Answer:
The amount of water he should pour in ounces(that is the only units the cup measures) is 16 + 4 = 20 ounces
Step-by-step explanation:
He is told to dissolve a medicine he has in 1 pint 4 ounces of water . He has a measuring cup marked in ounces .This means he can only measure the water quantity in ounces.
He definitely have to convert the pints to ounces.
1 pint = 16 ounces
Recall he has to dissolve the medicine in 1 pint 4 ounces of water.
Since 1 pint is equals to 16 ounces therefore, 16 ounces + 4 ounces = 20 ounces.
The amount of water he should pour in ounces(that is the only units the cup measures) is 16 + 4 = 20 ounces
Answer:
y= 1/2 (2)x
Step-by-step explanation:
:D I hope this is right! sorry if its not ; )
What is the slope of the line?
What is the y-intercept?
Answer:
the slope of the line is , and the y-intercept occurs at y = -6 (0, -6) on the plane
Step-by-step explanation:
In order to find the slope and y-intercept, we need to solve for y in the equation, and look at the coefficient accompanying the term in "x" (the slope), and at the pure numerical term (y-intercept):
Therefore the slope of the line is , and the y-intercept occurs at y = -6 (0, -6) on the plane
a. What is/are the critical point(s) and domain endpoint(s) where f' is undefined?
b. What is/are the critical point(s) and domain endpoint(s) where f' is 0?
c. From the critical point(s) and domain endpoint(s), what is/are the points corresponding to local maxima?
d. From the critical point(s) and domain endpoint(s), what is/are the points corresponding to local minima?
Answer:
a), b), , c), d)
Step-by-step explanation:
a) Let derive the function:
is undefined when denominator equates to zero. The critical point is:
b) when numerator equates to zero. That is:
This equation shows two critical points:
,
c) The critical points found in point b) and the existence of a discontinuity in point a) lead to the conclusion of the existence local minima and maxima. By plotting the function, it is evident that corresponds to a local maximum. (See Attachment)
d) By plotting the function, it is evident that corresponds to a local minimum. (See Attachment)
Answer:
-164
Step-by-step explanation:
(2 - (- 2)²)² +5 · ( -4)
(2 + 2²) ² +5 · ( -4)
(2 + 2 + 2)² +5 · ( -4)
6² +5 · ( -4)
6 · 6 + 5 · -4
36 + 5 · -4
41 · -4
-164
Hope this helped!
Have a supercalifragilisticexpialidocious day!
Answer:
1 and 1 on edg 2020
Step-by-step explanation:
just did the assignment
next question : Find the following determinant by hand.
answer is : 1
Next question : In mathematics, a pattern may suggest a conclusion, but it is not proof of it. Next you will prove that the determinant of a rotation matrix (CCW about the origin) must be 1. Luckily, there is the general rotation matrix you can use.
Answer : cos^2x + sin^2x
Next question : Using trigonometric identities, this can be simplified to
Answer : 1
Answer:
Step-by-step explanation:
Using both the rotation matrices earlier in this lesson and your matrix calculator, find each determinant.: 1 and 1
next question : Find the following determinant by hand.
answer is : 1
Next question : In mathematics, a pattern may suggest a conclusion, but it is not proof of it. Next you will prove that the determinant of a rotation matrix (CCW about the origin) must be 1. Luckily, there is the general rotation matrix you can use.
Answer : cos^2x + sin^2x
Next question : Using trigonometric identities, this can be simplified to
Answer : 1
/next question: In the lesson, you used the following matrices to create reflections
Answer: All these reflections resulted in CONGRUENT figures.
next question: Find the determinant of each of these: answer: - 1
next question: A • At =
a b
c d
where At is the transform of A. answer: a=1 b=0 c=0 d=1
next question: Repeat this process for the other three matrices. The product of a reflection matrix and its transpose is the identity matrix
Choose the correct choice for the matrix after applying the transformation to the triangle: A
The resulting matrix creates an image that is to the original triangle.: not similar
Find the determinant of the rotation matrix.
Det R = 1 which matches the determinant for our other translation matricies
Find the product of the matrix and its transpose: R·Rt is none of the above
1) (0,5) and (1,6)
2) (0,5) and (-1,0)
3) (2.9) and (-1,4)
4) (-2,9) and (-1.4)