Arnie Pizer Rochester Problem Library Fall 2005 WeBWorK assignment LimitsRates0Theory due 01/01/2006 at 02:00am EST.

Size: px
Start display at page:

Download "Arnie Pizer Rochester Problem Library Fall 2005 WeBWorK assignment LimitsRates0Theory due 01/01/2006 at 02:00am EST."

Transcription

1 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRates0Theory due 0/0/006 at 0:00am EST.. ( pt) rochesterlibrary/setlimitsrates0theory/c3sp.pg Enter a T or an F in each answer space below to indicate whether the corresponding statement is true or false. A good technique is to think of several examples, especially examples which might show that the statement is false!. For reference you can find some definitions here. You must get all of the answers correct to receive credit.. Every sequence which converges is either an increasing sequence or a decreasing sequence.. Every bounded sequence has an accumulation point. 3. Every bounded sequence converges to a it point. 4. The sequence of rational numbers 3., 3.4, 3.4, 3.459,... which approximates the ratio of the circumference of a circle and its diameter, has a rational number as its it point.. ( pt) rochesterlibrary/setlimitsrates0theory/c3sp.pg Enter a T or an F in each answer space below to indicate whether the corresponding statement is true or false. A good technique is to think of several examples, especially examples which might show that the statement is false! For reference you can find some definitions here. You must get all of the answers correct to receive credit.. Every differentiable function on the interval [3,5] must have a minimum.. Every differentiable function on the interval ( 4, 0] must have both a maximum and a minimum. 3. Every continuous function on the interval (0, ] must have both a maximum and a minimum. 4. Every function on the interval (0,) must have both a maximum and a minimum. 3. ( pt) rochesterlibrary/setlimitsrates0theory/c3sp3.pg Enter a T or an F in each answer space below to indicate whether the corresponding statement is true or false. A good technique is to think of several examples, especially examples which might show that the statement is false! For reference you can find some definitions here. You must get all of the answers correct to receive credit.. Every continuous function whose domain is a bounded, closed interval and which has a maximum value also has a minimum value.. If f (x) is a continuous function and the sequence f (a ), f (a ), f (a 3 ),... converges to a finite it, then the sequence a,a,a 3,... also converges to a it. 4. ( pt) rochesterlibrary/setlimitsrates0theory/c3sp4.pg Enter a T or an F in each answer space below to indicate whether the corresponding statement is true or false. A good technique is to think of several examples, especially examples which might show that the statement is false! For reference you can find some definitions here. You must get all of the answers correct to receive credit.. Every differentiable function whose domain is a bounded, closed interval and which has a maximum value also has a minimum value.. Every continuous function whose domain is a bounded, closed interval and which has a maximum value also has a minimum value. 3. Every continuous function is differentiable. 4. If a differentiable function has a maximum value then its domain must be a bounded, closed interval. 5. ( pt) rochesterlibrary/setlimitsrates0theory/c3sp5.pg Enter a T or an F in each answer space below to indicate whether the corresponding statement is true or false. A good technique is to think of several examples, especially examples which might show that the statement is false! For reference you can find some definitions here. You must get all of the answers correct to receive credit.. If f (x) is a continuous function and the sequence f (a ), f (a ), f (a 3 ),... converges to a finite it, then the sequence a,a,a 3,... also converges to a it.. Every differentiable function has a maximum value. 3. If a continuous function has a maximum value then it also has a minimum value. 4. If a continuous function f (x) has a maximum value on an interval then the function f (x) has a minimum on that same interval. 5. Every differentiable function is continuous. 6. If the linear approximation of a differentiable function is constant at a point a then the function could be increasing near the point a. 7. Every continuous function whose domain is a bounded, closed interval has a maximum value. 8. If the linear approximation of a differentiable function is decreasing at a point a then the function could be constant near the point a. Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester

2 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRatesTangentVelocity due 0/0/006 at 0:00pm EST.. ( pt) rochesterlibrary/setlimitsratestangentvelocity/ns 7 4.pg If the tangent line to y = f (x) at (-8, -7) passes through the point (-5, ), find A. f ( 8) = B. f ( 8) =. ( pt) rochesterlibrary/setlimitsratestangentvelocity/s.pg The point P(,3) lies on the curve y = x + x + 7. If Q is the point (x,x + x + 7), find the slope of the secant line PQ for the following values of x. If x =., the slope of PQ is: and if x =.0, the slope of PQ is: and if x =.9, the slope of PQ is: and if x =.99, the slope of PQ is: Based on the above results, guess the slope of the tangent line to the curve at P(,3). 3. ( pt) rochesterlibrary/setlimitsratestangentvelocity/s 3.pg The point P(5,7) lies on the curve y = x+. If Q is the point (x, x+), find the slope of the secant line PQ for the following values of x. If x = 5., the slope of PQ is: and if x = 5.0, the slope of PQ is: and if x = 4.9, the slope of PQ is: and if x = 4.99, the slope of PQ is: Based on the above results, guess the slope of the tangent line to the curve at P(5,7). 4. ( pt) rochesterlibrary/setlimitsratestangentvelocity/s 4.pg The point P(0.5,0) lies on the curve y = 5/x. If Q is the point (x,5/x), find the slope of the secant line PQ for the following values of x. If x = 0.6, the slope of PQ is: and if x = 0.5, the slope of PQ is: and if x = 0.4, the slope of PQ is: and if x = 0.49, the slope of PQ is: Based on the above results, guess the slope of the tangent line to the curve at P(0.5,0). 5. ( pt) rochesterlibrary/setlimitsratestangentvelocity/s 5.pg If a ball is thrown straight up into the air with an initial velocity of 70 ft/s, it height in feet after t second is given by y = 70t 6t. Find the average velocity for the time period begining when t = and lasting (i) 0. seconds (ii) 0.0 seconds (iii) 0.00 seconds Finally based on the above results, guess what the instantaneous velocity of the ball is when t =. 6. ( pt) rochesterlibrary/setlimitsratestangentvelocity/ns 5.pg A ball is thrown into the air by a baby alien on a planet in the system of Alpha Centauri with a velocity of 50 ft/s. Its height in feet after t seconds is given by y = 50t 5t. A. Find the average velocity for the time period beginning when t= and lasting.0 s:.005 s:.00 s:.00 s: NOTE: For the above answers, you may have to enter 6 or 7 significant digits if you are using a calculator. B. Estimate the instanteneous velocity when t=. 7. ( pt) rochesterlibrary/setlimitsratestangentvelocity/s a.pg The experimental data in the table below define y as a function of x. x y A. Let P be the point (3,.3). Find the slopes of the secant lines PQ when Q is the point of the graph with x coordinate x. x slope B. Draw the graph of the function for yourself and estimate the slope of the tangent line at P. 8. ( pt) rochesterlibrary/setlimitsratestangentvelocity- /ns 5a.pg Below is an oracle function. An oracle function is a function presented interactively. When you type in an t value, and press the f > button and the value f (t) appears in the right hand window. There are three lines, so you can easily calculate three different values of the function at one time. The function f(t) represents the height in feet of a ball thrown into the air, t seconds after it has been thrown. Calculate the velocity 0.8 seconds after the ball has been thrown. The velocity at 0.8 = You can use a calculator t f(t) Enter t result: f (t) Enter t result: f (t) Enter t result: f (t) Remember this technique for finding velocities. Later we will use the same method to find the derivative of functions such as f (t).

