Robotic devices are considered among the most significant technological advancements in the field of motor rehabilitation in recent years. They have contributed substantially to improving the quality of therapeutic services provided to patients suffering from movement disorders resulting from neurological, muscular, or musculoskeletal injuries. The use of these devices emerged in response to the growing need for more precise and effective therapeutic methods that help patients regain motor functions and achieve the highest possible level of independence. Robotic rehabilitation systems rely on advanced mechanical and electronic technologies capable of assisting patients in performing therapeutic movements in a structured and repetitive manner, thereby enhancing the recovery process and increasing the effectiveness of rehabilitation programs. Recent studies have demonstrated that repetitive therapeutic movements play a crucial role in stimulating the nervous system to reorganize its functions following injury, a process known as neuroplasticity. Consequently, robotic devices have gained considerable importance because they can provide a large number of highly accurate movement repetitions that are difficult to achieve through conventional therapy alone. These systems also allow therapists to adjust the level of assistance according to the patient's abilities and stage of recovery, making treatment more personalized and effective. Furthermore, robotic technologies provide accurate data regarding patient performance and progress throughout rehabilitation, enabling healthcare professionals to evaluate outcomes and modify treatment plans accordingly. Robotic devices are widely used in various areas of physical therapy and rehabilitation, particularly in the treatment of stroke patients who experience weakness or loss of movement in one or more limbs. In such cases, robotic systems assist patients in performing functional movements repeatedly and systematically, contributing to improved motor control and partial restoration of lost functions. These devices are also utilized in the rehabilitation of individuals with spinal cord injuries by providing advanced methods for gait training, standing, and mobility, which positively affect both physical and psychological health while reducing complications associated with prolonged immobility. In addition, robotic technologies have proven effective in the rehabilitation of patients recovering from surgical procedures, sports injuries, and fractures by helping restore range of motion and muscle strength in a safe and progressive manner. An important advantage of robotic rehabilitation systems is their ability to reduce the physical workload placed on physical therapists, particularly when managing patients who require intensive and continuous assistance during therapeutic exercises. Moreover, integrating technologies such as virtual reality and artificial intelligence with robotic systems has enhanced patient engagement and motivation, leading to improved therapeutic outcomes in many cases. These advancements make it possible to design individualized rehabilitation programs based on continuously collected performance data. Despite the numerous benefits offered by robotic rehabilitation devices, several challenges limit their widespread implementation. Among the most significant are the high costs of acquisition and maintenance, as well as the need for specialized professionals trained to operate these systems effectively. Additionally, the effectiveness of robotic therapy may vary among patients depending on the nature and severity of the injury and other health-related factors. Therefore, robotic devices should not be viewed as a complete replacement for physical therapists; rather, they serve as supportive tools that enhance the effectiveness of conventional rehabilitation while complementing the expertise of healthcare professionals. In light of the rapid advancements in medical technology, the use of robotic devices in motor rehabilitation is expected to expand significantly in the coming years. Ongoing scientific research continues to focus on developing more efficient, flexible, and cost-effective systems. This trend highlights the growing importance of robotic technologies as an integral component of the future of physical therapy, offering substantial potential to improve patients' motor performance and quality of life while preserving the essential role of physical therapists in assessment, treatment planning, and supervision of the rehabilitation process. Al-Mustaqbal University, the first university in Iraq