Engineering Accessible Mobility: An Integrated Approach to Rotating Automotive Seat Design, Advanced Materials and Assistive Technology for Persons with Physical Disabilities and Elderly Passengers

Based on the Eenadu article dated 8 November 2026, highlighting the innovative rotating automobile seat concept (Turn Plus), here are the proposed combined research titles, alternative titles, subtitles and detailed research description suitable for academic journal development. 1. Combined Research Title – Recommended Recommended title Engineering Accessible Mobility: An Integrated Approach to Rotating Automotive Seat Design, Advanced Materials and Assistive Technology for Persons with Physical Disabilities and Elderly Passengers Why this title is suitable: Combines mechanical engineering, materials science and assistive technology. Emphasizes accessible automobile design. Covers structural strength, ergonomics and passenger safety. Provides scope for CAD modelling, FEA simulation and materials optimization. Has multidisciplinary research potential. 2. Alternative Research Titles 1. Design and Development of Smart Rotating Automotive Seating Systems: Enhancing Mobility, Comfort and Accessibility through Mechanical Innovation 2. Transforming Automotive Accessibility through Rotating Seat Mechanisms: A Mechanical Engineering Approach for Inclusive Transportation 3. Advanced Assistive Automotive Seating: Integration of Rotational Mechanics, Structural Materials and Ergonomic Design 4. Innovative Vehicle Entry and Exit Mechanisms for Persons with Disabilities: Design Optimization of Rotating Automobile Seats 5. Development of Lightweight and High-Strength Rotating Automotive Seats Using Advanced Engineering Materials 6. Ergonomic and Structural Optimization of Swivel-Based Automotive Seating Systems for Elderly and Mobility-Impaired Passengers 7. Smart Automotive Mobility Solutions: Integrating Powered Rotating Seats, Intelligent Controls and Passenger Safety 8. Assistive Automotive Engineering for Inclusive Transportation: A Study of Rotational Seating Mechanisms and Human Mobility 9. Materials Selection and Mechanical Performance Evaluation of Accessible Automotive Seating Systems 10. Next-Generation Automotive Interiors: Innovative Rotating Seat Technologies for Universal Mobility and Passenger Independence 11. Human-Centred Automotive Design: A Multidisciplinary Framework for Accessible Vehicle Seating and Passenger Transfer 12. Development of Intelligent Mobility-Assistance Systems through Advanced Automotive Seat Mechanisms and Ergonomic Engineering 3. Suggested Subtitles The following subtitles can complement the recommended title: 1. A Multidisciplinary Framework Integrating Mechanical Design, Materials Selection, Structural Optimization and Human-Centred Ergonomics. 2. An Engineering Approach to Improving Vehicle Accessibility, Passenger Transfer Efficiency and Independent Mobility. 3. Exploring Lightweight Structural Materials, Rotational Mechanisms and Intelligent Safety Systems for Inclusive Transportation. 4. Design Considerations for Enhancing Comfort, Structural Reliability and Accessibility in Automotive Seating. 5. A Conceptual Framework for Integrating Advanced Materials, CAD Modelling and Finite Element Analysis in Assistive Automotive Engineering. 6. Towards Sustainable and Universally Accessible Automotive Seating Technologies for an Ageing and Mobility-Diverse Population. 4. Detailed Research Description Detailed Description of the Proposed Research Research Theme: Advanced Automotive Seating, Assistive Mobility and Inclusive Engineering Design The proposed research focuses on the development of innovative rotating automotive seating systems as an engineering solution for improving vehicle accessibility among persons with physical disabilities, elderly passengers and individuals experiencing restricted mobility. The study is inspired by the Turn Plus rotating-seat concept highlighted in the Eenadu newspaper article dated 8 November 2026. It explores the potential of integrating mechanical engineering, materials science, structural optimization and ergonomic design to transform conventional automobile seating arrangements into more accessible and user-friendly transportation systems. Conventional automobile seats are primarily designed for passengers with normal physical mobility. However, individuals experiencing arthritis, knee pain, spinal discomfort, reduced muscular strength and other mobility limitations may encounter considerable difficulty while entering and exiting vehicles. The requirement to bend, rotate the body and adjust the legs within a restricted vehicle cabin can create physical discomfort and dependence on external assistance. An appropriately designed rotating automobile seat offers a potential solution by allowing the seating assembly to move towards the vehicle doorway, thereby facilitating passenger entry and exit with reduced