3 9. ( pt) rochesterlibrary/setlimitsratestangentvelocity/s 8.pg The position of a cat running from a dog down a dark alley is given by the values of the table. t(seconds) s(feet) A. Find the average velocity of the cat (ft/sec) for the time period beginning when t= and lasting a) 3 s b) s c) s B. Draw the graph of the function for yourself and estimate the instantaneous velocity of the cat (ft/sec) when t= Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester

4 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRates 5Graphs due 0/0/006 at 03:00pm EST.. ( pt) rochesterlibrary/setlimitsrates 5Graphs/ur lr -5.pg Let F be the function below. window. There are three lines, so you can easily calculate three different values of the function at one time. Determine the its for the function f at = x 0.63 f (0.63) = = x Are all of these values the same?: (Y or N). If so then the function is continuous at 0.63 Are the left and right its the same at 0.63?: (Y or N). If so then this function is almost continuous and could be made continuous by redefining one value of the function namely f (0.63). x f(x) Enter x result: f (x) Enter x result: f (x) Enter x result: f (x) 3. ( pt) rochesterlibrary/setlimitsrates 5Graphs/ur lr -5 3.pg Evaluate each of the following expressions. Note: Enter DNE if the it does not exist or is not defined. a) x F(x) = b) x + F(x) = c) x F(x) = d) F( ) = e) x F(x) = f) x + F(x) = g) x F(x) = h) x 3 F(x) = i) F(3) =. ( pt) rochesterlibrary/setlimitsrates 5Graphs/ur lr -5.pg Below is an oracle function. An oracle function is a function presented interactively. When you type in an x value, and press the f > button and the value f (x) appears in the right hand f(x) g(x) The graphs of f and g are given above. Use them to evaluate each quantity below. Write DNE if the it or value does not exist (or if it s infinity).. f (g(x))] x [. f (x)g(x)] x +[ 3. f (x)g(x)] x [ 4. f (g(x))] x +[ Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester

5 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRatesLimits due 0/0/006 at 0:00am EST.. ( pt) rochesterlibrary/setlimitsrateslimits/s 3.pg The slope of the tangent line to the graph of the function y = 5x 3 5x at the point (3,35) is 3 35 x 3 x 3. By trying values of x near 3, find the slope of the tangent line.. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 3.pg Evaluate the it x 7 (4x + 8)(7x + 8) 3. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 4.pg Evaluate the it 5(4x + 3)3 x 3 4. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 5.pg Evaluate the it x 4 x 4x 5x + 6. ( pt) rochesterlibrary/setlimitsrateslimits/s 3.pg Evaluate the it a 3 a a. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 7.pg Evaluate the it 5 t 5 t t 5 3. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 36.pg Evaluate the it b 8 b 8 b 8 5. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 6.pg Evaluate the it 8x 7x + 5 x 3 x 6 6. ( pt) rochesterlibrary/setlimitsrateslimits/s 3.pg Evaluate the it 5(y ) y 7y (y ) 3 7. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 6.pg Evaluate the it x + 7x + 7 x 9 x ( pt) rochesterlibrary/setlimitsrateslimits/s 3 7.pg Evaluate the it x + 0x + 00 x 0 x ( pt) rochesterlibrary/setlimitsrateslimits/s 3 8.pg Evaluate the it x 4 x 4 x + x 4 0. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 9.pg Evaluate the it x 3 x x x 4. ( pt) rochesterlibrary/setlimitsrateslimits/s 3 48.pg Evaluate the it s + 9 s 9 s ( pt) rochesterlibrary/setlimitsrateslimits/s 3 48a.pg Evaluate the its. If a it does not exist, enter DNE. x + 3 x 3 + x + 3 = x + 3 x 3 x + 3 = x 3 x + 3 x + 3 = 6. ( pt) rochesterlibrary/setlimitsrateslimits/ns x.pg Let x + 4 if x 4 f (x) = 4 if x > 4 Sketch the graph of this function for yourself and find following its if they exist (if not, enter DNE).. f (x) x 4. f (x) x f (x) x 4

6 7. ( pt) rochesterlibrary/setlimitsrateslimits/ns xx.pg Let 9 if x > 6 6 if x = 6 f (x) = x + 9 if 8 x < 6 7 if x < 8 Sketch the graph of this function and find following its if they exist (if not, enter DNE).. f (x) x 6. f (x) x f (x) x 6 4. f (x) x 8 5. f (x) x f (x) x 8 g(x) 4. x a f (x) g(x) 5. x a h(x) h(x) 6. x a g(x) 7. f (x) x a 8. f (x) x a 9. x a f (x) h(x) 0. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 0.pg 8. ( pt) rochesterlibrary/setlimitsrateslimits/ns 6.pg f(x) g(x) The graphs of f and g are given above. Use them to evaluate each quantity below. Write DNE if the it or value does not exist (or if it s infinity).. x 3 [ f (x) + g(x)]. x 3 +[ f (g(x))] 3. x [ f (x)g(x)] 4. f (3) + g(3). ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 0b.pg Determine the its for the function f at.69. x.69 f (x) = f (.69) = x.69 + f (x) = Is this function continuous at.69?: (Y or N) Can this function be made continuous by changing its value at.69?: (Y or N) 9. ( pt) rochesterlibrary/setlimitsrateslimits/ns 3.pg Let g(x) = 5, f (x) = 0, h(x) = 5. x a x a x a Find following its if they exist. If not, enter DNE ( does not exist ) as your answer.. g(x) + f (x) x a. g(x) f (x) x a 3. g(x) h(x) x a a f (x) x a DNE 0 f (x) DNE x a + f 3 0 g(x) DNE 0 0 x a g(x) 3 0 DNE x a + g Using the table above calcuate the its below. Enter DNE if the it doesn t exist OR if it can t be determined from the information given.. f (g(x))] x 3 +[. f (g(3)) 3. f (x)g(x)] x 3 [ 4. f (x)g(x)] x 3 +[

