Stair‐Climbing Wheelchairs for Enhanced Mobility: A Comprehensive Review of Fundamental Mechanisms, Design Concepts, and Performance Analysis

ABSTRACT People with physical disabilities face significant mobility challenges while climbing uneven surfaces and staircases. In these circumstances, traditional wheelchairs do not provide stable, safely controlled mobility, underscoring the importance of building superior stair‐climbing wheelchairs for both medical and infrastructure purposes. In this study, a review is proposed that provides a comprehensive summary of wheelchair types, developments, compares and evaluates existing stair‐climbing wheelchair technologies, and highlights major design gaps, performance limitations, and future research directions. The review examines four fundamental categories of existing systems: tracked‐based mechanisms, wheel‐leg hybrid mechanisms, tri‐wheel mechanisms, and automatic stair‐climbing systems. These mechanisms are evaluated based on critical performance metrics, including safety and stability, ergonomics, ease of use, energy efficiency, load‐carrying capacity, cost, effectiveness, adaptability to variable terrain, stair‐climbing mobility performance, and control methodologies ranging from manual to AI‐enabled modes. The key findings indicate that although significant advancements in stair‐climbing wheelchairs have been made, current systems still face challenges in portability, weight, cost, and comfort, while recent trends highlight the growing adoption of lightweight materials, hybrid locomotion, and AI‐based navigation frameworks. The proposed review has identified research gaps, including insufficient user‐centric design, high demand for low‐cost, reliable real‐world solutions, and the need for standardized safety testing methods for stair‐climbing systems. Overall, this review will provide an overview of the different technologies and a comprehensive comparison, highlight the major design trade‐offs, and suggest future research directions to advance the design and support designers, rehabilitation engineers, policymakers, and the mobility assistance technology research community in developing user‐friendly, comfortable stair‐climbing wheelchairs.

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Publication Details

Journal
Journal of Field Robotics
Published
2026-07-27
DOI
https://doi.org/10.1002/rob.70300
Primary Topic
Spinal Cord Injury Research
Type
article
Field-Weighted Citation Impact
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article

Stair‐Climbing Wheelchairs for Enhanced Mobility: A Comprehensive Review of Fundamental Mechanisms, Design Concepts, and Performance Analysis

Jogendra Kumar, Bhargav Akkinepally, G. Manikanta, Ashish Garg et al.
Journal of Field Robotics
Spinal Cord Injury Research
article

Stair‐Climbing Wheelchairs for Enhanced Mobility: A Comprehensive Review of Fundamental Mechanisms, Design Concepts, and Performance Analysis

Jogendra Kumar, Bhargav Akkinepally, G. Manikanta, Ashish Garg, S M Abhinandan, Anand Reddy, G Chandana, Ravi C. Soni, Ch. Venkata Rao, Divya, P. Anil Kumar
article en

Abstract

ABSTRACT People with physical disabilities face significant mobility challenges while climbing uneven surfaces and staircases. In these circumstances, traditional wheelchairs do not provide stable, safely controlled mobility, underscoring the importance of building superior stair‐climbing wheelchairs for both medical and infrastructure purposes. In this study, a review is proposed that provides a comprehensive summary of wheelchair types, developments, compares and evaluates existing stair‐climbing wheelchair technologies, and highlights major design gaps, performance limitations, and future research directions. The review examines four fundamental categories of existing systems: tracked‐based mechanisms, wheel‐leg hybrid mechanisms, tri‐wheel mechanisms, and automatic stair‐climbing systems. These mechanisms are evaluated based on critical performance metrics, including safety and stability, ergonomics, ease of use, energy efficiency, load‐carrying capacity, cost, effectiveness, adaptability to variable terrain, stair‐climbing mobility performance, and control methodologies ranging from manual to AI‐enabled modes. The key findings indicate that although significant advancements in stair‐climbing wheelchairs have been made, current systems still face challenges in portability, weight, cost, and comfort, while recent trends highlight the growing adoption of lightweight materials, hybrid locomotion, and AI‐based navigation frameworks. The proposed review has identified research gaps, including insufficient user‐centric design, high demand for low‐cost, reliable real‐world solutions, and the need for standardized safety testing methods for stair‐climbing systems. Overall, this review will provide an overview of the different technologies and a comprehensive comparison, highlight the major design trade‐offs, and suggest future research directions to advance the design and support designers, rehabilitation engineers, policymakers, and the mobility assistance technology research community in developing user‐friendly, comfortable stair‐climbing wheelchairs.

Journal of Field Robotics
Andhra University (IN), Medpace (India) (IN), Reliance Industries (India) (IN), Dayananda Sagar College of Engineering (IN), Tata Consultancy Services (India) (IN), Yeungnam University (KR), Dr. Hari Singh Gour University (IN)
Industry, innovation and infrastructure
Openalex Percentile: Top 9%
Spinal Cord Injury Research
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