Dr. Estovio Farrel Timothy is a Civil engineering professional specializing in structural engineering, wind and seismic design, disaster risk reduction, and renewable energy systems. He currently serves as a structural engineer at Shanghai Construction Group Co., Ltd. and a research assistant at Peking University, contributing to both industry and academic advancements in resilient and sustainable infrastructure.
His expertise lies in optimizing structural systems using advanced techniques such as topology optimization and performance-based design. He developed Indonesia’s first comprehensive wind map and conducted in-depth studies on tornado-induced wind loads, significantly improving understanding of their effects on structural integrity. His research also applies stochastic methods to enhance the efficiency and predictability of renewable energy systems.
Professionally, he has been involved in the design of super-tall structures, including an 85-story, 301.5-meter tower for his thesis, and contributed to the design of the tallest building in Indonesia and the Southern Hemisphere, at 385 meters. These projects have been vital in building his expertise in lateral load-resisting systems and complex high-rise structural behavior.
In earthquake engineering, he employs stochastic modeling to assess and predict seismic and wind-induced impacts on structures, supporting the development of more robust design strategies. His international project portfolio spans China, Kazakhstan, Uzbekistan, Australia, Korea, Vietnam, Malaysia, India, Timor-Leste, and Mongolia—equipping him with a global perspective on diverse structural engineering challenges and design standards.
He completed his Bachelor's and Master’s degrees in Civil Engineering through an accelerated fast-track program, demonstrating academic excellence and a strong foundation in engineering principles. Currently preparing to pursue a Ph.D., his research interests focus on disaster risk reduction, high-rise performance optimization, and the integration of renewable energy systems through environmental fluid mechanics and advanced control strategies.
His overarching goal is to contribute to the global shift toward low-carbon, resilient infrastructure by bridging research and practice through simulation, fieldwork, and interdisciplinary innovation.