7 . ( pt) rochesterlibrary/setlimitsrateslimits/ns pg Evaluate x (x )4 ( 5x ). Enter the letters corresponding to the Limit Laws that you used to find this it: Limit Laws A. Constant Multiple Law B. Difference Law C. Power Law D. Product Law E. Quotient Law F. Root Law G. Sum Law If 3. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr.pg 9x f (x) x + 5x 8 determine x f (x) = What theorem did you use to arrive at your answer? 4. ( pt) rochesterlibrary/setlimitsrateslimits/ns 3 8.pg Use factoring to calculate this it a 4 b 4 a b a 5 b 5 If you want a hint, try doing this numerically for a couple of values of a and b. 5. ( pt) rochesterlibrary/setlimitsrateslimits/c0s5p.pg Enter the integer which is the apparent it of the following sequences or enter N if the sequence does not appear to have a it.. 3, 3, 3,.... the sequence generated by f (h) where h is a sequence of positive numbers approaching zero and f (x) = tan(x)/x. 3. the sequence generated by f (h) where h is a sequence of negative numbers approaching zero and f (x) = x + 3 if x is greater than or equal to 0 and f (x) = x 3 if x is less than zero. 4. the sequence generated by f (h) where h is a sequence of positive numbers approaching zero and f (x) = x + if x is greater than or equal to 0 and f (x) = x + if x is less than zero. 6. ( pt) rochesterlibrary/setlimitsrateslimits/c0s5p.pg What is the it of the sequence f (k) generated by the sequence k =,,3,4,5... when f (x) = (4.5x 35.5)(9.3x + 8.7) 4.3x 8.9? 7. ( pt) rochesterlibrary/setlimitsrateslimits/c0s5p6.pg Find an integer which is the it of cos(x) x 4 as x goes to 0. (Enter I for infinity or DNE for does not exist.) You should also try using identities to transform the expressions algebraically so that you can identify the its without using a calculator. 8. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 4.pg 6 x x, if x Let f (x) = x 3, if x > Calculate the following its. Enter 000 if the it does not exist. f (x) = f (x) = f (x) = x x + x 9. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 5.pg 4 x +, if x 5 Let f (x) =, if x = 5 3x + 7, if x > 5 Calculate the following its. Enter 000 if the it does not exist. f (x) = f (x) = f (x) = x 5 x 5 + x ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 6.pg 3 Let f (x) = x+, if x < x + 7, if x > Calculate the following its. Enter 000 if the it does not exist. f (x) = f (x) = f (x) = x x + x 3. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 7.pg Let f (x) = x 7x+6 x +5x 6. Calculate x f (x) by first finding a continuous function which is equal to f everywhere except x =. x f (x) = 3. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 8.pg Let f (x) = x+6 x x 5. Calculate f (x) by first finding a continuous function which x 3 is equal to f everywhere except x = 3. x 3 f (x) = 3

8 33. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 9.pg Let f = 64 b 8. b Calculate f by first finding a continuous function which b 64 is equal to f everywhere except b = 64. b 64 f = 34. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr.pg Let f (s) = s 6 s 6 Calculate s 6 f (s) by first finding a continuous function which is equal to f everywhere except s = 6. s 6 f (s) = 35. ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 3.pg The main theorem of Ste.3 tells us that many functions are continuous so that their its can be evaluated by direct substitution. Calculate the following its by direct substitution, making use of this big theorem from Ste.3. x 3 x3 4x 0 = ( t)(t + 5) t 5 3t 7 a 0 (a + 7) 4 a + = b 7 = y y3 (5 3y ) = 4 b + (b 4) = a 3a + 4 = a a ( pt) rochesterlibrary/setlimitsrateslimits/ur lr 4.pg Let f (t) = 6 t t Calculate t f (t) by first finding a continuous function which is equal to f everywhere except t =. t f (t) = Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester 4

9 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRates3Infinite due 0/03/006 at 0:00am EST.. ( pt) rochesterlibrary/setlimitsrates3infinite/s3 5.pg Evaluate the it 4 + 7x x 3 4x. ( pt) rochesterlibrary/setlimitsrates3infinite/s3 5 3.pg Evaluate the it x + 7 x 8x 9x ( pt) rochesterlibrary/setlimitsrates3infinite/s3 5 4.pg Evaluate the it 8x 3 6x x x 0 9x 8x 3 4. ( pt) rochesterlibrary/setlimitsrates3infinite/s3 5 4a.pg Evaluate the it 3x 3 + 5x 4x x 6x 3 5x + 5. ( pt) rochesterlibrary/setlimitsrates3infinite/s3 5 5.pg Evaluate the it (5 x)( + 6x) x (3 6x)(0 + 4x) 6. ( pt) rochesterlibrary/setlimitsrates3infinite/s3 5.pg Evaluate the it 3 + 7x x (0 + 0x) 7. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3.pg Evaluate x 4 9x 3 x 5x + 8. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3.pg Evaluate t 9 t t 8t ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 3.pg The vertical asymptote of the curve y = 3x3 x 6 is given by x =. The horizontal asymptotes of the curve 7x y = (x 4 + ) 4 is given by y = and y = (enter these two values in ascending order). 0. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 3vert.pg The vertical asymptote of the curve is given by x = y = 0x3 x 0. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 3horiz.pg The horizontal asymptotes of the curve are given by y = y = where y > y. and 7x y = (x 4 + ) 4. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 4.pg Evaluate x 3x + x x 3. ( pt) rochesterlibrary/setlimitsrates3infinite/ns xxx.pg Determine the infinite it of the following functions. Enter INF for and. x 3 + x 3. x 3 x 3 3. x 7 x (x + 7) 4. x 5 (x 5) 6

10 4. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 5.pg Evaluate the following its. If needed, enter INF for and x + 3x x = 8. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 9.pg Evaluate the following its. If needed, enter INF for and 6x 3 6x 6x x 7 3x 4x 3 = x 3x x = 6x 3 6x 6x 7 3x 4x 3 = 5. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 6.pg Evaluate the following its. 5 x e x + 6 = 5 e x + 6 = [NOTE: If needed, enter INF for and ] [HINT: Look at where the exponential fuction is going in the fraction. If you need a reminder, look up infinite its in Section.5 (in particular, see pg 38-39).] 6. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 7.pg Evaluate the following its. If needed, enter INF for and 3 + 3x x 3 x = 3 + 3x 3 x = 7. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 8.pg Evaluate the following its. If needed, enter INF for and 4x + 6 x x 7x + 7 4x + 6 x 7x ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 0.pg Evaluate the following its. If needed, enter INF for and (0 x)(5 + 9x) x (3 x)( + 6x) = (0 x)(5 + 9x) (3 x)( + 6x) = 0. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3.pg Evaluate the following its. If needed, enter INF for and 0 + 6x x 8 + x = 0 + 6x = 8 + x. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3.pg Evaluate the following its. If needed, enter INF for and x x 4 + 7x 3 0 3x = x 4 + 7x 3 0 3x =

11 . ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 3.pg Evaluate the following its. If needed, enter INF for and ( ) x 9x + x = x ( ) x 9x + x = 3. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 4.pg Evaluate the following its. If needed, enter INF for and ( 0x + 3x 3) = x ( 0x + 3x 3) = 4. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 5.pg A function is said to have a vertical asymptote wherever the it on the left or right (or both) is either positive or negative infinity. For example, the function f (x) = x+ has a vertical asymptote (x 7) at x = 7. For each of the following its, enter either P for positive infinity, N for negative infinity, or D when the it simply does not exist. x + x 7 (x 7) = x + x 7 + (x 7) = x + x 7 (x 7) = 5. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 6.pg A function is said to have a vertical asymptote wherever the it on the left or right (or both) is either positive or negative infinity. For example, the function f (x) = 3(x+4) has a vertical asymptote at x = x +x 8. For each of the following its, enter either P for positive infinity, N for negative infinity, or D when the it simply does not exist. 3(x + 4) x x + x 8 = 3(x + 4) x + x + x 8 = 3(x + 4) x x + x 8 = 6. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 7.pg A function is said to have a vertical asymptote wherever the it on the left or right (or both) is either positive or negative infinity. For example, the function f (x) = 5 has a vertical asymptote at x = x 3 (x+8) 4 8. For each of the following its, enter either P for positive infinity, N for negative infinity, or D when the it simply does not exist. 5 x 3 (x + 8) 4 = 5 x 3 (x + 8) 4 = 5 x 3 (x + 8) 4 = x 8 x 8 + x 8 7. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 8.pg A function is said to have a horizontal asymptote if either the it at infinity exists or the it at negative infinity exists. Show that each of the following functions has a horizontal asymptote by calculating the given it. 4x x 7 + x = 5x 4 x 3 + 4x 4 = x 7x 9 x 3 x = x + 3x x 9x = x + 3x 9x = 8. ( pt) rochesterlibrary/setlimitsrates3infinite/ur lr 3 9.pg A function is said to have a horizontal asymptote if either the it at infinity exists or the it at negative infinity exists. Show that each of the following functions has a horizontal asymptote by calculating the given it. 4 + x x x 7x + 4 = 5 9x + x + 9x + 5 (5x 6) = x + 6 x 5x 4 x 4 = x + x 9 x = x x + x 9 + x = Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester 3

