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Discrete growth: change happens at specific intervals. Continuous growth: change happens at every instant.

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Some examples would be,  "logarithms is their usefulness in solving exponential equations. Some examples of this include sound (decibel measures), earthquakes (Richter scale), the brightness of stars, and chemistry (pH balance, a measure of acidity and alkalinity)".

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Because "if those numbers can't reliably be the base of a power function, then they also can't reliably be the base of a logarithm".

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I would describe it by saying, "A horizontal asymptote is a horizontal line that tells you how the function will behave at the very edges of a graph. A horizontal asymptote is not sacred ground, however. The function can touch and even cross over the asymptote".

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Discrete growth change happens at specific intervals. Continuous growth change happens at every instant.

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Some ways logarithms are used in real life is by earthquakes and brightness of stars.

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We don't use negative base on logarithms because the log of negative base is not defined.

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Discrete growth: change happens at specific intervals. Continuous growth: change happens at every instant.

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Discrete growth: change happens at specific intervals. Continuous growth: change happens at every instant.

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Discrete is a change happening at specific intervals and Continuous is change happening at every instant.

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Discrete growth: change happens at specific intervals. Continuous growth: change happens at every instant.

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Discrete growth: change happens at specific intervals. Continuous growth: change happens at every instant. -Alana Fedrick

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Discrete growth: change happens at specific intervals. Continuous growth: change happens at every instant. -Alana Fedrick

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Some examples of logarithms are used in real life include sound (decibel measures), earthquakes (Richter scale), the brightness of stars, and chemistry (pH balance, a measure of acidity and alkalinity).

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Logarithms can be used for earthquakes.

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keeping the water in a swimming pool clean.

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Much of the power of logarithms is their usefulness in solving exponential equations

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Some examples of logarithms being used in real life are:
Sound (decibel measures), Earthquakes (Richter scale), Brightness of stars, and Chemistry (pH balance, a measure of acidity and alkalinity).

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Logarithms are used in real life for such things as sound, earthquake, and chemistry.

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Much of the power of logarithms is their usefulness of solving exponential equation, Some such as sound( decibel measure), earthquakes( richer scales), the brightness of stars, and chemistry.

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 Some examples of logarithms are used in real life include sound (decibel measures), earthquakes (Richter scale), the brightness of stars, and chemistry (pH balance, a measure of acidity and alkalinity). -Alana

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 Some examples of logarithms are used in real life include sound (decibel measures), earthquakes (Richter scale), the brightness of stars, and chemistry (pH balance, a measure of acidity and alkalinity). -Alana

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log of negative base is not defined

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Negative numbers are the base of power numbers.

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Logarithms could have a complex base, however they may be complex then. Also remember that \log 0 is not defined, and division by zero yields indeterminate or undefined forms.

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We dont use negative bases on a logarithm because the negative number shows as a potential problem.

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Every negative number presents a potential problem as the base of power function. And if those number can’t be reliably be the base of a power function, then they also can’t reliably the base of a logarithms.

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We don't use negative base on logarithm because if those number can't reliably be the base of power function, then they also can't reliably be the base of a logarithm.

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We don't use negative base on logarithm because any negative number presents a potential problem as the base of the problem.

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A horizontal asymptote and its equation can be described as divide N(x) by D(x). Also, if the quotient is constant then y states the constant is the equation of a horizontal asymptote.

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Every negative number presents a potential problem as the base of power function. And if those number can’t be reliably be the base of a power function, then they also can’t reliably the base of a logarithms.

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So 0, 1, and every negative number presents a potential problem as the base of a power function. And if those numbers can't reliably be the base of a power function, then they also can't reliably be the base of a logarithm. For that reason, we only allow positive numbers other than 1 as the base of the logarithm.

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So 0, 1, and every negative number presents a potential problem as the base of a power function. And if those numbers can't reliably be the base of a power function, then they also can't reliably be the base of a logarithm. For that reason, we only allow positive numbers other than 1 as the base of the logarithm. -Alana

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So 0, 1, and every negative number presents a potential problem as the base of a power function. And if those numbers can't reliably be the base of a power function, then they also can't reliably be the base of a logarithm. For that reason, we only allow positive numbers other than 1 as the base of the logarithm. -Alana

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So 0, 1, and every negative number presents a potential problem as the base of a power function. And if those numbers can't reliably be the base of a power function, then they also can't reliably be the base of a logarithm. For that reason, we only allow positive numbers other than 1 as the base of the logarithm

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I would describe an horizontal asymptote and its equation by divide N(x) by D(x). If the quotient is constant then y= this constant is the equation of horizontal asymptote.

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I would describe a horizontal asymptote and its equation by, Dividing N(x) by D(x). If the quotient is constant, then y = this constant is the equation of a horizontal asymptote.

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Another way of finding a horizontal asymptote of a rational function is Divide N(x) by D(x).If the quotient is constant, then y = this constant is the equation of a horizontal asymptote

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I would describe a horizontal asymptote and its equation by dividing N(x) by D(x). If the quotient is constant, then y = this constant is the equation of a horizontal asymptote.

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I would describe a horizontal asymptote and its equation by dividing N(x) by D(x). If the quotient is constant, then y = this constant is the equation of a horizontal asymptote.

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A horizontal asymptote is a horizontal line that tells you the way the feature will behave on the very edges of a graph

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Divide N(x) by D(x). If the quotient is constant, then y= this constant is the equation of horizontal asymptote.

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Another way of finding a horizontal asymptote of a rational function: Divide N(x) by D(x). If the quotient is constant, then y = this constant is the equation of a horizontal asymptote.

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I would describe a horizontal asymptote and its equation by, Dividing N(x) by D(x). If the quotient is constant, then y = this constant is the equation of a horizontal asymptote.

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"Another way of finding a horizontal asymptote of a rational function: Divide N(x) by D(x). If the quotient is constant, then y = this constant is the equation of a horizontal asymptote."

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I would describe an horizontal asymptote and its equation by an horizontal asymptote is a line (or a curve as you will later learn) to which a function gets closer and closer to as x approaches infinity (or negative infinity), without ever touching no matter how far out you go.