Experimental Design of a Robotic Ventilator to Support Covid-19 and Related Pandemic Situations

In the situation of Corona virus pandemic, each and every individual suffers a lot, especially the medication team and the respective individuals work as much as harder to safe many people life. Most of the Covid victims are affected by lung oriented and breathing issues. During that period ventilators play a major role to make the people to survive. The medical field requires more and more number of ventilators instantly at the same time to bring back the patient's life from the complicated disease called Corona virus. But practically no hospitals and medical system had such provision to provide thousands of ventilators to patients at the same time. For managing such conditions, a new technology is required to provide sufficient number of devices as the patients required. In this paper, a new robotic ventilator is designed with the help of latest technologies to overcome the situations like Covid-19. This robotic ventilation systems use parts that are widely accessible across the world and that parts are commonly found in commonplace appliances as well as services. This system do not require for any unique production techniques and f or the contemporary pandemic, many solutions have been developed, all with the goal of fulfilling the most fundamental needs for adequate ventilation. But other individuals are opposed using these robotic ventilation systems in real-world circumstances because of their low dependability and failure to satisfy specific medical standards. There are benefits and drawbacks to every implementation of this plan and it's up to designers to work out the kinks. Consequently, by methodical study of the current stock of proposed model, this paper intends to give readers a summary of the main design characteristics that has to be addressed while developing portable ventilation systems. By examining the current research, many parameters are identified that affect efficiency of the device and explained how these aspects must be taken into account for optimal device functioning.