physical effort. The research proposes an integrated engineering framework for understanding and improving the mechanical performance of rotating automotive seating systems. Particular attention is given to the design of rotational support mechanisms, bearing assemblies, mounting structures, locking arrangements and manual or electrically powered actuation systems. The mechanical design must provide smooth rotational movement while maintaining adequate load-bearing capacity, structural stability and reliable locking during vehicle operation. An important research dimension involves the selection and optimization of engineering materials for manufacturing the rotating seat assembly. High-strength steels, aluminium alloys and fibre-reinforced polymer composites offer different combinations of strength, stiffness, density, corrosion resistance and fatigue performance. Their suitability for individual components can be evaluated through mechanical property comparisons, structural calculations and computational modelling. The study also considers tribological aspects such as friction, wear, lubrication and surface durability in rotational mechanisms. From a computational engineering perspective, the research proposes the development of three-dimensional CAD models followed by Finite Element Analysis (FEA) to evaluate stress distribution, deformation, mounting-point strength and fatigue-sensitive regions. Different material combinations and geometrical configurations can be investigated to identify design alternatives that balance structural reliability, weight reduction and manufacturing cost. The proposed methodology also provides scope for examining the influence of passenger weight, rotational torque, dynamic loading and repeated operating cycles on system performance. The ergonomic dimension of the research examines seat height, rotational angle, transfer clearance, armrest positioning, backrest inclination and ease of operation. The objective is to develop a human-centred seating arrangement that reduces unnecessary bending and twisting movements during passenger transfer. Further technological improvements may include electrically powered rotation, intelligent position sensors, automatic locking mechanisms, emergency manual controls and wheelchair-compatible transfer arrangements. The research also examines the potential applications of rotating automobile seats in passenger vehicles, accessible taxi services, hospital transportation, rehabilitation facilities and institutional vehicles. The integration of such assistive technologies into automotive interiors could contribute to improving transportation independence and accessibility for individuals with diverse mobility requirements. The expected research contribution is an integrated conceptual and computational framework connecting advanced materials selection, mechanical design optimization, structural reliability and ergonomic accessibility. The study provides a foundation for future experimental investigations involving prototype fabrication, mechanical testing, fatigue assessment, passenger-transfer evaluation and automotive safety validation. Ultimately, the proposed research demonstrates how the integration of materials engineering, mechanical innovation and assistive technology can contribute to the development of safer, lighter, more comfortable and inclusive automotive transportation systems. 5. Research Highlights Proposes an innovative rotating automotive seating design for accessible transportation. Examines mechanical rotation, torque requirements and structural load-bearing capacity. Evaluates high-strength steels, aluminium alloys and fibre-reinforced composites. Integrates CAD modelling and Finite Element Analysis for structural optimization. Considers fatigue resistance, wear behaviour and mechanical reliability. Explores powered rotation, intelligent sensors and automatic locking mechanisms. Emphasizes ergonomic design for elderly and mobility-impaired passengers. Supports inclusive transportation and assistive engineering innovation. 6. Proposed Research Domains Research area Technical contribution Mechanical engineering Rotational mechanisms and structural design Materials engineering Lightweight alloys and composite materials Automotive engineering Vehicle seating integration and safety Computational modelling CAD and finite element simulation Surface engineering Wear resistance and tribological performance Ergonomics Passenger comfort and transfer accessibility Smart engineering Sensors and powered actuation Subtitle A Multidisciplinary Framework Integrating Mechanical Design, Materials Selection, Structural Optimization and Human-Centred Ergonomics. Author: Geruganti Sudhakar Affiliation: Faculty, Department of Metallurgical and Materials Engineering, RGUKT IIIT Basar, Telangana, India. Research domains: Materials Engineering, Mechanical Design, Automotive Engineering, Assistive Technology and E