neural Network to assess road importance.
Overcomes existing methods' limitations in compromised networks.
Reduces computational load, suitable for large networks.
Proven effectiveness with synthetic and real-world examples.
Paper - link
Sensors are vulnerable to faults from aging, defects, and environment.
Novel framework introduced for sensor fault detection & data reconstruction.
Utilizes Convolutional Neural Network (CNN) for fault detection and Convolutional Autoencoder (CAE) networks for data reconstruction.
Handles single, and multiple sensor faults with high accuracy.
Improves data quality, and reduces downtime in health monitoring.
Paper - Link
Cable-stayed bridges need continuous monitoring for safety.
Introduced non-contact, video-based cable tension measurement.
Moving camera captures vibrations using Phase-based motion estimation and Complexity Pursuit (CP) but also captures camera motion.
Proposed algorithm cancels camera motion by image processing.
Study validates camera-based sensing for structural health monitoring.
Results comparable to designed cable tension values of real bridges.
Cost-effective real-time vibration response estimation framework introduced.
Dense sensor setups are expensive; compressive sensing is employed instead.
Uses a few sensors' time histories for data gathering.
Data-driven, employs Dictionary learning for spatial basis functions.
Promising for aerospace, mechanical, and civil systems' health monitoring.
Paper - Link
An economical, practical method for precise damage estimation is proposed.
Utilizes Compressive Sensing, and a few sensors for real-time estimates.
Framework based on the system's partial differential equation.
Reduces the need for extensive model knowledge.
Promising for health monitoring in various engineering fields.
Paper - Link
Mobile sensors enhance structural vibration sensing capabilities.
Traditional methods require manual or expensive autonomous vehicles.
This work introduces formation control for automatic multi-agent sensing.
The Proposed algorithm enables full-field vibration response estimation using compressive sensing.
Demonstrated accuracy with two formations, promising for health monitoring.
Paper - Link
Real-time monitoring is crucial for preventing cable damage.
Wireless sensors present cost-effective, but face packet loss.
Proposed framework reconstructs lost data for continuous monitoring.
Combines compressive sensing, Blind Source Separation (BSS), and Sparse Component Analysis (SCA) for data recovery.
Uses taut-string theory for real-time cable tension estimation.
Paper - Link
Research in dynamic property identification of nonlinear jointed systems.
Modal testing with high-speed videography and Digital Image Correlation.
Validated experimentally on half Brake–Reuß beam.
This video-based system parameter estimation is comparable with accelerometer data.
Explores modal coupling and mode shape evolution for nonlinear systems.
Where to place the input for experimental modal analysis?
A Fisher Information Matrix (FIM) trace optimization technique is proposed.
Optimally located input reduces the estimation uncertainty.
Validated numerically on shear building and experimentally on trusses.
Extremely useful for damage localization.
Paper - Link
Research on wind effect on tall unconventional (pentagonal) buildings.
Existing codes lack guidance for asymmetrical design and interference.
Numerical analysis with varying wind angle of attack.
Optimal interfering building placement for reduced wind impact
Paper - Link