Respuesta :
1. Well, for one they both have a 'radicand' and you can arrange both of them in a fraction form.
2. Graph is increasing, there's an asymptotic value, the domain is all real numbers, the range is y > 0. If you add a constant, you are shifting it vertically, which means it's y-intercept will change by the magnitude of the constant.
3. Linear functions are a straight line with one definite slope. Exponential functions are basically curves with their slopes, not constantly, but changing. As you increase your x-values, the linear functions lacks behind, and the exponential one becomes very large.
4. I really don't know how to explain this, it's kind of confusing.
5. You can use the slope formula: (y2-y1)/(x2-x1). Plug in values, you get:
(12-8)/(4-2). This can be simplified to 4/2 or just 2. That's his average rate of change: 2 balls per day.
6. An arithmetic sequence adds on a specific value every time. For example: {1, 3, 5, 7...}
A Geometric sequence increases every time by a common ratio. For example: {2, 6, 18, 54...}
6. If it's relative to time, then you have a parametric equation dealing with time. Just like that, you can see that 1 variable changes with respect to the other, and that implies parametricity.
2. Graph is increasing, there's an asymptotic value, the domain is all real numbers, the range is y > 0. If you add a constant, you are shifting it vertically, which means it's y-intercept will change by the magnitude of the constant.
3. Linear functions are a straight line with one definite slope. Exponential functions are basically curves with their slopes, not constantly, but changing. As you increase your x-values, the linear functions lacks behind, and the exponential one becomes very large.
4. I really don't know how to explain this, it's kind of confusing.
5. You can use the slope formula: (y2-y1)/(x2-x1). Plug in values, you get:
(12-8)/(4-2). This can be simplified to 4/2 or just 2. That's his average rate of change: 2 balls per day.
6. An arithmetic sequence adds on a specific value every time. For example: {1, 3, 5, 7...}
A Geometric sequence increases every time by a common ratio. For example: {2, 6, 18, 54...}
6. If it's relative to time, then you have a parametric equation dealing with time. Just like that, you can see that 1 variable changes with respect to the other, and that implies parametricity.
Answer:
1) Every radical can be rewritten has an exponent 2) Domain, Range, Base, Â and Asymptote.
Step by Step Explanation:
1) As a matter of fact every radical, is a number or an expression with a rational exponent. Therefore, it is a equality relationship, like this:
If √a=[tex]a^{\frac{1}{2}}[/tex]   then  [tex]\sqrt[3]{a^{2} }[/tex]=1^(2/3)
That is the procedure: the radicand is the base; the numerator is the exponent to that radicand is raised to. In addition, the denominator is the index of the root. Â
2) Since the Exponential Function has this form:
[tex]f(x)=c^{ax+b}+k[/tex]
We can algebraically see that there is no restriction to the Domain, since the x can assume any value. And the function is a continuous one.
[tex]y=c^{x}\\ Â c^x=?\\ D={...,c^{-1} =(\frac{1}{c}),\\c^0=1,\\ c^1=c, ...}[/tex]
As for the Range
Since the base must always be greater than 0 and 1, considering an exponential form in this way:
[tex]f(x)=c^{ax+b}+k[/tex] like y=[tex]c^{x}[/tex] since k=0 y must always be greater than zero, therefore y >0
Base
We cannot have a power which its base is 0, since any value for x would result in the same result for y.
[tex]y=0^0, 0^1=0, 0^2=0,0^3=0[/tex]
Similarly we cannot have a base as 1, since 1^0=1,1^1=1 What  would give us not an exponential function.
Asymptote
The asymptote is given by the constant k, [tex]f(x)=c^{ax+b}+k[/tex], whether it is zero or any other value.
y=k for (Horizontal) Asymptote
Whenever we add a positive constant or subtract a constant It happens like in that picture below.
3) By the increasing or decreasing rate since, among the polynomial ones the exponential has the quickest growth. Check it out.
4) This is visually explained
5) In order to obtain a simplified radical of that square root, the Prime Factors  must be choosen. The Greatest Perfect is aimed for those cases in which we want the value in decimal form.
6) Let us call our Domain (d) Days and Range as (Points).
So Â
Days(d) Points (P)
2 Â Â Â Â Â Â Â Â Â 4
4 Â Â Â Â Â Â Â 12
We can measure this rate of change, by calculating the angular coefficient Â
[tex]m=\frac{P_{2}-P_{1}}{D_{2}-D{1}}[/tex]
Plugging in the Values
[tex]m=\frac{12-4}{4-2} =4[/tex]
7) An Arithmetic Sequence is a Sequence that increases, decreases, or even maintain itself at linear rate and a Geometric Sequence increases, decreases, or even may maintain itself exponentially
A ={10,12,14,16,…}
G={10,100,1000,10000,…}
8) Through observation, of patterns and changing whether it is a fast changing or even constant. We can derive parameters of functions from their context, time, and others