The topic of human skin interface behaviour is extensively researched in both indus­try and academia due to its signicance for the functional performance of many items. People with varying age groups, genders, ethnicities, and skin types have diverse skin qualities. Furthermore, the features of the skin vary based on the part of the body and can be affected by lifestyle choices and body mass index. Even though the skin’s primary function is to act as a barrier, some substances can nevertheless be absorbed. A large portion of the underlying fundamental physical mechanisms are still unknown due to the complexity of skin interactions. Gaining more insight into skin tribology will require targeted, in-depth experimental studies.

Abstract Manufacturing of biomedical device involves in-depth understanding of

tribology and biology, biotribology. The word “tribology,” comes from ancient Greek. In this chapter, the focus is on challenges and future scopes of biotribology in the eld of biomedical devices. Some of the problems while designing a

Keywords Biomedical devices · Tribology · Biofabrication · Biomedical systems

· Manufacturing technologies

In biomedical systems with intriguing designs, biomechanics, biomaterials, bioin­strumentation, and framework scienceplay important role in developing a building block and integration of various parts of system. These biomedical system design

have a widespread usethat varies from designing and creating prosthetics and arti­cial organs to creating biomaterials for the delivery of medications. Scientic models are used to improve healthcare systems, and machine learning is used to advance microscopy and restorative imaging. Medical devices include any tool, equipment, apparatus, implant, or invitro reagent that isn’t a medication used for human or animal diagnostic or therapeutic purposes, according to the Food and Drug Administration (FDA) of the United States (US). On the other hand, any tool, apparatus, machine, appliance, or other item that the manufacturer has invented to be used for biomedical purposes and whose main function is not accomplished by means of metabolic, immunological, or pharmacological means is classied as a medical device by the World Health Organization (WHO) [1]. In the US, the FDA is in charge of regulating the security and effectiveness of medical equipment. Medical device regulation, both before and after they are put on sale in the US, is primarily the responsibility of the FDA’s Centre for Devices and Radiological Health (CDRH). In terms of regulatory regulation, Class I, II, and III are the higher classications of medical equipment. The device categorization regulations set forth the legal requirements for a wide range of devices. Class II devices must have pre­market notice, Class III devices must have premarket approval (PMA), while the majority of Class I devices are exempt from FDA notication. Humanitarian Use Devices (HUDs) are marketed for a certain demographic under a totally separate approach known as Humanitarian Device Exemptions (HDEs). CDRH evaluates the majority of medical devices in compliance with premarket notication [2]. In bio­medical system any device, appliance, machine, implant, invitro reagent or calibra­tor, software, material, or other similar or related article that the manufacturer intends to be used, either alone or in combination.one or more of the specic pur­poses of disease prevention, diagnosis, treatment, monitoring, or harm reduction.It also helps to achieve investigation, replacement, alteration, or support of the anat­omy or a physiological process; life support or control; or sterilization of medical equipment; or providing data for medical or diagnostic purposes through invitro examination of human specimens [1]. Figure6.1 explains the classication in ow­chart. Figure6.1 simplies the imagination of sub-classication of all the medical devices according to FDA.