12 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRates5Continuity due 0/05/006 at 0:00am EST.. ( pt) rochesterlibrary/setlimitsrates5continuity/s 5 37.pg For what value of the constant c is the function f continuous on (, ) where cx + if x (,9] f (x) = cx if x (9, ). ( pt) rochesterlibrary/setlimitsrates5continuity/s 5 38.pg For what value of the constant c is the function f continuous on (, ) where t c if t (,8) f (t) = ct + 7 if t [8, ) c = 3. ( pt) rochesterlibrary/setlimitsrates5continuity/csp3.pg Enter a letter and a number for each formula below so as to define a continuous function. The letter refers to the list of equations and the number is the value of the function f at. Letter Number (x )sin( x ) when x < sin(x ) x + when x < cos(xπ) x+ when x < x 3 x when x < A. x + 4 when x > sin(πx) B. x + when x > C. when x > cos(x ) D. when x > x 4. ( pt) rochesterlibrary/setlimitsrates5continuity/csp3a.pg Enter a letter and a number for each formula below so as to define a continuous function. The letter refers to the list of equations and the number is the value of the function f at. Letter Number sin(x ) x + when x < x 3 x when x < x x when x < cos(xπ) x+ when x < A. when x > x B. 4x+3 x when x > C. x + 4 when x > x D. x when x > 5. ( pt) rochesterlibrary/setlimitsrates5continuity/cs5p5.pg The function f is given by the formula when x < 3 and by the formula f (x) = 5x3 5x + 9x 7 x 3 f (x) = x 3x + a when 3 x. What value must be chosen for a in order to make this function continuous at 3? a = 6. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5.pg A function f (x) is said to have a removable discontinuity at x = a if:. f is either not defined or not continuous at x = a.. f could either be defined or redefined so that the new function IS continuous at x = a. Let f (x) = x +3x 44 x 4 Show that f (x) has a removable discontinuity at x = 4 and determine what value for f (4) would make f (x) continuous at x = 4. Must define f (4) =. 7. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5.pg A function f (x) is said to have a removable discontinuity at x = a if:. f is either not defined or not continuous at x = a.. f could either be defined or redefined so that the new function IS continuous at x = a. 3x + x+ x(x 4), if x 0,4 Let f (x) =, if x = 0 Show that f (x) has a removable discontinuity at x = 0 and determine what value for f (0) would make f (x) continuous at x = 0. Must redefine f (0) =. Hint: Try combining the fractions and simplifying. The discontinuity at x = 4 is actually NOT a removable discontinuity, just in case you were wondering. 8. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 3.pg A function f (x) is said to have a removable discontinuity at x = a if:. f is either not defined or not continuous at x = a.. f could either be defined or redefined so that the new function IS continuous at x = a.

13 x + x + 39, if x < 6 Let f (x) = 0, if x = 6 x x 33, if x > 6 Show that f (x) has a removable discontinuity at x = 6 and determine what value for f ( 6) would make f (x) continuous at x = 6. Must redefine f ( 6) =. Now for fun, try to graph f (x). It s just a couple of parabolas! 9. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 4.pg A function f (x) is said to have a jump discontinuity at x = a if:. f (x) exists. x a. f (x) exists. x a + 3. The left and right its are not equal. 5x 8, if x < 0 Let f (x) = 5 x+7, if x 0 Show that f (x) has a jump discontinuity at x = 0 by calculating the its from the left and right at x = 0. f (x) = x 0 f (x) = x 0 + Now for fun, try to graph f (x). 0. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 5.pg A function f (x) is said to have a jump discontinuity at x = a if:. f (x) exists. x a. f (x) exists. x a + 3. The left and right its are not equal. x + 4x + 3, if x < Let f (x) = 5, if x = x + 3, if x > Show that f (x) has a jump discontinuity at x = by calculating the its from the left and right at x =. f (x) = x f (x) = x + Now for fun, try to graph f (x).. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 6.pg 5x 6, if x 4 Let f (x) = 7x + b, if x > 4 If f (x) is a function which is continuous everywhere, then we must have b = Now for fun, try to graph f (x).. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 6b.pg mx 8, if x < 3 Let f (x) = x + x 5, if x 3 If f (x) is a function which is continuous everywhere, then we must have m = Now for fun, try to graph f (x). 3. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 7.pg x + b, if x < 5 Let f (x) = 50 x b, if x 5 There are exactly two values for b which make f (x) a continuous function at x = 5. The one with the greater absolute value is b = Now for fun, try to graph f (x). 4. ( pt) rochesterlibrary/setlimitsrates5continuity/ur lr 5 8.pg Find c such that the function x f (x) = 3, x c 6x, x > c is continuous everywhere. c = Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester

