Answer: a. This line's slope-intercept equation: y=-9.7x+417.1
b. 31 minutes after the experiment started, there would be <u>116.4</u> grams of gas left.
c. If a linear model continues to be accurate,<u>43 </u>minutes since the experiment started, all gas in the container will be gone.
Step-by-step explanation:
Linear equation: y=mx+c (slope-intercept equation)
, where m= rate of change in y with respect to change in x , c= Initial value.
Let y= Mass of remaining gas after x minutes.
m= -9.7 (given)
At x= 8, y=339.5
Thus,

a. This line's slope-intercept equation: y=-9.7x+417.1
b. At x= 31 minutes
y=-9.7(31)+417.1
⇒ y=-300.7+417.1
⇒ y=116.4
31 minutes after the experiment started, there would be <u>116.4</u> grams of gas left.
c. Put y=0, we get

If a linear model continues to be accurate,<u>43 </u>minutes since the experiment started, all gas in the container will be gone.
In this case
P= $2500 , r= 3% , t= 4
A= 2500 × e0.03×4
A= $2819
Answer:
Subtract 4 from both sides
Step-by-step explanation:
Subtracting 4 from both sides isolates the variable and is the fastest way to solve the equation, which results in x > -12.
Answer:
∠P = 65°
Step-by-step explanation:
The measure of arcs LP and PY are given as 80° and 150°, so their sum is 230°. Arc LY completes the circle of 360°, so is 130°. Inscribed angle P is half that measure, so ...
∠P = 130°/2 = 65°.
68 is the mode of the data set.