12/5
7/16
4/11
Answer:
Thanks for asking!
Step-by-step explanation:
The answer would be 4/11. 3/20 in decimal form is 0.15. 12/5 is 2.4. 7/16 is 0.4375. 4/11 is 0.36 repeating.
Answer:
4/11
Step-by-step explanation:
=0.363636....
10h
100 + h
90h
The algebraic expression that represents the overall rate for a day's tent rental from Tom's Tent Rental, considering both the flat rate and the hourly charges, is '100 + 10h'.
To solve the problem, we need to express the situation in algebraic form. In this case, Tom's Tent Rental charges a flat rate of $100 per day, so we have '100'. Additionally, it costs $10 for each hour the tent is used. If we denote the number of hours as 'h', then the charge for the hours used would be '10h'.
Therefore, the total cost or the algebraic expression representing the overall rate for the day, considering both the flat rate and the hourly charges would be '100 + 10h'.
#SPJ11
Answer:
46uusuhdhuduhsbsu7sheheususysyw7wuwuw
Answer:
x=12
Step-by-step explanation:
70+50= 120
180-120= 60
60/5=12
Professor Jones Professor Smith
A 3 9
B 11 12
C 14 8
D 9 4
F 8 4
B. What are the conditions required to use this test? Have the conditions been satisfied? Explain.
2) 21,23,36,37,44,48,50
3) 10,19,22,23,23,29,44
4) 42,47,49,50,52,59,60
The aphelion is the point in the planet’s orbit that is furthest from the Sun. So, it is the endpoint of the major axis that is furthest from the Sun.
The closest Mercury comes to the Sun is about 46 million miles. The farthest Mercury travels from the Sun is about 70 million miles.
1. What is the distance between the perihelion and the aphelion?
2. What is the distance from the center of Mercury’s elliptical orbit and the Sun?
3. Write the equation of the elliptical orbit of Mercury, where the major axis runs horizontally. Allow a and b to be measured in millions of miles. Use the origin as the center of the
Answer:
(1) 83.764 million miles
(2) 52.766 million miles
(3)
Step-by-step explanation:
Let the origin C(0,0) be the center of the elliptical path as shown in the figure, where the location of the sun is at one of the two foci, say f.
The standard equation of the ellipse having the center at the origin is
where and are the semi-axes of the ellipse along the x-axis and y-axis respectively.
Let the points P and A represent the points of perihelion (nearest to the sun) and the aphelion (farthest to the sun) of the closest planet Mercury.
Given that,
CP=46 million miles and
CA=70 million miles.
So, is the semi-minor axis and is the semi-major axis.
Let the distances on the axes are in millions of miles. So, the coordinates of the point P and A are and respectively.
(1) From the distance formula, the distance between the perihelion and the aphelion is
million miles.
(2) Location of the Sun is at focus, , of the elliptical path.
From the standard relation, the distance of the focus from the center of the ellipse, c, is
where and are the semi-major axis and the eccentricity of the ellipse.
The eccentricity of the ellipse is
.
Hence, from the equation (i) the distance of the Sun from the center of the elliptical path of the Mercury is
million miles.
(3) From the equation (i), the equation of the elliptical orbit of Mercury is