Answer:
(about) 11.18034
Step-by-step explanation:
Use the distance formula to find the distance:
d = sqr (x2 - x1) + (y2 - y1)
Fill in the variables with what you know:
d = sqr ((6 - (-4)) + (2 - (-3)))
(Honestly it doesn't matter what order you put the x and y, as long as x2 and y2 make up the coordinates of one point and x1 and y1 make up the coordinates of the other)
= sqr ((6 + 4)^2 + (2 +3)^2)
= sqr ((10)^2 + (5)^2)
= sqr (100 + 25)
= sqr (125)
= (about) 11.1803
Answer: It will take 11.56 hours .
Step-by-step explanation:
Exponential growth in population or size formula :
, where = initial size
r= rate of growth
t= time period
As per given , we have
grams
At t= 1 , P(t)= 11 grams
Then,
When, the bacteria have tripled in size , P(t) = 3 x10 = 30
Then,
Hence, it will take 11.56 hours .
For (-6, 0): -6 + 3(0) = -6 + 0 = -6 ≥ -8 [true]
For (-1, -2): -1 + 3(-2) = -1 - 6 = -7 ≥ -8 [true]
For (0, -3): 0 + 3(-3) = 0 - 9 = -9 ≤ -8 [false]
For (-5, -1): -5 + 3(-1) = -5 - 3 = -8 ≥ -8 [true]
For (-16, 2): -16 + 3(2) = -16 + 6 = -10 ≤ -8 [false]
Therefore, options A, B and C satisfy the inequality.
1: million
2: hundred thousand
3: ten thousand
5: Thousands
0: hundreds
1: tens
2: ones
It would be 7*6*5*4*3*2*1 divided by 3*2*1. So just put that in your calculator/work it out and you'll have your answer.