The want a graph to part A.

{marginal optimal} The World Health Organization ( WHO) is considering sending in a team of experts to deal with an outbreak of schistosomiasis in a distant country. Sending a larger team will allow 1WHO to prevent more fatalities, and they estimate the following effectiveness: Number of Team Members Number of Deaths 0 (i.e., no action]I 1,200 5 500 10 200 15 100 20 60 25 40 30 30 35 25 40 22 45 20 50 20 a. It costs $5,000 for each team member sent. Calculate the total, average, and marginal cost of life saving through this effort and display it on a graph. If saving a life is valued at $100,000, what is the optimal number of people WHO should send to combat ENDNOTES I67 the epidemic? If saving a life is valued at $10,000, what is the optimal number? What team size gives the most \"bang for the buck\" (i.e., the largest number of lives saved per dollar spent)? b. Each person sent must be taken away from a disease-ghting team at work elsewhere in the world. What is the appropriate opportunity cost measure of sending people to ght the new epidemic: the transportation cost of $5,000 or the reduction of life-saving efforts from the job they are pulled away from