document.write( "Question 1193410: 1. Julita owes Jose the following amounts:
\n" );
document.write( "a. 55,000 at the end of 4 years,
\n" );
document.write( "b. 48,000 at the end of 5 years, and
\n" );
document.write( "c. 75,000 due in 3 years from today at 9% converted quarterly.
\n" );
document.write( "What single payment at the end of 2 years will settle Julita’s
\n" );
document.write( "obligations if money is worth 15% converted monthly? \n" );
document.write( "
Algebra.Com's Answer #848807 by CPhill(1959)![]() ![]() You can put this solution on YOUR website! **1. Calculate the Present Value of Each Obligation at the End of 2 Years**\r \n" ); document.write( "\n" ); document.write( "* **Obligation a: 55,000 at the end of 4 years** \n" ); document.write( " * Time to maturity from the end of 2 years: 4 - 2 = 2 years \n" ); document.write( " * Present Value (PV_a) = 55,000 / (1 + 0.15/12)^(2*12) \r \n" ); document.write( "\n" ); document.write( "* **Obligation b: 48,000 at the end of 5 years** \n" ); document.write( " * Time to maturity from the end of 2 years: 5 - 2 = 3 years \n" ); document.write( " * Present Value (PV_b) = 48,000 / (1 + 0.15/12)^(3*12)\r \n" ); document.write( "\n" ); document.write( "* **Obligation c: 75,000 due in 3 years from today at 9% converted quarterly** \n" ); document.write( " * Time to maturity from today: 3 years \n" ); document.write( " * Time to maturity from the end of 2 years: 3 - 2 = 1 year \n" ); document.write( " * Effective annual rate for quarterly compounding: (1 + 0.09/4)^4 - 1 = 0.093083 \n" ); document.write( " * Present Value (PV_c) = 75,000 / (1 + 0.093083)^1 * (1 + 0.15/12)^(-12) \r \n" ); document.write( "\n" ); document.write( "**2. Calculate the Total Present Value of All Obligations at the End of 2 Years**\r \n" ); document.write( "\n" ); document.write( "* Total Present Value = PV_a + PV_b + PV_c\r \n" ); document.write( "\n" ); document.write( "**3. Determine the Single Payment at the End of 2 Years**\r \n" ); document.write( "\n" ); document.write( "* The single payment at the end of 2 years to settle all obligations is equal to the total present value of all obligations at that time.\r \n" ); document.write( "\n" ); document.write( "**Using Python:**\r \n" ); document.write( "\n" ); document.write( "```python \n" ); document.write( "import numpy as np\r \n" ); document.write( "\n" ); document.write( "# Calculate the present value of each obligation at the end of 2 years\r \n" ); document.write( "\n" ); document.write( "# Obligation a: 55,000 at the end of 4 years \n" ); document.write( "# Time to maturity from the end of 2 years: 4 - 2 = 2 years \n" ); document.write( "pv_a = 55000 / (1 + 0.15/12)**(2*12) \r \n" ); document.write( "\n" ); document.write( "# Obligation b: 48,000 at the end of 5 years \n" ); document.write( "# Time to maturity from the end of 2 years: 5 - 2 = 3 years \n" ); document.write( "pv_b = 48000 / (1 + 0.15/12)**(3*12)\r \n" ); document.write( "\n" ); document.write( "# Obligation c: 75,000 due in 3 years from today at 9% converted quarterly \n" ); document.write( "# Time to maturity from today: 3 years \n" ); document.write( "# Time to maturity from the end of 2 years: 3 - 2 = 1 year \n" ); document.write( "# Effective annual rate for quarterly compounding: (1 + 0.09/4)**4 - 1 = 0.093083 \n" ); document.write( "pv_c = 75000 / (1 + 0.093083)**1 * (1 + 0.15/12)**(-12) \r \n" ); document.write( "\n" ); document.write( "# Total present value of all obligations at the end of 2 years \n" ); document.write( "total_pv = pv_a + pv_b + pv_c\r \n" ); document.write( "\n" ); document.write( "print(f\"Single payment at the end of 2 years to settle Julita's obligations: {total_pv:.2f}\") \n" ); document.write( "```\r \n" ); document.write( "\n" ); document.write( "**Result:**\r \n" ); document.write( "\n" ); document.write( "The single payment at the end of 2 years to settle Julita's obligations is approximately **130,623.40**. \n" ); document.write( " \n" ); document.write( " |