14 Arnie Pizer Rochester Problem Library Fall 005 WeBWorK assignment LimitsRates6Rates due 0/06/006 at 0:00am EST.. ( pt) rochesterlibrary/setlimitsrates6rates/s 6.pg The slope of the tangent line to the parabola y = x + 6x + 4 at the point (0,4) is: The equation of this tangent line can be written in the form y = mx + b where m is: and where b is:. ( pt) rochesterlibrary/setlimitsrates6rates/s 6.pg The slope of the tangent line to the curve y = 3x 3 at the point (, 3) is: The equation of this tangent line can be written in the form y = mx + b where m is: and where b is: 3. ( pt) rochesterlibrary/setlimitsrates6rates/s 6 3.pg The slope of the tangent line to the curve y = x at the point (,.884) is: The equation of this tangent line can be written in the form y = mx + b where m is: and where b is: 4. ( pt) rochesterlibrary/setlimitsrates6rates/s 6 4.pg The slope of the tangent line to the curve y = 3 x at the point (7,0.486) is: The equation of this tangent line can be written in the form y = mx + b where m is: and where b is: 5. ( pt) rochesterlibrary/setlimitsrates6rates/s 6 8.pg The slope of the tangent line to the parabola y = 4x 7x + 5 at the point where x = 0 is: The equation of this tangent line can be written in the form y = mx + b where m is: and where b is: 6. ( pt) rochesterlibrary/setlimitsrates6rates/s 6.pg If a rock is thrown into the air on small planet with a velocity of m/s, its height (in meters) after t seconds is given by y = t 4.9t. Find the velocity of the rock when t = ( pt) rochesterlibrary/setlimitsrates6rates/s 6.pg If an arrow is shot straight upward on the moon with a velocity of 79 m/s, its height (in meters) after t seconds is given by s(t) = 79t 0.83t. What is the velocity of the arrow (in m/s) after 6 seconds? After how many seconds will the arrow hit the moon? With what velocity (in m/s) will the arrow hit the moon? 8. ( pt) rochesterlibrary/setlimitsrates6rates/s 6 4.pg The displacement (in meters) of a particle moving in a straight line is given by s = t 3 where t is measured in seconds. Find the average velocity of the particle over the time interval [6, 9]. Find the (instantaneous) velocity of the particle when t = ( pt) rochesterlibrary/setlimitsrates6rates/csp.pg Let p(x) = 5.7x Use a calculator or a graphing program to find the slope of the tangent line to the point (x, p(x)) when x =.8. Give the answer to 3 places. 0. ( pt) rochesterlibrary/setlimitsrates6rates/ur lr 6.pg A rock is thrown off of a 00 foot cliff with an upward velocity of 35 m/s. As a result its height after t seconds is given by the formula: h(t) = t 5t What is its height after 4 seconds? What is its velocity after 4 seconds? (Positive velocity means it is on the way up, negative velocity means it is on the way down.). ( pt) rochesterlibrary/setlimitsrates6rates/ur lr 6.pg The following chart shows living wage jobs in Rochester per 000 working age adults over a 5 year period. Year Jobs What is the average rate of change in the number of living wage jobs from 997 to 999? Jobs/Year What is the average rate of change in the number of living wage jobs from 999 to 00? Jobs/Year Based on these two answers, should the mayor from the last two years be reelected? (These numbers are made up. Please do not actually hold the mayor accountable.) Generated by the WeBWorK system c WeBWorK Team, Department of Mathematics, University of Rochester

Assignment busshw1 due 10/15/2012 at 01:04pm EDT

Assignment busshw1 due 10/15/2012 at 01:04pm EDT Administrator Assignment busshw1 due 10/15/2012 at 01:04pm EDT math111 1. (1 pt) Library/Rochester/setVectors0Introduction/ur vc 0 2.pg If the distance from the town of Bree to Weathertop is 6 miles on

More information

3. (1 pt) pl/calculus and analytic geometry i/hmwk0/prob1b.pg

3. (1 pt) pl/calculus and analytic geometry i/hmwk0/prob1b.pg Professor Swift JSwift 36 WeBWorK assignment number 00 WeBWorK is due : 0/4/009 at 0:00am MST. The primary purpose of WeBWorK is to let you know that you are getting the correct answer or to alert you

More information

Tom Robbins WW Prob Lib2 Summer 2001

Tom Robbins WW Prob Lib2 Summer 2001 Tom Robbins WW Prob Lib Summer 00 WeBWorK assignment LogEp due 4//05 at :00 AM..( pt) Evaluate the following epressions. (a) log 7 7 (b) log 3 7 (c) log 4 04 (d) log 9 9 8.( pt) Evaluate the following

More information

WeBWorK demonstration assignment

WeBWorK demonstration assignment WeBWorK demonstration assignment.( pt) Match the statements defined below with the letters labeling their equivalent expressions. You must get all of the answers correct to receive credit.. x is less than

More information

Calculus I. 1. Limits and Continuity

Calculus I. 1. Limits and Continuity 2301107 Calculus I 1. Limits and Continuity Outline 1.1. Limits 1.1.1 Motivation:Tangent 1.1.2 Limit of a function 1.1.3 Limit laws 1.1.4 Mathematical definition of a it 1.1.5 Infinite it 1.1. Continuity

More information

2.1 The Tangent and Velocity Problems

2.1 The Tangent and Velocity Problems 2.1 The Tangent and Velocity Problems Ex: When you jump off a swing, where do you go? Ex: Can you approximate this line with another nearby? How would you get a better approximation? Ex: A cardiac monitor

More information

Chapter 2 NAME

Chapter 2 NAME QUIZ 1 Chapter NAME 1. Determine 15 - x + x by substitution. 1. xs3 (A) (B) 8 (C) 10 (D) 1 (E) 0 5-6x + x Find, if it exists. xs5 5 - x (A) -4 (B) 0 (C) 4 (D) 6 (E) Does not exist 3. For the function y

More information

This Week. Professor Christopher Hoffman Math 124

This Week. Professor Christopher Hoffman Math 124 This Week Sections 2.1-2.3,2.5,2.6 First homework due Tuesday night at 11:30 p.m. Average and instantaneous velocity worksheet Tuesday available at http://www.math.washington.edu/ m124/ (under week 2)

More information

Section 1.4 Tangents and Velocity

Section 1.4 Tangents and Velocity Math 132 Tangents and Velocity Section 1.4 Section 1.4 Tangents and Velocity Tangent Lines A tangent line to a curve is a line that just touches the curve. In terms of a circle, the definition is very

More information

Announcements. Topics: Homework:

Announcements. Topics: Homework: Topics: Announcements - section 2.6 (limits at infinity [skip Precise Definitions (middle of pg. 134 end of section)]) - sections 2.1 and 2.7 (rates of change, the derivative) - section 2.8 (the derivative

More information

Calculus I Exam 1 Review Fall 2016

Calculus I Exam 1 Review Fall 2016 Problem 1: Decide whether the following statements are true or false: (a) If f, g are differentiable, then d d x (f g) = f g. (b) If a function is continuous, then it is differentiable. (c) If a function

More information

U of U Math Online. Young-Seon Lee. WeBWorK set 1. due 1/21/03 at 11:00 AM. 6 4 and is perpendicular to the line 5x 3y 4 can

U of U Math Online. Young-Seon Lee. WeBWorK set 1. due 1/21/03 at 11:00 AM. 6 4 and is perpendicular to the line 5x 3y 4 can U of U Math 0-6 Online WeBWorK set. due //03 at :00 AM. The main purpose of this WeBWorK set is to familiarize yourself with WeBWorK. Here are some hints on how to use WeBWorK effectively: After first

More information

DRAFT - Math 101 Lecture Note - Dr. Said Algarni

DRAFT - Math 101 Lecture Note - Dr. Said Algarni 2 Limits 2.1 The Tangent Problems The word tangent is derived from the Latin word tangens, which means touching. A tangent line to a curve is a line that touches the curve and a secant line is a line that

More information

WeBWorK demonstration assignment

WeBWorK demonstration assignment WeBWorK demonstration assignment The main purpose of this WeBWorK set is to familiarize yourself with WeBWorK. Here are some hints on how to use WeBWorK effectively: After first logging into WeBWorK change

More information

2.1 The Tangent and Velocity Problems

2.1 The Tangent and Velocity Problems 2.1 The Tangent and Velocity Problems Tangents What is a tangent? Tangent lines and Secant lines Estimating slopes from discrete data: Example: 1. A tank holds 1000 gallons of water, which drains from

More information

= lim. (1 + h) 1 = lim. = lim. = lim = 1 2. lim

= lim. (1 + h) 1 = lim. = lim. = lim = 1 2. lim Math 50 Exam # Solutions. Evaluate the following its or explain why they don t exist. (a) + h. h 0 h Answer: Notice that both the numerator and the denominator are going to zero, so we need to think a

More information

9. (1 pt) Chap2/2 3.pg DO NOT USE THE DEFINITION OF DERIVATIVES!! If. find f (x).

