1. Calculation functions
  2. All functions
  3. Financial functions
  4. YIELD

Use this function to calculate the yield to maturity (YTM) of a bond.

The YTM is the overall rate of interest that, when used to discount the bond's future cashflows, produces the given price.

When interest rates rise, bond prices fall, so it is important to know the yield when calculating the price of a bond.

As yield is used in the formula for calculating price, you can determine the value of the yield using an iterative solution.

This is the formula for price:

Price=tT1CashFlowst(1+Yield)t Price = \sum_{t}^{T-1} \frac {CashFlows_{t}} {(1+Yield)^t}


Where T is the total number of coupon periods.

Syntax

YIELD(Settlement, Maturity, Rate, Price, Redemption, Frequency [, Basis])

Arguments

ArgumentData typeDescription
Settlement (required)DateThe bond settlement date: The date the bond is traded to the buyer.
Maturity (required)DateThe bond maturity date: The date when the bond expires.
Rate (required)NumberThe bond annual coupon date.
Price (required)NumberThe bond price per 100 monetary units, face value.
Redemption (required)NumberThe payment received when the bond reaches maturity.
Frequency (required)Number

The number of coupon payments per year.

Enter:

  • 1 for annual
  • 2 for semi-annual
  • 4 for quarterly
BasisNumber

The basis determines how many days exist in a year.

A full year has:

  • 360 days when basis US (NASD) 30/360, Actual/360, and EUR 30/360 are used
  • 365 days when basis Actual/365 is used
  • 365 or 366 days when Actual/Actual is used

US 30/360 is the default basis for COUPDAYS. It can also be specified by entering 0.

To use a different type of day count basis, enter:

  • 1 for Actual/Actual
  • 2 for Actual/360
  • 3 for Actual/365
  • 4 for European 30/360

Learn about the conventions used to calculate the day count for basis.

The YIELD function returns a number.

Additional information

If the price and redemption parameters are very far apart, the iterative method of calculation might never converge on a result. In this case, NaN (not a number) is returned.

Constraints

  • The settlement and maturity dates must be valid dates between 01/01/1900 and 12/31/2399.
  • The maturity date must be later than the settlement date.
  • The price must be greater than zero.
  • The redemption must be greater than zero.
  • The basis, when specified, must be either 0 (US 30/360), 1 (Actual/Actual), 2 (Actual/360), 3 (Actual/365), or 4 (EUR 30/360).

Calculation engine functionality differences

Most financial functions are unavailable in Polaris, but you can use FV, IPMT, NPER, PPMT, and PV. Learn more about the differences between Anaplan calculation engines.

Excel equivalent

YIELD(opens external page)

Related Anaplan functions

Examples

This example shows a YIELD calculation that specifies a basis.

FormulaDescriptionResult
YIELD(DATE(2018, 1, 15), DATE(2021, 1, 15), 0.12, 90, 100, 1, 4)

The example has a:

  • settlement date of 01/15/2018
  • maturity date of 01/15/2021
  • rate of 0.12 (12%)
  • price of 90 monetary units
  • redemption of 100 monetary units
  • frequency of 1 (annual)
  • basis of 4 (European 30/360)
0.1648 or 16.5%.

In this example the yield is calculated without specifying a basis. As a result, the basis defaults to US 30/360.

FormulaDescriptionResult
YIELD(DATE(2018, 1, 15), DATE(2021, 1, 15), 0.12, 90, 100, 4)

Here:

  • the settlement date is 01/15/2018
  • the maturity date is 01/15/2021
  • the rate is 0.12 (12%)
  • the price is 90 monetary units
  • the redemption is 100 monetary units
  • the frequency is 4 (quarterly)
0.1627 or 16.3%

Disclaimer

We may update our documentation occasionally, but will only do so in a way that does not negatively affect the features and functionality of the Anaplan service.