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Formula: Future Value of $1 Table (FVIF) Creator
Show calculation steps (1)
  1. Column rate and row period

    Column rate and row period: Future Value of $1 Table (FVIF) Creator

    Column k uses rate percent = start + k*increment; row j uses n = startPeriod + j*increment. Rate percent is divided by 100 to get i.

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Results

[style]
FVIF Factor (first cell)
1.34392
growth of $1 at the starting rate and period
n / i 3.00% 3.25% 3.50%
10 1.34392 1.37689 1.41060
11 1.38423 1.42164 1.45997
12 1.42576 1.46785 1.51107
13 1.46853 1.51555 1.56396
14 1.51259 1.56481 1.61869
15 1.55797 1.61566 1.67535
16 1.60471 1.66817 1.73399
17 1.65285 1.72239 1.79468
18 1.70243 1.77837 1.85749
19 1.75351 1.83616 1.92250

What is a Future Value of $1 (FVIF) Table?

A Future Value Interest Factor (FVIF) table is a reference grid that shows how a single dollar grows under compound interest. Each cell holds the factor \(\text{(1 + i)}^n\), where i is the per-period interest rate and n is the number of compounding periods. Because the present value is fixed at $1, the factor itself is the future value: multiply any amount of money by the matching cell to get its future value. This tool is universal — it is pure compound-interest math with no currency, tax, or country-specific rules.

Grid table with rows for periods and columns for interest rates, cells holding growth factors
An FVIF table: rows are periods (n), columns are rates (i), and each cell is the factor (1+i)^n.

How to use the creator

Set the table shape and steps:

  • Columns and Starting rate (%) with rate Increments (%) control the interest-rate headers across the top.
  • Rows and Starting Period with period Increments control the period counts (n) down the left.

Column k uses a rate of start + k × increment percent; row j uses startPeriod + j × increment periods. Columns are capped at 20 and rows at 50.

The formula explained

The single building block is the compound-growth factor. Convert each header percent to a decimal by dividing by 100 (3% becomes 0.03), then raise (1 + i) to the power n. The result is dimensionless: it tells you how many times bigger $1 becomes.

$$\text{FVIF} = (1 + i)^n$$
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Exponential growth curve of one dollar compounding over periods
Compounding makes $1 grow as (1+i)^n, curving upward as periods increase.

Worked example

Using the defaults (columns=3, starting rate=3%, rate increment=0.25%, rows=10, starting period=10, period increment=1): the columns are 3.00%, 3.25%, and 3.50%. The cell at n=10, i=3.00% is $$(1.03)^{10} = 1.34392.$$ At n=10, i=3.50% it is $$(1.035)^{10} = 1.41060.$$ At n=19, i=3.50% it is $$(1.035)^{19} = 1.92250.$$

FAQ

How do I get a future value of more than $1? Multiply the relevant FVIF cell by your starting amount. For $5,000 at 3% for 10 years: \(5000 \times 1.34392 = \$6{,}719.58\).

What rate do I enter for monthly compounding? Use the per-period rate. For 12% annual compounded monthly, enter 1% and let n count months.

Can the increment be zero? Yes for the rate increment — every column then shares the same rate. The period increment must be at least 1.

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