Functional fitness refers to exercises that train and improve the body’s ability to perform functional movements and tasks used in everyday life. It focuses on teaching multiple muscle groups at once and mimicking real-life activities, like lifting, bending, and reaching, that is important for simple functions rather than isolating specific muscles. The goal is to increase overall strength and improve the ability to perform daily activities with ease and without injury (Allakhverdiev, 2020). Additionally, functional fitness aims to improve the body’s balance, stability, coordination, and proprioception, which are crucial for injury prevention and improving the overall quality of life.
When developing a functional fitness program, key steps include a thorough assessment of the individual’s current fitness level, setting specific goals, and tailoring the program to the individual’s needs, taking into account any medical conditions or injuries. Consultation with medical professionals, such as a physical therapist, is crucial to ensure that the program is safe and appropriate (Allakhverdiev, 2020). They will provide guidance on any restrictions, limitations, and safety guidelines that need to be considered. In addition, consistent check-ins and follow-ups with the medical professional will be done to ensure that the individual is progressing safely and effectively.
A congenital disability is a condition that is present at birth, such as cerebral palsy or Down syndrome, while an acquired disability is a condition that develops later in life, such as a spinal cord injury or a stroke. A congenital disability is something that a person is born with, while an acquired disability is something that occurs later in life. This means that a congenital disability is a lifelong condition, while an acquired disability may be temporary or permanent. Individuals with congenital disabilities may also have unique physical and cognitive needs that must be considered when designing a functional fitness program. It is essential to take into account any special equipment or modifications needed for exercises and to work closely with medical professionals to ensure that the program is safe and appropriate for the individual.
Designing a comprehensive, non-medical, post-rehabilitation exercise program starts with a thorough assessment of the individual’s current fitness level and specific goals. It should then be tailored to the individual’s needs, taking into account any medical conditions or injuries. It should include exercises to improve strength, flexibility, and cardiovascular endurance, and it should also include activities that help to improve balance and coordination to prevent falls and injury (Allakhverdiev, 2020). Regular reassessment and adjustments to the program will ensure progress is being made. Furthermore, it’s essential also to include activities that a person enjoys to increase engagement and motivation and set incremental, achievable goals to track progress.
A therapeutic exercise program provides a wide range of physiological, psychological, and social benefits. Physiologically, it can improve cardiovascular health, strengthen bones and muscles, and aid in weight management. Psychologically, it can improve mood and reduce stress and anxiety. Socially, it can provide opportunities for social interaction and can lead to an improved sense of self-esteem and self-worth. Additionally, it can contribute to overall well-being by promoting independence, self-reliance, and self-esteem. Furthermore, regular exercise has been shown to improve sleep quality, boost energy levels, and even boost cognitive function, making it a vital tool for an overall healthy lifestyle. Furthermore, therapeutic exercise programs can also have a positive impact on general mental health and wellbeing. Regular exercise has been shown to reduce symptoms of depression and anxiety and improve overall mood. Additionally, regular exercise can also improve self-esteem, body image, and self-worth, which can be especially important for people who may have physical limitations or disabilities.
Reference
Allakhverdiev, S. I. (2020). Optimising photosynthesis for environmental fitness. Functional Plant Biology, 47(11). Web.