
(a)
To calculate: The exact value of function
(a)

Answer to Problem 116E
The value
Explanation of Solution
Given:
The functions
Formula Used:
Use the property
Use another property
Calculation:
Substitute the values of
Substitute
By the trigonometric property
Substitute
And,
Now substitute
Now substitute the values in the formula.
Therefore the value
(b)
To calculate: The exact value of function
(b)

Answer to Problem 116E
The value
Explanation of Solution
Given:
The functions
Formula Used:
Use the property
Use another property
Calculation:
Substitute the values of
Substitute
By the trigonometric property
Substitute
And,
Now substitute
Now substitute the values in the formula.
Therefore the value
(c)
To calculate: The exact value of function
(c)

Answer to Problem 116E
The value
Explanation of Solution
Given:
The functions
Formula Used:
Use the value of
Use another property
Calculation:
Substitute the value
Substitute
By the trigonometric property
Substitute
Now substitute
Now substitute
Therefore the value
(d)
To calculate: The exact value of function
(d)

Answer to Problem 116E
The value
Explanation of Solution
Given:
The functions
Formula Used:
Use the property
Use the property
Calculation:
Substitute the value
Substitute
By the trigonometric property
Substitute
And,
Now substitute
Now substitute the above values in the formula
Therefore the value
(e)
To calculate: The exact value of function
(e)

Answer to Problem 116E
The value
Explanation of Solution
Given:
The functions
Formula Used:
Firstly calculate the angle
Use the property
Calculation:
As
Substitute the value
By the trigonometric property
Substitute
Now substitute
Therefore value
(f)
To calculate: The exact value of function
(f)

Answer to Problem 116E
The value
Explanation of Solution
Given:
The functions
Formula Used:
Use the property
Use the property
Calculation:
As by the property of even function
Substitute
By the trigonometric property
Substitute
Now substitute
Substitute
Therefore the value of
Chapter 4 Solutions
Precalculus with Limits: A Graphing Approach
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- Problem 11 (a) A tank is discharging water through an orifice at a depth of T meter below the surface of the water whose area is A m². The following are the values of a for the corresponding values of A: A 1.257 1.390 x 1.50 1.65 1.520 1.650 1.809 1.962 2.123 2.295 2.462|2.650 1.80 1.95 2.10 2.25 2.40 2.55 2.70 2.85 Using the formula -3.0 (0.018)T = dx. calculate T, the time in seconds for the level of the water to drop from 3.0 m to 1.5 m above the orifice. (b) The velocity of a train which starts from rest is given by the fol- lowing table, the time being reckoned in minutes from the start and the speed in km/hour: | † (minutes) |2|4 6 8 10 12 14 16 18 20 v (km/hr) 16 28.8 40 46.4 51.2 32.0 17.6 8 3.2 0 Estimate approximately the total distance ran in 20 minutes.arrow_forwardX Solve numerically: = 0,95 In xarrow_forwardX Solve numerically: = 0,95 In xarrow_forward
- Please as many detarrow_forward8–23. Sketching vector fields Sketch the following vector fieldsarrow_forward25-30. Normal and tangential components For the vector field F and curve C, complete the following: a. Determine the points (if any) along the curve C at which the vector field F is tangent to C. b. Determine the points (if any) along the curve C at which the vector field F is normal to C. c. Sketch C and a few representative vectors of F on C. 25. F = (2½³, 0); c = {(x, y); y − x² = 1} 26. F = x (23 - 212) ; C = {(x, y); y = x² = 1}) , 2 27. F(x, y); C = {(x, y): x² + y² = 4} 28. F = (y, x); C = {(x, y): x² + y² = 1} 29. F = (x, y); C = 30. F = (y, x); C = {(x, y): x = 1} {(x, y): x² + y² = 1}arrow_forward
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