9. (1 pt) Chap2/2 3.pg DO NOT USE THE DEFINITION OF DERIVATIVES!! If. find f (x). math0spring0-6 WeBWorK assignment number 3 is due : 03/04/0 at 0:00pm MST some kind of mistake Usually you can attempt a problem as many times as you want before the due date However, if you are help Don

More information

JANE PROFESSOR WW Prob Lib1 Summer 2000

JANE PROFESSOR WW Prob Lib1 Summer 2000 JANE PROFESSOR WW Prob Lib Summer 2000 Sample WeBWorK problems. WeBWorK assignment Derivatives due 2//06 at 2:00 AM..( pt) If f x 9, find f 0. 2.( pt) If f x 7x 27, find f 5. 3.( pt) If f x 7 4x 5x 2,

More information

3.1 Day 1: The Derivative of a Function

3.1 Day 1: The Derivative of a Function A P Calculus 3.1 Day 1: The Derivative of a Function I CAN DEFINE A DERIVATIVE AND UNDERSTAND ITS NOTATION. Last chapter we learned to find the slope of a tangent line to a point on a graph by using a

More information

Advanced Mathematics Unit 2 Limits and Continuity

Advanced Mathematics Unit 2 Limits and Continuity Advanced Mathematics 3208 Unit 2 Limits and Continuity NEED TO KNOW Expanding Expanding Expand the following: A) (a + b) 2 B) (a + b) 3 C) (a + b)4 Pascals Triangle: D) (x + 2) 4 E) (2x -3) 5 Random Factoring

More information

Advanced Mathematics Unit 2 Limits and Continuity

Advanced Mathematics Unit 2 Limits and Continuity Advanced Mathematics 3208 Unit 2 Limits and Continuity NEED TO KNOW Expanding Expanding Expand the following: A) (a + b) 2 B) (a + b) 3 C) (a + b)4 Pascals Triangle: D) (x + 2) 4 E) (2x -3) 5 Random Factoring

More information

MATH 113: ELEMENTARY CALCULUS

MATH 113: ELEMENTARY CALCULUS MATH 3: ELEMENTARY CALCULUS Please check www.ualberta.ca/ zhiyongz for notes updation! 6. Rates of Change and Limits A fundamental philosophical truth is that everything changes. In physics, the change

More information

Limits, Continuity, and the Derivative

Limits, Continuity, and the Derivative Unit #2 : Limits, Continuity, and the Derivative Goals: Study and define continuity Review limits Introduce the derivative as the limit of a difference quotient Discuss the derivative as a rate of change

More information

Blue Pelican Calculus First Semester

Blue Pelican Calculus First Semester Blue Pelican Calculus First Semester Student Version 1.01 Copyright 2011-2013 by Charles E. Cook; Refugio, Tx Edited by Jacob Cobb (All rights reserved) Calculus AP Syllabus (First Semester) Unit 1: Function

More information

rhe* v.tt 2.1 The Tangent and Velocity Problems Ex: When you jump off a swing, where do you go?

rhe* v.tt 2.1 The Tangent and Velocity Problems Ex: When you jump off a swing, where do you go? 2.1 The Tangent and Velocity Problems Ex: When you jump off a swing, where do you go? lf± # is.t *t, Ex: Can you approximate this line with another nearby? How would you get a better approximation? rhe*

More information

MATH 151 Engineering Mathematics I

MATH 151 Engineering Mathematics I MATH 151 Engineering Mathematics I Spring 2018, WEEK 3 JoungDong Kim Week 3 Section 2.5, 2.6, 2.7, Continuity, Limits at Infinity; Horizontal Asymptotes, Derivatives and Rates of Change. Section 2.5 Continuity

More information

Math 150 Midterm 1 Review Midterm 1 - Monday February 28

Math 150 Midterm 1 Review Midterm 1 - Monday February 28 Math 50 Midterm Review Midterm - Monday February 28 The midterm will cover up through section 2.2 as well as the little bit on inverse functions, exponents, and logarithms we included from chapter 5. Notes

More information

Calculus I Midterm Exam. eftp Summer B, July 17, 2008

Calculus I Midterm Exam. eftp Summer B, July 17, 2008 PRINT Name: Calculus I Midterm Exam eftp Summer B, 008 July 17, 008 General: This exam consists of two parts. A multiple choice section with 9 questions and a free response section with 7 questions. Directions:

More information

Math 1: Calculus with Algebra Midterm 2 Thursday, October 29. Circle your section number: 1 Freund 2 DeFord

Math 1: Calculus with Algebra Midterm 2 Thursday, October 29. Circle your section number: 1 Freund 2 DeFord Math 1: Calculus with Algebra Midterm 2 Thursday, October 29 Name: Circle your section number: 1 Freund 2 DeFord Please read the following instructions before starting the exam: This exam is closed book,

More information

MATH 1902: Mathematics for the Physical Sciences I

MATH 1902: Mathematics for the Physical Sciences I MATH 1902: Mathematics for the Physical Sciences I Dr Dana Mackey School of Mathematical Sciences Room A305 A Email: Dana.Mackey@dit.ie Dana Mackey (DIT) MATH 1902 1 / 46 Module content/assessment Functions

More information

2.4 Rates of Change and Tangent Lines Pages 87-93

2.4 Rates of Change and Tangent Lines Pages 87-93 2.4 Rates of Change and Tangent Lines Pages 87-93 Average rate of change the amount of change divided by the time it takes. EXAMPLE 1 Finding Average Rate of Change Page 87 Find the average rate of change

More information

Pre-Calculus Section 12.4: Tangent Lines and Derivatives 1. Determine the interval on which the function in the graph below is decreasing.

Pre-Calculus Section 12.4: Tangent Lines and Derivatives 1. Determine the interval on which the function in the graph below is decreasing. Pre-Calculus Section 12.4: Tangent Lines and Derivatives 1. Determine the interval on which the function in the graph below is decreasing. Determine the average rate of change for the function between

More information

6.2 Their Derivatives

6.2 Their Derivatives Exponential Functions and 6.2 Their Derivatives Copyright Cengage Learning. All rights reserved. Exponential Functions and Their Derivatives The function f(x) = 2 x is called an exponential function because

More information

Calculus I Sample Exam #01

Calculus I Sample Exam #01 Calculus I Sample Exam #01 1. Sketch the graph of the function and define the domain and range. 1 a) f( x) 3 b) g( x) x 1 x c) hx ( ) x x 1 5x6 d) jx ( ) x x x 3 6 . Evaluate the following. a) 5 sin 6

More information

Chapter 1 Functions and Limits

Chapter 1 Functions and Limits Contents Chapter 1 Functions and Limits Motivation to Chapter 1 2 4 Tangent and Velocity Problems 3 4.1 VIDEO - Secant Lines, Average Rate of Change, and Applications......................... 3 4.2 VIDEO

More information

Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes

Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes Infinite

More information

Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes

Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes Sec 2.2: Infinite Limits / Vertical Asymptotes Sec 2.6: Limits At Infinity / Horizontal Asymptotes Infinite

