Science plays an essential role that determines the materials used and their functionality in different products and application processes used in the world. Physics in particular as a branch of science has played a critical role in the engineering sector, and industry among others where concepts of physics are incorporated in many issues developed and designed that help humanity as a whole in one way or the other. It is, hence, imperative to appreciate and recognize such essential subject and topic and specifically in its application and use in the different products and processes that help resolve and enhance efficiency in production as well as increase safety aspects. Many products entail ideas and concepts from physics and in particular capital products or goods that help generate more income by enhancing the use and production of different services and goods. Many people or users of such products assume or ignore aspects involved in determining the design and materials of the different product as they are more concerned with their use and the related benefits. However, this paper presents a discussion that notes how the subject of physics is involved in resistance bands and also how physics play a role in the use of the resistance bands in occupational and physical therapy exercises.
The principles of elasticity as well as the force are two critical principles in physics that constitute and plays essential roles that help analyze the resistance bands not only in their designs but also their use by the different people (Todhunter, 2014). Hook’s law that notes the extension of elastic materials is directly proportional to force applied and equally indicates the impact that such force when applied in excess, would have to the elastic material. Force, described merely as a pull or push also is essential not only in the use and designs of resistance bands but also in many products and process of service delivery across different product lines in the world that range from the transport sector, communication sector as well as production and manufacturing sectors among others.
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Physics is involved in resistance bands and in the design and selection of the materials used in making resistance band. The subject of elasticity plays an essential role in the design and making of the resistance bands and, therefore, physics is a crucial subject. Different concepts in physics are applied in the creation of the different parts of resistance bands such as the handgrip and length of the resistance bands among others (Atanacković & Guran, 2012). Physics determines the weight or mass of the resistance bands. It is critical to incorporate physics so that the resistance band can be comfortable in use because of their weight. They have to be light in weight so that users can use them efficiently and effectively helping users realize their objectives and goals in the occupational and physical therapy exercises. The concept of weight or mass also has determined the different sizes, and types of resistance bands created for the various users with dynamic needs and attributes such as height and weight for ease and convenience in use by the people in occupational and physical therapy exercises. The concept of physics related to weight and mass, thus, is involved in the design of different sizes and pieces of resistance bands (Atkin, 2013).
Secondly, physics is involved in determining the materials used in the creation of resistance bands. The concept of strength of materials such as toughness or hardness that includes the ability of materials to resist bending as well as the ability of materials to withstand scratch respectively is important in the selection of the materials to be in the designs of the different resistance bands available. The concepts of elasticity, hence, plays an essential role to determine the type of material used in creating the different resistance bands where more often materials that have elasticity are preferred because so their ability to oppose break even when a force of higher levels is applied to such materials (Todhunter, 2014). It is critical to note that resistance bands functions or work by application of force that targets to strengthen the user’s strength, power, and energy by enhancing their strength and increase their fitness levels. Physics, therefore, is involved by determining the materials used in the design and construction of resistance bands of different types.
Third, physics is involved by determining the force applied in resistance bands. The materials selected are weighed against conventional force and weight that users have, that is, the maximum force that can accrue from user’s hands or human beings. Some materials are tough to bend with the force that can come from the hands of human beings including the most stringent and most influential human beings that can only be bend by use of extra force from a machine or other inputs of force beyond human nature. Physics, hence, has helped select the right materials not only having the ability to resist bend but also those that accommodate force that can be produced from human hands and body when they use such material and products such as resistance bands (Murphy, 2014).
Lastly, physics has helped design different types and sizes of resistance band by incorporating concepts of Body Mass Index (BMI), age and characteristics of the different materials used to have compelling products that can enhance user’s realization of their desired goals and objectives related to occupational and physical therapy exercises.
On the other hand, physics also plays a role in the use of using resistance bands. The first application is on the design of the resistance band hand grip. It is designed roughly to enhance and provide grip that can allow users to hold the resistance bands firmly and toughly to improve its use and avoid a chance that compromises their safety and use, for instance, when they slip from their hands that might cause harm not only to the users but also other people within their environment (Centore, 2013).
Secondly, safety is an important aspect that cuts across all processes and actions. It is essential to work out in a safe environment and to use safe materials to exercise and resistance band used is not exempted. Physics enables users to identify or notice increased risks that can make the resistance bands not secure and safe to use. For example, when resistance bands have exceeded the elastic limit resulting in permanent stretch might make it unsafe to use. Therefore, while designing the safety aspects and caution that users need to look for when and before choosing the right résistance bands, physics can also play an important role that helps empower them with information that increases their safety when using the resistance bands and other gadgets in the occupational and physical therapy exercises (Atanacković & Guran, 2012).
Thirdly, physics play a role in the design of different sizes and types of resistance bands by considering the BMI of users and the role that gravity plays in particularly relating to their height. The physics ideas, hence, targets to improve safety among the users of the different resistance bands and help them realize their desired goals and objectives with ease while using the gadgets (Armenàkas, 2016). The use of resistance bands involves much of jumping and stretching and, therefore, safety issues are increased where different sizes of the resistance bands are developed where users choose those that would make and enhance safety and comfort while using.
Fourthly, physics also plays a role in the using of the resistance bands by determining the spacing, positioning and mounting of fixed and mobile resistance bands in the gym and other exercising places that considers the length of the resistance bands and safety designs of the houses or rooms where used that regard safety aspect of other users. It helps in design as well as choosing materials that can have minimal danger and damage in the event of accidents and related undesired outcomes (Ugural & Fenster, 2018). Safety is an essential aspect and, as a result, physics plays a critical role that cuts across all relevant and crucial elements in promoting occupational and physical therapy exercises.
In conclusion, physics has proved to be essential in resistance bands design and also materials used to make them that enhance not only safety aspects for users and those in the user’s environment but also the economic elements. It results in designs of products that would serve the economic interests and provide values for money for the investors that venture in such line of investments. Physics, therefore, has, directly and indirectly, supported other different fields and occupations as presented in the example of occupational and physical therapy exercises. The various concepts, laws, and ideologies that explain different variables in the physics world have also empowered different other sectors and industries in formulation and designs of the different products and processes used in providing products as well as services in the various fields. In specific, manufacturing sector, engineering sector, productions sector as well as transport sector has witnessed intensive use and application of physics concepts that have enhanced not only production of the services and products but also safety aspects.
References
Armenàkas, A.E. (2016). Advanced Mechanics of Materials and Applied Elasticity . Boca Raton:CRC Press.
Atanacković, T. M., & Guran, A. (2012). Theory of elasticity for scientists and engineers . Boston: Birkhäuser.
Atkin, R. J. (2013). Introduction to the Theory of Elasticity . Dover Publications.
Centore, F. F. (2013). Robert Hooke's contributions to mechanics: A study in seventeenth century natural philosophy. The Hague: Nijhoff.
Murphy, J. (2014). Physics: Understanding the Properties of Matter and Energy . New York: Rosen Digital. New York : Rosen Digital.
Todhunter, I. (2014). A History of the Theory of Elasticity and of the Strength of Materials . Cambridge: Cambridge University Press.
Ugural, A. & Fenster, S.K. (2018). Advanced Mechanics Of Materials And Applied Elasticity . S.L.: Prentice Hall
