DHN 2027

This paper provides a comprehensive and critical review of engineering approaches for the design and development of smart clothing systems intended for individuals with special needs in developed nations. The study systematically examines recent innovations in advanced textile materials, conductive and functional fibers, textile-integrated biosensors, flexible and stretchable electronics, wireless communication technologies, embedded microelectronic systems, and driven data analytics. Particular emphasis is placed on the integration of multidisciplinary technologies that combine textile engineering, biomedical engineering, electronic system design, human-centered product development, and intelligent healthcare monitoring to create adaptive wearable platforms capable of real-time physiological assessment, motion analysis, rehabilitation support, and remote clinical supervision. The review evaluates the functional classification of smart garments according to their healthcare, mobility assistance, sensory augmentation, rehabilitation, communication, and environmental monitoring capabilities. Emerging developments in textile electrodes, wearable sensor networks, cloud-based telemedicine platforms, and assisted decision-support systems are critically analyzed to demonstrate their contributions to personalized medicine, continuous patient monitoring, predictive healthcare, and assisted living environments. In addition to technological aspects, the paper discusses ergonomic design principles, user comfort, psychological acceptance, aesthetic considerations, sustainability, and regulatory requirements that significantly influence the successful implementation of smart wearable technologies. The analysis indicates that next-generation smart clothing systems provide substantial clinical, functional, and social benefits by enabling continuous physiological monitoring, improving mobility and independence, facilitating early diagnosis of health abnormalities, supporting personalized rehabilitation programs, and reducing healthcare costs through remote patient management. And, several engineering challenges remain unresolved, including long-term durability of electronic textiles, wash ability, power supply and energy harvesting, data privacy and cybersecurity, interoperability, manufacturing scalability, cost-effectiveness, and compliance with international medical device standards. And identifies future research directions centered on enabled adaptive garments, self-powered wearable systems, flexible hybrid electronics, digital healthcare ecosystems, advanced textile manufacturing, and sustainable smart materials. These emerging technologies are expected to accelerate the development of highly intelligent, personalized, and clinically reliable smart clothing systems that will play a pivotal role in future healthcare, rehabilitation, and assisted-living applications for individuals with special needs.

Dr. Elsayed Ahmed Ahmed Elnashar is a distinguished Professor of Textile Engineering, Apparel Technology, Artificial Intelligence, and Digital Innovation at Kafrelsheikh University, Egypt. With over three decades of academic, research, and administrative experience, he has made significant contributions to smart textiles, AI-driven systems, sustainable technologies, advanced materials, and digital transformation. His interdisciplinary research extends to the application of artificial intelligence in healthcare, wearable technologies, and digital health solutions, fostering innovation at the intersection of engineering, healthcare, and emerging technologies. He has served in key leadership roles, including Dean and Vice Dean for Graduate Studies and Research, and currently collaborates internationally as a Visiting Professor and research partner with institutions across Europe, Asia, Africa, and North America. He is the Founder and Editor-in-Chief of the SmarTex Research Journal and has authored numerous scientific publications, supervised research scholars, and contributed extensively to global scientific collaboration. His work continues to advance the integration of AI, smart technologies, and digital transformation for sustainable industrial and healthcare innovation.