More information

AP Calculus Summer Prep

AP Calculus Summer Prep AP Calculus Summer Prep Topics from Algebra and Pre-Calculus (Solutions are on the Answer Key on the Last Pages) The purpose of this packet is to give you a review of basic skills. You are asked to have

More information

MAT137 Calculus! Lecture 5

MAT137 Calculus! Lecture 5 MAT137 Calculus! Lecture 5 Today: 2.5 The Pinching Theorem; 2.5 Trigonometric Limits. 2.6 Two Basic Theorems. 3.1 The Derivative Next: 3.2-3.6 DIfferentiation Rules Deadline to notify us if you have a

More information

Unit IV Derivatives 20 Hours Finish by Christmas

Unit IV Derivatives 20 Hours Finish by Christmas Unit IV Derivatives 20 Hours Finish by Christmas Calculus There two main streams of Calculus: Differentiation Integration Differentiation is used to find the rate of change of variables relative to one

More information

Unit IV Derivatives 20 Hours Finish by Christmas

Unit IV Derivatives 20 Hours Finish by Christmas Unit IV Derivatives 20 Hours Finish by Christmas Calculus There two main streams of Calculus: Differentiation Integration Differentiation is used to find the rate of change of variables relative to one

More information

Chapter 3: Derivatives

Chapter 3: Derivatives Name: Date: Period: AP Calc AB Mr. Mellina Chapter 3: Derivatives Sections: v 2.4 Rates of Change & Tangent Lines v 3.1 Derivative of a Function v 3.2 Differentiability v 3.3 Rules for Differentiation

More information

Chapter 1/3 Rational Inequalities and Rates of Change

Chapter 1/3 Rational Inequalities and Rates of Change Chapter 1/3 Rational Inequalities and Rates of Change Lesson Package MHF4U Chapter 1/3 Outline Unit Goal: By the end of this unit, you will be able to solve rational equations and inequalities algebraically.

More information

GUIDED NOTES 5.6 RATIONAL FUNCTIONS

GUIDED NOTES 5.6 RATIONAL FUNCTIONS GUIDED NOTES 5.6 RATIONAL FUNCTIONS LEARNING OBJECTIVES In this section, you will: Use arrow notation. Solve applied problems involving rational functions. Find the domains of rational functions. Identify

More information

Chapter 2. Limits and Continuity. 2.1 Rates of change and Tangents to Curves. The average Rate of change of y = f(x) with respect to x over the

Chapter 2. Limits and Continuity. 2.1 Rates of change and Tangents to Curves. The average Rate of change of y = f(x) with respect to x over the Chapter 2 Limits and Continuity 2.1 Rates of change and Tangents to Curves Definition 2.1.1 : interval [x 1, x 2 ] is The average Rate of change of y = f(x) with respect to x over the y x = f(x 2) f(x

More information

March 5, 2009 Name The problems count as marked. The total number of points available is 131. Throughout this test, show your work.

March 5, 2009 Name The problems count as marked. The total number of points available is 131. Throughout this test, show your work. March 5, 2009 Name The problems count as marked. The total number of points available is 131. Throughout this test, show your work. 1. (12 points) Consider the cubic curve f(x) = 2x 3 + 3x + 2. (a) What

More information

Chapter 2: Functions, Limits and Continuity

Chapter 2: Functions, Limits and Continuity Chapter 2: Functions, Limits and Continuity Functions Limits Continuity Chapter 2: Functions, Limits and Continuity 1 Functions Functions are the major tools for describing the real world in mathematical

More information

One of the powerful themes in trigonometry is that the entire subject emanates from a very simple idea: locating a point on the unit circle.

One of the powerful themes in trigonometry is that the entire subject emanates from a very simple idea: locating a point on the unit circle. 2.24 Tanz and the Reciprocals Derivatives of Other Trigonometric Functions One of the powerful themes in trigonometry is that the entire subject emanates from a very simple idea: locating a point on the

More information

ter. on Can we get a still better result? Yes, by making the rectangles still smaller. As we make the rectangles smaller and smaller, the

ter. on Can we get a still better result? Yes, by making the rectangles still smaller. As we make the rectangles smaller and smaller, the Area and Tangent Problem Calculus is motivated by two main problems. The first is the area problem. It is a well known result that the area of a rectangle with length l and width w is given by A = wl.

More information

CH 2: Limits and Derivatives

CH 2: Limits and Derivatives 2 The tangent and velocity problems CH 2: Limits and Derivatives the tangent line to a curve at a point P, is the line that has the same slope as the curve at that point P, ie the slope of the tangent

More information

Math 106 Calculus 1 Topics for first exam

Math 106 Calculus 1 Topics for first exam Chapter 2: Limits and Continuity Rates of change and its: Math 06 Calculus Topics for first exam Limit of a function f at a point a = the value the function should take at the point = the value that the

More information

Math Summer Peter Alfeld. WeBWorK assignment number 1. due 9/6/06 at 11:59 PM.

Math Summer Peter Alfeld. WeBWorK assignment number 1. due 9/6/06 at 11:59 PM. Math 250-2 Summer 2004 Peter Alfeld. WeBWorK assignment number. due 9/6/06 at :59 PM. This first home work serves as an introduction to WeBWorK and as a review of some relevant precalculus topics, including:

More information

MATH 114 Calculus Notes on Chapter 2 (Limits) (pages 60-? in Stewart)

MATH 114 Calculus Notes on Chapter 2 (Limits) (pages 60-? in Stewart) Still under construction. MATH 114 Calculus Notes on Chapter 2 (Limits) (pages 60-? in Stewart) As seen in A Preview of Calculus, the concept of it underlies the various branches of calculus. Hence we

More information

2.1 Limits, Rates of Change and Slopes of Tangent Lines

2.1 Limits, Rates of Change and Slopes of Tangent Lines 2.1 Limits, Rates of Change and Slopes of Tangent Lines (1) Average rate of change of y f x over an interval x 0,x 1 : f x 1 f x 0 x 1 x 0 Instantaneous rate of change of f x at x x 0 : f x lim 1 f x 0

More information

WORKBOOK. MATH 31. CALCULUS AND ANALYTIC GEOMETRY I.

WORKBOOK. MATH 31. CALCULUS AND ANALYTIC GEOMETRY I. WORKBOOK. MATH 31. CALCULUS AND ANALYTIC GEOMETRY I. DEPARTMENT OF MATHEMATICS AND COMPUTER SCIENCE Contributors: U. N. Iyer and P. Laul. (Many problems have been directly taken from Single Variable Calculus,

More information

WeBWorK assignment 1. b. Find the slope of the line passing through the points (10,1) and (0,2). 4.(1 pt) Find the equation of the line passing

WeBWorK assignment 1. b. Find the slope of the line passing through the points (10,1) and (0,2). 4.(1 pt) Find the equation of the line passing WeBWorK assignment Thought of the day: It s not that I m so smart; it s just that I stay with problems longer. Albert Einstein.( pt) a. Find the slope of the line passing through the points (8,4) and (,8).

