Design and Development of Self-Balancing Stair Climbing Platform

This paper presents the design and development of a robotic platform capable of climbing stairs while balancing loads. This research aims to address challenges faced by robots in navigating uneven terrain, particularly in disaster response, industrial transportation, and aiding individuals with mobility issues. The robot features a six-wheeled mechanism driven by high-torque DC motors, ensuring both stair-climbing capability and load stability. A gyroscope-controlled self-balancing platform, constructed from lightweight materials, allows the robot to carry and stabilize objects weighing up to 3 kg. Modeling and simulation using CAD and Simulink helped in optimizing the design for torque and power efficiency, while experimental results confirmed the robot's stability and performance. The robot's low-cost design makes it suitable for a variety of practical applications, including use in hospitals and industries.

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Publication Details

Published
2025-04-23
DOI
https://doi.org/10.1109/icetecc65365.2025.11071163
Primary Topic
Advanced Manufacturing and Logistics Optimization
Type
article
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article

Design and Development of Self-Balancing Stair Climbing Platform

Muhammad Usama, Syed Hassan Raza, Nur Syamsina Ahmad, A. Khurshid
Advanced Manufacturing and Logistics Optimization
article

Design and Development of Self-Balancing Stair Climbing Platform

Muhammad Usama, Syed Hassan Raza, Nur Syamsina Ahmad, A. Khurshid
article en

Abstract

This paper presents the design and development of a robotic platform capable of climbing stairs while balancing loads. This research aims to address challenges faced by robots in navigating uneven terrain, particularly in disaster response, industrial transportation, and aiding individuals with mobility issues. The robot features a six-wheeled mechanism driven by high-torque DC motors, ensuring both stair-climbing capability and load stability. A gyroscope-controlled self-balancing platform, constructed from lightweight materials, allows the robot to carry and stabilize objects weighing up to 3 kg. Modeling and simulation using CAD and Simulink helped in optimizing the design for torque and power efficiency, while experimental results confirmed the robot's stability and performance. The robot's low-cost design makes it suitable for a variety of practical applications, including use in hospitals and industries.

Glasgow Caledonian University (GB), Air University (PK)
Openalex Percentile: Top 76%
Advanced Manufacturing and Logistics Optimization
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Design and Development of Self-Balancing Stair Climbing Platform — Muhammad Usama, Syed Hassan Raza, et al. · (2025) | TGRS Research Map | TGRS