In this exclusive conversation, Mr. Jose A. Sy shares his insights on the evolving world of structural engineering. From navigating the complexities of high-rise developments to embracing cutting-edge technologies like Viscoelastic Coupling Dampers (VCDs), Mr. Sy highlights the importance of adaptability, innovation, and collaboration. Discover his thoughts on industry trends, future opportunities, and practical advice for young engineers aspiring to lead the way in shaping resilient and efficient structures.
One of the most important qualities every structural engineer should develop is adaptability. With the rapid advancements in technology, evolving building codes, and new research findings, the field of structural engineering is constantly changing. Engineers must be willing to learn, embrace innovation, and integrate these advancements into their design practices. This ensures not only the structural integrity and safety of buildings but also their cost efficiency and sustainability.
The Philippine construction and engineering industry has been experiencing significant growth, with numerous high-rise developments and infrastructure projects. In fact, the top five tallest buildings in the country today will soon be surpassed by even taller structures in about 5 years or so. With this growth, one of the biggest challenges for structural engineering firms is responding to the increasing complexity of new projects.
With high-rise and irregularly shaped structures becoming more prevalent, firms must stay ahead by enhancing their expertise in advanced design methodologies. However, these challenges also present opportunities. By leveraging new technologies, firms can push for innovations to improve efficiency, optimize structural performance, and reduce project costs.
Collaboration between industry and academia is essential for the continuous advancement of structural engineering. While the industry focuses on practical application and efficiency, the academe specializes in theoretical research and innovation. By bridging these two worlds, we can accelerate the development and adoption of new structural systems, materials, and methodologies.
Our firm has been fortunate to work closely with institutions like AIT and AIT Solutions for over 15 years, allowing us to integrate cutting-edge research into our projects. These partnerships enable us to continuously improve structural design practices, enhance building performance, and contribute to the evolution of engineering standards.
One project that truly challenged us and pushed the boundaries of structural design innovation was Park Central Towers. This ultra-high-end residential development consists of two towers on a shared podium, with the taller tower reaching approximately 250 meters in height. From the outset, we recognized that conventional structural systems would not provide an optimal solution for a building of this scale.
We conducted extensive iterations using reinforced concrete outrigger walls and buckling restrained braces (BRBs), ultimately arriving at a hybrid configuration with both RC outrigger walls and BRBs that optimized both structural integrity and cost efficiency. However, as we were finalizing the design, we came across a relatively new technology—Viscoelastic Coupling Dampers (VCDs). Recognizing its potential, we conducted additional studies to assess the VCDs’ effectiveness in improving the building’s performance. The results were promising, leading us to immediately arrange to meeting with the project team to present the benefits of incorporating the VCD system.
After presenting our findings, we received approval to proceed, and after a few months, we arrived at a finalized structural design incorporating the VCDs. Not only did we have enhanced structural performance but also resulted in significant cost savings for the project. This experience reinforced the importance of staying open to innovation, even in the later stages of design, as new technologies can offer valuable enhancements to both performance and cost-effectiveness.
To succeed in structural engineering, young engineers should strive to be like sponges—constantly absorbing knowledge and seeking to understand new developments in the field. The structural engineering field is incredibly broad, covering areas such as seismic design, tall buildings, bridges, and computational modeling, among others. By being open to learning and gaining hands-on experience in different aspects of structural engineering, young engineers can build a strong foundation for their careers.
Over the next decade, I envision the Philippine structural engineering landscape evolving in both technological advancement and resilience. We have seen the rise of AI in every field in recent years and its emergence is already driving some key advancements in structural engineering. The adoption of advanced technologies such as AI-driven structural analysis and parametric design will revolutionize how we approach structural engineering. These innovations will allow engineers to optimize designs more efficiently and predict structural behavior with greater accuracy.
Meanwhile, resilience will be a critical aspect of future developments, especially in a country like the Philippines, which is prone to earthquakes and typhoons. More projects will adopt Performance-Based Design (PBD) approaches and incorporate advanced damping and vibration control systems to ensure buildings can withstand extreme conditions. As cities continue to expand vertically, structural engineers will play a key role in ensuring that the country’s infrastructure remains safe, efficient, and adaptable to future challenges.
Overall, the future of Philippine structural engineering is bright, with immense opportunities for growth and innovation. By embracing change, fostering industry-academe collaboration, and continuously striving for excellence, we can shape a more resilient and progressive built environment for the generations to come.