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Lecture on "Stochastic Behavior of Dynamic Systems in the Metaverse Era – Alternative to Random Vibration and Simulation"
Seminar/Talk
Venue

Hall No. 21, 2nd Floor, Victor Menezes Convention Centre (VMCC)

IIT Bombay, Powai

Image removed.

The Indian Institute of Technology Bombay is organising an Institute Lecture on September 21, 2022.

The details of the lecture are given below:

Title: "Stochastic Behavior of Dynamic Systems in the Metaverse Era – Alternative to Random Vibration and Simulation"

Speaker: Dr. Achintya Haldar, Da Vinci Fellow, Professor Emeritus of Civil and Architectural Engineering and Mechanics University of Arizona, Tucson, AZ, USA.

About the speaker:                                                                                                                                    

Dr. Achintya Haldar received B.S. degree from Jadavpur University, Kolkata, and graduate degrees from the University of Illinois. He worked for Bechtel Power Corporation in Los Angeles. Then he returned to an academic career at Illinois Tech., then at Georgia Tech., and now at the University of Arizona. He published about 645 technical articles including 12 books and about 38 book chapters. Dr. Haldar is a Distinguished Member of ASCE and a Fellow of SEI. He received Lifetime Achievement Award from the Society for Reliability and Safety and inducted into Teaching Excellence Award Wall at Georgia Tech. Dr. Achintya Haldar received a U.S. Presidential Award, ASCE's Huber Civil Engineering Research prize, John C. Park Outstanding Civil Engineer Award, and an Honorable Diploma from the Czech Society for Mechanics. He received Excellence in Research Journal Award, IGI Global, Certificate of Recognition from Universidad de Cartagena, Colombia, Polis University, Albania, EuroSciCon, France, Euro Congress, London; Certificate of Appreciation, Taishan Academic Forum on Structural Safety and Reliability Assessment, China.

Abstract:

It can be challenging to design complex dynamic nonlinear engineering systems excited by natural events like earthquakes and wind-induced waves, and thermo-mechanical loadings caused by the use of computers. Multi-disciplinary theoretical foundation and computational tools are developed to address this knowledge gap to improve the reliability of engineering designs. Instead of using the random vibration or simulation approach, this novel concept suggests an alternative to them. Using the enormous computational power available in the metaverse era, several advanced mathematical concepts are integrated producing compounding beneficial effects in developing the concept. For a wider audience, they will be presented conceptually and pictorially without any mathematics. By conducting multiple deterministic analyses using the computer instead of one, engineering designs can be significantly improved. The proposed concept is expected to change the current engineering design paradigm making designs more damage tolerant under dynamic loadings, the most complicated problems faced by engineers.