Humanoid robots are increasingly being explored for use in human-centered environments, particularly in healthcare, where aging populations, workforce shortages, and growing demands for physical assistance present ongoing challenges. Despite the recent advances in artificial intelligence, sensing, and actuation, there remains a gap between experimental performance and reliable deployment in real-world settings. This review examines the current state of humanoid robotics with an emphasis on applications requiring physical interaction and adaptability. Relevant literature was analyzed to evaluate progress in sensory-motor integration, locomotion, manipulation, and autonomy, along with key factors influencing human-robot interaction, including trust, safety, and ethical considerations. Current evidence suggests that humanoid robots demonstrate strong performance in controlled environments and show promise in rehabilitative and assistive roles. However, limitations in generalizability, robustness, and long-term reliability continue to restrict their use in unstructured, real-world contexts. In healthcare settings, these constraints are further compounded by high safety requirements and the need for consistent, predictable behavior. Overall, the current literature indicates that near-term deployment is most feasible through gradual, task-specific integration and hybrid human-robot collaboration rather than full autonomy. Humanoid robots are more likely to augment human capabilities than replace them, specifically in repetitive or physically demanding tasks. Future progress will depend not only on technical improvements but also on ethical oversight, regulatory development, and alignment of system capabilities with user expectations.
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