I explore advanced topics in numerical simulations, multibody dynamics, thermodynamics, space structures, and material science.
Recent work includes studies on space elevator tether dynamics, machine learning–driven orbital analysis, and future space settlement designs and businesses.
Feasibility and safety of space elevators examined through numerical simulations of carbon nanotube tethers, debris impact analysis, and orbital design, demonstrating potential for sustainable and cost-effective access to space.
Studies on Lambert transfers, C3 energy mapping, and machine learning–driven trajectory analysis to optimize interplanetary missions, with emphasis on slingshot effect of space elevators.
Concepts for habitats at Earth–Moon Lagrange points and beyond, with evaluations of mission efficiency compared to rockets and strategies supporting sustainable space businesses.
Working at Sendai lab as a simulation and assistant engineer. Designing tools for lattice produce enhancements. Supporting the procedure of metal 3D-printing and estimate high-reporduction parameter setting on highly precise lattice.
Development of mobility and steering systems for planetary exploration rovers, focusing on airless tire technology, dynamics, and lightweight structural design for operation on rough extraterrestrial terrain.