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Discrete growth is when change happens at specific intervals, While Continuous Growth is when change happens at every instant. For example, Discrete growth is when you flip a coin and get new possibilities. However, an example of Continuous Growth would be when bacteria will continue to grow over a 24 hours period, producing new bacteria which will also grow.

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Well to start off, Logarithms are used to solve exponential equations. And according to Google, some examples of these exponential equations apply to sound (decibel measures), earthquakes (Richter scale), the brightness of stars, and chemistry (pH balance, a measure of acidity and alkalinity). Logarithms tip over to the more complicated side of mathematics, so you’ll mostly see it mentioned in more science-related things!

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According to Google, 0, 1, and every negative number presents a potential problem as the base of a power function. (
A power function is a function with a single term that is the product of a real number, a coefficient, and a variable raised to a fixed real number.) essentially, a logarithm is the inverse of an exponential function. So if negative numbers don’t work for that, it won’t work for the inverse.

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According to Google, A horizontal asymptote is a horizontal line that is not part of a graph of a function but guides it for x-values. “far” to the right and/or “far” to the left. One equation you could use to find the horizontal asymptote is to Divide N(x) by D(x).

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Discrete shows a distant point that remains unconnected. Continuous shows the points are connected with an unbroken line.

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Much of the power of 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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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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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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Descrete growth changes at specific intervals however continuous growth change happens every instant .

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Why we don't use negative base on logarithm is because 0, 1, and every negative number present a potential problem.

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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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discrete growth: change happens at specific intervals continuous .
growth: change happens at every instant.

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logarithms can be used in real life because they are used to measure.

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why we don't use negative base on logarithm is because. 0,1 and. every negative number present a potential problem.

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divide n(x) by d(x). if the quotient ic constant they y= this constant is the equation of a horizontal asymptote.

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How logarithms are used in real life by measuring anything. Hector B

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Why we don't use negative base on logarithm is because 0, 1, and every negative number present a potential problem. Hector B

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How I would describe a horizontal asymptote and its equation if the quotient is constant, then the y constant is the equation of a horizontal asymptote. Hector B

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Descrete growth changes at specific intervals however continuous growth change happens every instant .

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Logarithms can be used in real life because they are used to measure

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We don't use negative base on logarithms because a negative number can only be evaluated fo a odd root which is a non real answer so it won't work.

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

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They can be used to measure stuff like the points I think

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Descrete growth changes at specific intervals however continuous growth change happens every instant .

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The difference between Discrete growth and Continues growth is that 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 growth: change happens at specific intervals. Continuous growth: change happens at every instant.

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Discrete is when change happens at specific intervals and Continuous growth is the change that happens at every instant. Hector B

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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 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 shows a distant point that remains unconnected. Continuous shows the points are connected with an unbroken line.

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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 at specific intervals, and Continuous growth change at every instant.

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Continuous compounding is similar in concept to annual compounding, except the compounding periods are infinitely small.

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Logarithms can be used in real life because they are used to measure

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U can use it when you come across daily life problems.Like when you go to the supermarket and you want to by apples but you want to spend a certain amount and you wonder how much you need. They can also be used in chemistry.

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

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logarithms are useful in solving exponential equations that can be found in a varying subjects and measurements. An example of a subject using logarithms is in chemistry measuring pH balance, a measure of acidity and alkalinity. Another example of where logarithms are useful in measuring sound.

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Much of the power of 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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Logarithms can be used in real life because they are used to measure.

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The Real-Life scenario of Logarithms is to measure the acidic, basic or neutral of a substance that describes a chemical property in terms

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we used logarithms in real life with chemistry, sound, earthquakes and other.

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Much of the power of logarithms is their usefulness in solving exponential equations. Some examples of this include sound (decibel measures), earthquakes etc

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Much of the power of 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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Much of the power of 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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Much of the power of 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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We don't use negative base on logarithms because a negative number can only be evaluated fo a odd root which is a non real answer so it won't work.

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0, 1 and every negative number presents a potential problem as the base of a power function. if the numbers are not relatable by the base of a power function then it can't be the base of a logarithm.

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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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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 power function

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

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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.

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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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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.

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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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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, having a negative base on a logarithm can cause undefined solutions.

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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

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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.

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when I try it on the calculator it give me a error so I think only positive numbers can be base.

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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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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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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.

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

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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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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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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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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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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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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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A horizontal asymptote is a horizontal line that is not apart of a graph of a function and Ito find its equation you divide n(x) by d(x)

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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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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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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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you have to 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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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 it as a horizontal line that is not part of a graph of a function but it guides for the x values

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