Our Expertise

Proficiency in conducting nonlinear structural analyses, including geometric and material nonlinearities, to accurately predict the behavior of structures under extreme loading conditions.

Expertise in designing structures based on performance criteria, considering factors beyond traditional code compliance, such as resilience, functionality, and sustainability.

Ability to employ form-finding techniques and optimization methods to achieve efficient and aesthetically pleasing structural designs. This may involve exploring novel shapes and configurations.

Use of parametric modeling tools to create flexible and adaptable design models. This allows for efficient exploration of design alternatives and optimization.

Knowledge of advanced materials, including high-performance concrete, fiber-reinforced composites, and innovative construction materials. Expertise in integrating these materials into structural designs for enhanced performance.

Implementation of SHM systems for continuous monitoring of structural integrity and performance throughout the life cycle of a structure. This involves using sensors, data analysis, and machine learning techniques.

Specialized knowledge in developing structural designs that consider not only code-based seismic forces but also the performance expectations and risk tolerance of a structure during seismic events.

Expertise in designing and incorporating base isolation and damping systems to mitigate the effects of seismic forces on structures.

Knowledge of designing structures to resist blast loads and mitigate the effects of explosions. This is crucial for structures in high-security or military applications.

Utilization of high-performance computing resources for conducting complex analyses and simulations, such as large-scale finite element analyses and computational fluid dynamics.

Use of topology optimization algorithms to iteratively design structures with optimal material distribution, resulting in lighter and more efficient designs.

Proficiency in using advanced structural analysis software, including finite element analysis (FEA) tools with capabilities for nonlinear analysis, dynamic analysis, and optimization.

Integration of energy-efficient design principles into structural systems, considering factors like thermal mass, natural ventilation, and daylighting.

Expertise in designing complex structural connections, including moment-resisting and shear connections, in a way that maximizes efficiency and minimizes vulnerability.

Nonlinear Analysis

Proficiency in conducting nonlinear structural analyses, including geometric and material nonlinearities, to accurately predict the behavior of structures under extreme loading conditions.

Performance-Based Design

Expertise in designing structures based on performance criteria, considering factors beyond traditional code compliance, such as resilience, functionality, and sustainability.

Form-Finding and Optimization

Ability to employ form-finding techniques and optimization methods to achieve efficient and aesthetically pleasing structural designs. This may involve exploring novel shapes and configurations.

Parametric Modeling

Use of parametric modeling tools to create flexible and adaptable design models. This allows for efficient exploration of design alternatives and optimization.

Advanced Materials and Composites

Knowledge of advanced materials, including high-performance concrete, fiber-reinforced composites, and innovative construction materials. Expertise in integrating these materials into structural designs for enhanced performance.

Structural Health Monitoring (SHM)

Implementation of SHM systems for continuous monitoring of structural integrity and performance throughout the life cycle of a structure. This involves using sensors, data analysis, and machine learning techniques.

Seismic Performance-Based Design

Specialized knowledge in developing structural designs that consider not only code-based seismic forces but also the performance expectations and risk tolerance of a structure during seismic events.

Base Isolation and Damping Systems

Expertise in designing and incorporating base isolation and damping systems to mitigate the effects of seismic forces on structures.

Blast-Resistant Design

Knowledge of designing structures to resist blast loads and mitigate the effects of explosions. This is crucial for structures in high-security or military applications.

High-Performance Computing (HPC)

Utilization of high-performance computing resources for conducting complex analyses and simulations, such as large-scale finite element analyses and computational fluid dynamics.

Topology Optimization

Use of topology optimization algorithms to iteratively design structures with optimal material distribution, resulting in lighter and more efficient designs.

Advanced Analysis Software

Proficiency in using advanced structural analysis software, including finite element analysis (FEA) tools with capabilities for nonlinear analysis, dynamic analysis, and optimization.

Energy-Efficient Design

Integration of energy-efficient design principles into structural systems, considering factors like thermal mass, natural ventilation, and daylighting.

Advanced Connection Design

Expertise in designing complex structural connections, including moment-resisting and shear connections, in a way that maximizes efficiency and minimizes vulnerability.