1. Check the picture attached. Consider the half of the 8-sided die, that is the pyramid ABCDE:
2. The perimeter of the base is 6, so each side of the base is 6/4=3/2
3. The distance between the tallest points is 2 cm, si the height of Pyramid ABCDE is 1 cm.
4. Consider the right triangle EOM in the figure:
EO=1, OM= 3/4 (it is half of AB=3/2) and EM is the hypothenuse, so by the pythagorean theorem length of EM is

(cm)
5. So side EBC has area

6. The total area is 8*Area(EBC)=
The subject area of probability is actually expressed as a fraction or percentage because it represents a part of a whole. In lay man's term, probability is the scientific study of chance, likeliness and odds of an event happening. For example, you want to find the odds of getting a heads in a toss of the coin. You know that there are 2 possible results: head and tails. So, the probability of getting a head is 1/2 or 50%. Since it is a part of a whole, the probability in fraction should never be an improper fraction. This is the type of fraction in which the numerator is greater than the denominator. This is impossible as a probability because it will never exceed 1.
You have to use PEMDAS, it stands for parenthesis, exponents, multiplication, division, addition, and subtraction. So first you have to subtract the numbers in the parenthesis which is -3.5 (9/18=1/2). Since there are no exponents or multiplying or dividing, we skip those. Now, we do 5-1/3 and we get 4 2/3. Lastly, add 4 2/3 and -3.5(which is equal to -3 1/2). We get 2 1/6=13/6=1.166666667
I hope this helps!
Answer:
q
Step-by-step explanation:
Recall a few known results involving the Laplace transform. Given a function

, if the transform exists, then denote it by

. We have



Let's put all this together by taking the transform of both sides of the ODE:


Here we use the third fact and immediately compute the transform of the right hand side (I'll leave that up to you).
Now we invoke the first listed fact:

Let

. From the second fact, we get

From the first fact, we get

so we're left with

To summarize, taking the Laplace transform of both sides of the ODE yields

Isolating

gives


All that's left is to take the inverse transform. I'll leave that to you as well. You should end up with something resembling