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The average rate of decay basically tells you how fast it would usually take something to lessen of some sort. (In most cases, it’s referred to with money). The formula used for rate of decay is y=a(1-b)x , where according to Google, y is the final amount, a is the original amount, b is the decay factor, and x is the amount of time that has passed.

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According to Google, An effective annual interest rate is the real return on a savings account or any interest-paying investment when the effects of compounding over time are taken into account. It also reflects the real percentage rate owed in interest on a loan, a credit card, or any other debt. However, a Nominal interest rate (or money interest rate) is the percentage increase in money you pay the lender for the use of the money you borrowed. For instance, imagine that you borrowed $100 from your bank one year ago at 8% interest on your loan.

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One of the formulas for continuous growth would be A = Pe rt.   A would be the ending amount, P would be the beginning amount (principal, in the case of money), r is the growth or decay rate (expressed as a decimal), and t is the time (in whatever unit was used on the growth/decay rate).

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In mathematics, exponential decay describes the process of reducing an amount by a consistent percentage rate over a period of time. It can be expressed by the formula y=a(1-b)x wherein y is the final amount, a is the original amount, b is the decay factor, and x is the amount of time that has passed.

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Nominal interest rate is defined as a stated interest rate. This interest works according to the simple interest and does not take into account the compounding periods. Effective interest rate is the one which caters the compounding periods during a payment plan.

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In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor.

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The average rate of decay is the decrease in the number of radioactive nuclei per unit time

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In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor.

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it has change that happens at every instant p(t)=pobt.

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The nominal interest rate does not take into the account the compounding period. The effective interest rate does take the compounding period into account and this is a more accurate measure of interest charges.

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can be expressed by the formula y=a(1-b)^x

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process of reducing an amount by a consistent percentage rate over a period of time.

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it has a change that happens at every instant p(t)=pobt.

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The total number of undecayed nuclei present in the system on doubling the average and undecayed nuclei must double the rate of decay. ... The stability of the isotope since some isotope decay rapidly. The rate of decay gives the number of nuclei that decay per second.

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The rate of decay gives the number of nuclei that decay per second.

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The average rate of decay is the decrease in the number of radioactive nuclei per unit time

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The rate of decay gives the number of nuclei that decay per second.

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The average rate of decay is the decrease in the number of radioactive nuclei per unit time

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The average rate of decay is the decrease in the number of radioactive nuclei per unit time

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The initial is the rate is the instantaneous rate of reaction as it start the. (As the product begin to form).

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The rate of decay, or activity, of a sample of a radioactive substance is the decrease in the number of radioactive nuclei per unit time.

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The initial rate is the instantaneous rate of reaction as it starts (as product just begins to form).

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The average rate of decay is when the process of reducing an amount by a consistent percentage rate over a period of time. y=a(1-b)x wherein y is the final amount, a is the original amount, b is the decay factor, and x is the amount of time that has passed.

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The rate of decay, or activity, of a sample of a radioactive substance is the decrease in the number of radioactive nuclei per unit time.

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The rate of decay, or activity, of a sample of a radioactive substance is the decrease in the number of radioactive nuclei per unit time.

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The average rate of decay is when the process of reducing an amount by a consistent percentage rate over a period of time. Hector B

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The initial rate is the instantaneous rate of reaction as it starts (as product just begins to form).

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The rate of decay, or activity, of a sample of a radioactive substance is the decrease in the number of radioactive nuclei per unit time.

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process of reducing an amount by a consistent percentage rate over a period of time.

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In mathematics, exponential decay describes the process of reducing an amount by a consistent percentage rate over a period of time. It can be expressed by the formula y=a(1-b)x wherein y is the final amount, a is the original amount, b is the decay factor, and x is the amount of time that has passed.

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The nominal interest rate does not take into account the compounding period. Whilst on the contrary, the effective interest rate does take the compounding period into account, & is also a more accurate measure of interest charges.

