Answer:
The correct answer is: in all decision making.
Explanation:
Economic analysis is used in all walks of life, in decision making. It is not only relevant for policymaking or in business or for students. Rather, it is used in day to day life as well.
Almost all the decision we make is based on cost-benefit analysis. It used by households and individuals for utility maximization. It is used by businesses for profit maximization and is used by policy makers for welfare maximization.
Answer:
correct option is a. $36,000
Explanation:
given data
labor cost = $360,000
move material per year = 600,000 pounds
to find out
material handling cost
solution
we find here first Labor Cost per pound of material that is express as
Labor Cost per pound of material = Labor Cost ÷ Number of Pounds of material .......................1
Labor Cost per pound of material = 
Labor Cost per pound of material = $ .6 per pound of material
=360000/600000= $0.6 per pound of material
so we can say that 60000 pounds are moved in March so cost will be
60000 pounds are move cost = 60000 × $0.6
60000 pounds are move cost = $36000
so correct option is a. $36,000
I'm going to use A B C going down from "prevents detects(A).... to protects consumers(D)"
A-Dodd Frank Act
B-Patriot act
C-identity theft and assumptions
D-Credit card act
Answer:
The Silverside Company
Project 1's Payback Period
= Initial Investment/Annual cash flows
= $400,000 / $90,000
= 4.44 years.
Explanation:
Project 1:
Initial Investment = $400,000
Useful life = 5 years
Annual cash inflows for useful life = $90,000
The Silverside Company's payback period calculates the time or number of years that it would take the company to recover from its initial investment in Project 1. This is the simple payback period calculation. There is also the discounted payback period calculation. This method discounts the annual cash inflows to their present values before the calculation is carried out. This second method gives a present value perspective on the issue.
Answer:
Hersey's bond = $1125.513
Mars bond = $1172.259
Explanation:
Hersey bond;
Period(t) = 10years = 40(quartely)
Coupon (C) = $30
Rate (r) = 0.1 = 0.025(quarterly)
Pay at maturity(p) = $1000
Using the both present value (PV) and compound interest formula ;
PV =[ C × (1 - (1+r)^-t) ÷ r] + [p ÷ (1 + r)^t]
PV = [30×(1-(1.025)^-40)÷0.025] + [1000÷(1.025)^40]
PV =( 753.083251562) + (372.4306236)
PV = $1125.513
Mars bond;
Period(t) = 20years = 80(quartely)
Coupon (C) = $30
Rate (r) = 0.1 = 0.025(quarterly)
Pay at maturity(p) = $1000
PV =[ C × (1 - (1+r)^-t) ÷ r] + [p ÷ (1 + r)^t]
PV = [30×(1-(1.025)^-80)÷0.025] + [1000÷(1.025)^80]
PV =(1033.55451663) + (138.704569467)
PV = $1172.259
