Given four functions, which one will have the smallest y-intercept? f(x) g(x) h(x) j(x) blake is tracking his savings account with an interest rate of 5% and a original deposit of $6. x g(x) 0 2 1 6 2 10 the function h of x equals 4 to the x power, plus 3 j(x) = 10(2)x

(Updated) g(x). I corrected my math and found out that I missadded g(x). I was explaining y-intercept was your starting point yet I didn't count the starting point for g(x), lol!

Step-by-step explanation:

Looking at the (x)'s, f(x) has a y-intercept of 6. Remember, your y intercept is what you are starting with. Moving on to the next one. g(x), if you do the math, the table goes up by 4. However this isn't the y-intercept. 0 is your starting point, so moving to the side, 2 is next to 0. This makes your y-intercept 2. In the next graph, h(x) (if you have the same one as me) the y-intercept is at 4. On a graph, the Y-intercept is where a point in your x axis meets your y-line. To find your Y-intercept, just go to a graph and mark wherever the line crosses with the y-line as a point. Next one, j(x).  Again, your y-intercept is your starting point. In this equation, your starting number is 10. A way to remember how to spot your y-intercept is this.

f(x) = a (b)^x

Your (x) is your plug in.

Your a is your y-intercept, or starting point.

Your b is your multiplier.

The x is usually the variable, but it can hold an exponet with it.

I'm sorry I'm late still. I understand I edited this so it might not be the best but I did try and correct myself. If there is anyway you can tell me if I'm right please do, again I'm not a math expert tho ^-^

it's both, now can you answer my most recent question?

the answer is: d) o, f, and kr.

atomic radius of bromine (br) is 114 pm.

atomic radius of oxygen (o) is 73 pm.

atomic radius of fluorine (f) is 72 pm.

atomic radius of krypron (kr) is 112 pm.

the atomic radius of a chemical element is a measure of the size of its atom.

the atomic radius varies with increasing atomic number, but usually increases because of increasing of number of electrons.

the atomic radius decreases across the periods because an increasing number of protons, because greater attraction between the protons and electrons.