Optimized Modular Design and Development of a Tilt-Rotor Bicopter Drone
Saideep Verma, Nimisha Tatapudi, Akshay Arjun, Danwada Sharanya Sukka, Abhishek Sarkar, Joyjit Mukherjee
Abstract
Hybrid systems like tilt-rotor bicopter drones combine the beneficial characteristics of both fixed-wing and rotary-wing technology, enabling long endurance and VTOL capability. However, such drones also require an optimum design to ensure both static and dynamic stability. The modular design of a traditional bicopter is developed in this paper based on extensive analysis and in-depth structural and aerodynamic simulations. The structural analysis has been performed to ensure that the aircraft's structure withstands the stresses encountered during different flight modes. Controlling the relative positions of the Center of Gravity (CG) and Neutral Point (NP) is an essential aspect of the design, ensuring stability during hover and positive stability during forward flight. The thrust and power analyses have been conducted to assess the flight performance and endurance. After analysis, the drone has been developed, and flight tests with a basic flight controller were conducted to validate the performance metrics obtained in the simulation.
Create a lesson
Related papers
PAVE: Predictive Alignment and Value-Guided Evolution for World-Action Policies
Botong Zhao, Fang Yu, Tim et al.
SpectraTac: A Compact Camera-Free Optical Tactile Sensor with Distributed Color Sensing
Hao Wu, Haotian Guo, Yu Feng et al.
Data-Centric Neuromotor Interfaces for Portable Human-Machine Interaction
Jiaxuan Li, Di Wu, Jianhua Liu et al.
CometVLA: Co-Training on an Embodied Data Pyramid towards Physical Understanding
Hanwen Wan, Dafeng Chi, Linbo Zhai et al.
CanonNav: Disentangling Navigation Behavior from Camera Geometry in Cross-Platform Visual Navigation
Dong-Wook Kim, Ji-Hoon Hwang, E-In Son et al.
Motus2: A Self-Evolving General World Model for Dexterous Manipulation
Hongzhe Bi, Zihao Zhou, Yihang Tang et al.