Let's solve your equation step-by-step. x2+5x−6=0
Step 1: Factor left side of equation. (x−1)(x+6)=0
Step 2: Set factors equal to 0. x−1=0 or x+6=0
x=1 or x=−6
a person in the United States at birth is about 29,200 days. Estimate the total amount of
air a person born in the United States breathes over a lifetime.
Answer:
2.53×10^8 liters
Step-by-step explanation:
(8.65×10^3 L/da)(0.292×10^5 da) ≈ 2.53×10^8 L
The total amount of air a person born in the United States breathes over a lifetime is estimated to be 2.52 x 10^8 liters. This is calculated by multiplying the daily air intake (8.64 x 10^3 liters) with the average life expectancy in days (29,200 days).
To estimate the total amount of air a person born in the United States breathes over a lifetime, we can simply multiply the amount of air breathed daily by the expected length of life in days. Here's how it works:
So, 8.64 x 10^3 liters/day x 29,200 days = 2.52 x 10^8 liters.
Therefore, a person born in the United States breathes an estimated 2.52 x 10^8 liters of air over a lifetime.
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Answer:
Can I see the graph?
Step-by-step explanation:
A. $1,515
B. $1,254
C. $866
D. $1,370
x
The total cost to be paid in move-in costs for the two-bedroom Hometown Apartment is $1370
An equation is an expression that shows the relationship between two or more numbers and variables.
The total cost of moving in is given by:
Total cost = (2 * 515) + 185 + (0.3 * 515) = 1369.5
The total cost to be paid in move-in costs for the two-bedroom Hometown Apartment is $1370
Find out more on equation at: brainly.com/question/2972832
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Answer:
The function f(x) has the greatest y-intercept. Option 1 is correct.
Step-by-step explanation:
The first function is
Substitute x=0 in the given function, to find the y-intercept.
The y-intercept of f(x) is 5.
From the given graph it is clear that the y-intercept of g(x) is 2.
The third function is
Substitute x=0 in the given function, to find the y-intercept.
The y-intercept of h(x) is -2.
Therefore the function f(x) has the greatest y-intercept. Option 1 is correct.
The greatest y-intercept in a function refers to the function that intersects the y-axis at the highest point. We can determine this by checking the 'b' term in the equation y = mx + b.
To determine which function has the greatest y-intercept, you would need to examine the 'b' term in the equation y = mx + b, which represents the y-intercept. This is the point where the function intersects the y-axis. In other words, it's the y-value where the function begins. For example, within the information provided, 'ŷ-266.8863 + 0.1656x' seems to have the largest y-intercept at 266.8863.
Now consider having graphs of multiple functions; the one that intersects the y-axis at the highest point (the largest y-value) has the greatest y-intercept.
For straight lines, their slope remains the same along the line (as demonstrated in the mention of 'Figure A1 Slope and the Algebra of Straight Lines'). It's the y-intercept that determines where on the y-axis the line begins, helping us distinguish one line from another if their slopes are identical.
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This problem can be solved through simple arithmetic progression
Let
a1 = the first term of the sequence
a(n) = the nth term of the sequence
n = number of terms
d = common difference
Sn = sum of all terms
given
a1 = 12
a2 = 16
n = 10
d = 16 -12 = 4
@n = 10
a(n) = a1 + (n-1)d
a(10) = 12 + (9)4
a(10) = 48 seats
Sn = (n/2) * (a1 + a(10))
Sn = 5* (12 + 48)
Sn = 300 seats
Therefore the total number of seats is 300.