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I would describe in the form P(t)= P0bt, the growth rate is r = b - 1. the constant b sometime called the growth factor.

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The nominal amount interest rate will not take into the account the compounding period.

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thus is a more accurate measure of interest chargres

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The nominal interest rate does not take into account the compounding period. Whilst on the contrary, the effective interest rate does take the compounding period into account, & is also a more accurate measure of interest charges.

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I would describe in the form P(t)= P0bt, the growth rate is r = b - 1. the constant b sometime called the growth factor.

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The nominal interest rate does not take into account the compounding period.

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Nominal interest rate does not take into account over periods. Effective craters the compounding periods during a payment plan.

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The difference between effective and nominal interest is that the nominal interest rate does not take into account the compounding period. The effect interest is the one that does take the compounding period into account. Hector B

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Nominal interest rate is also defined as a stated interest rate. This interest works according to the simple interest and does not take into account the compounding periods. Effective interest rate is the one which caters the compounding periods during a payment plan.

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Nominal interest is also known as a stated interest rate.

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Continuous growth or decay functions are of the form A(t)=aert A ( t ) = a e r t . If r > 0 , then the formula represents continuous growth. If r < 0 , then the formula represents continuous decay.

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The nominal interest rate does not take into account the compounding period. The effective interest rate does take the compounding period into account and thus is a more accurate measure of interest charges.

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Nominal interest is calculated on the original principal only. effective interest is compound interest.

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The nominal interest rate is the rate you pay on a loan. The real interest rate is the nominal interest rate adjusted for inflation.

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The nominal interest rate is the rate you pay on a loan. The real interest rate is the nominal interest rate adjusted for inflation.

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The nominal interest rate does not take into account the compounding period. The effective interest rate does take the compounding period into account and thus is a more accurate measure of interest charges.

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The nominal interest rate does not take into account the compounding period.

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The nominal interest rate does not take into account the compounding period.

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Nominal rate is the Stated rate of interest. The Effective rate is the Nominal rate taking into account compound interest over an annual period.

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The nominal interest rate does not take into account the compounding period.

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Nominal interest rate is defined as a stated interest rate. This interest works according to the simple interest and does not take into account the compounding periods. Effective interest rate is the one which caters the compounding periods during a payment plan.

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The nominal interest rate does not take into account the compounding period.

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The effective interest rate does take the compounding period into account and thus is a more accurate measure of interest charges.

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The difference between effective and nominal interest is that the nominal interest rate does not take into account the compounding period. The effective interest rate does take the compounding period into account and thus is a more accurate measure of interest charges.

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = pobt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor.

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In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor.

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How would I describe it is by saying the constant b is sometimes called the growth factor. The constant k is called the growth or decay but the growth rate and growth factor are not the same

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How would I describe the formula for continuous growth is by saying the constant b is sometimes called the growth factor. Hector B

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor. The growth rate and growth factor are not the same.

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor. The growth rate and growth factor are not the same.

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A=pert where A is the ending amount, p is the beginning amount, r is the growth and t is the time in what unit was use.

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Continuous growth or decay functions are of the form A(t)=aert A ( t ) = a e r t . If r > 0 , then the formula represents continuous growth. If r < 0 , then the formula represents continuous decay.

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor. The growth rate and growth factor are not the same.

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A = Pe^rt
A: ending amount
P: beginning amount
r: growth or decay
t: time

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I would describe the formula for continuous growth as something that grows at a constant rate.

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor. The growth rate and growth factor are not the same.

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor. The growth rate and growth factor are not the same.

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The constant b is sometimes called the growth factor. The growth rate and growth factor are not the same.

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The constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1. The constant b is sometimes called the growth factor.

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the constant k is called the continuous growth (or decay) rate. In the form P(t) = P0bt, the growth rate is r = b − 1.

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I would describe it as a change that happens at every instant. p(t)=PObt