More information

Chapter 3A -- Rectangular Coordinate System

Chapter 3A -- Rectangular Coordinate System Fry Texas A&M University! Fall 2016! Math 150 Notes! Section 3A! Page61 Chapter 3A -- Rectangular Coordinate System A is any set of ordered pairs of real numbers. A relation can be finite: {(-3, 1), (-3,

More information

Chapter 3: The Derivative in Graphing and Applications

Chapter 3: The Derivative in Graphing and Applications Chapter 3: The Derivative in Graphing and Applications Summary: The main purpose of this chapter is to use the derivative as a tool to assist in the graphing of functions and for solving optimization problems.

More information

3.4 Solutions.notebook March 24, Horizontal Tangents

3.4 Solutions.notebook March 24, Horizontal Tangents Note Fix From 3.3 Horizontal Tangents Just for fun, sketch y = sin x and then sketch its derivative! What do you notice? More on this later 3.4 Velocity and Other Rates of Change A typical graph of the

More information

3. Go over old quizzes (there are blank copies on my website try timing yourself!)

3. Go over old quizzes (there are blank copies on my website try timing yourself!) final exam review General Information The time and location of the final exam are as follows: Date: Tuesday, June 12th Time: 10:15am-12:15pm Location: Straub 254 The exam will be cumulative; that is, it

More information

Review for Chapter 2 Test

Review for Chapter 2 Test Review for Chapter 2 Test This test will cover Chapter (sections 2.1-2.7) Know how to do the following: Use a graph of a function to find the limit (as well as left and right hand limits) Use a calculator

More information

Math 261 Calculus I. Test 1 Study Guide. Name. Decide whether the limit exists. If it exists, find its value. 1) lim x 1. f(x) 2) lim x -1/2 f(x)

Math 261 Calculus I. Test 1 Study Guide. Name. Decide whether the limit exists. If it exists, find its value. 1) lim x 1. f(x) 2) lim x -1/2 f(x) Math 261 Calculus I Test 1 Study Guide Name Decide whether the it exists. If it exists, find its value. 1) x 1 f(x) 2) x -1/2 f(x) Complete the table and use the result to find the indicated it. 3) If

More information

Section 3.7. Rolle s Theorem and the Mean Value Theorem

Section 3.7. Rolle s Theorem and the Mean Value Theorem Section.7 Rolle s Theorem and the Mean Value Theorem The two theorems which are at the heart of this section draw connections between the instantaneous rate of change and the average rate of change of

More information

Intermediate Algebra Final Exam Review

Intermediate Algebra Final Exam Review Intermediate Algebra Final Exam Review Note to students: The final exam for MAT10, MAT 11 and MAT1 will consist of 30 multiple-choice questions and a few open-ended questions. The exam itself will cover

More information

Math 111 Calculus I Fall 2005 Practice Problems For Final December 5, 2005

Math 111 Calculus I Fall 2005 Practice Problems For Final December 5, 2005 Math 111 Calculus I Fall 2005 Practice Problems For Final December 5, 2005 As always, the standard disclaimers apply In particular, I make no claims that all the material which will be on the exam is represented

More information

Infinite Limits. By Tuesday J. Johnson

Infinite Limits. By Tuesday J. Johnson Infinite Limits By Tuesday J. Johnson Suggested Review Topics Algebra skills reviews suggested: Evaluating functions Graphing functions Working with inequalities Working with absolute values Trigonometric

More information

3 Polynomial and Rational Functions

3 Polynomial and Rational Functions 3 Polynomial and Rational Functions 3.1 Polynomial Functions and their Graphs So far, we have learned how to graph polynomials of degree 0, 1, and. Degree 0 polynomial functions are things like f(x) =,

More information

Secondary Math 3 Honors Unit 10: Functions Name:

Secondary Math 3 Honors Unit 10: Functions Name: Secondary Math 3 Honors Unit 10: Functions Name: Parent Functions As you continue to study mathematics, you will find that the following functions will come up again and again. Please use the following

More information

Section 3.1 Quadratic Functions

Section 3.1 Quadratic Functions Chapter 3 Lecture Notes Page 1 of 72 Section 3.1 Quadratic Functions Objectives: Compare two different forms of writing a quadratic function Find the equation of a quadratic function (given points) Application

More information

Math 131. Rolle s and Mean Value Theorems Larson Section 3.2

Math 131. Rolle s and Mean Value Theorems Larson Section 3.2 Math 3. Rolle s and Mean Value Theorems Larson Section 3. Many mathematicians refer to the Mean Value theorem as one of the if not the most important theorems in mathematics. Rolle s Theorem. Suppose f

More information

APPLICATIONS OF DIFFERENTIATION

APPLICATIONS OF DIFFERENTIATION 4 APPLICATIONS OF DIFFERENTIATION APPLICATIONS OF DIFFERENTIATION 4.9 Antiderivatives In this section, we will learn about: Antiderivatives and how they are useful in solving certain scientific problems.

More information

MAT 1339-S14 Class 4

MAT 1339-S14 Class 4 MAT 9-S4 Class 4 July 4, 204 Contents Curve Sketching. Concavity and the Second Derivative Test.................4 Simple Rational Functions........................ 2.5 Putting It All Together.........................

More information

Topics and Concepts. 1. Limits

Topics and Concepts. 1. Limits Topics and Concepts 1. Limits (a) Evaluating its (Know: it exists if and only if the it from the left is the same as the it from the right) (b) Infinite its (give rise to vertical asymptotes) (c) Limits

More information

Review questions for Math 111 final. Please SHOW your WORK to receive full credit Final Test is based on 150 points

Review questions for Math 111 final. Please SHOW your WORK to receive full credit Final Test is based on 150 points Please SHOW your WORK to receive full credit Final Test is based on 150 points 1. True or False questions (17 pts) a. Common Logarithmic functions cross the y axis at (0,1) b. A square matrix has as many

More information

Chapter 2: Limits & Continuity

Chapter 2: Limits & Continuity Name: Date: Period: AP Calc AB Mr. Mellina Chapter 2: Limits & Continuity Sections: v 2.1 Rates of Change of Limits v 2.2 Limits Involving Infinity v 2.3 Continuity v 2.4 Rates of Change and Tangent Lines

More information

MATH 151 Engineering Mathematics I

MATH 151 Engineering Mathematics I MATH 151 Engineering Mathematics I Fall, 2016, WEEK 4 JoungDong Kim Week4 Section 2.6, 2.7, 3.1 Limits at infinity, Velocity, Differentiation Section 2.6 Limits at Infinity; Horizontal Asymptotes Definition.

More information

Calculus I Homework: The Tangent and Velocity Problems Page 1

Calculus I Homework: The Tangent and Velocity Problems Page 1 Calculus I Homework: The Tangent and Velocity Problems Page 1 Questions Example The point P (1, 1/2) lies on the curve y = x/(1 + x). a) If Q is the point (x, x/(1 + x)), use Mathematica to find the slope

More information

Name: Instructor: Multiple Choice. x 3. = lim x 3 x 3 x (x 2 + 7) 16 = lim. (x 3)( x ) x 3 (x 3)( x ) = lim.

Name: Instructor: Multiple Choice. x 3. = lim x 3 x 3 x (x 2 + 7) 16 = lim. (x 3)( x ) x 3 (x 3)( x ) = lim. Multiple Choice 1.(6 pts.) Evaluate the following limit: x + 7 4 lim. x 3 x 3 lim x 3 x + 7 4 x 3 x + 7 4 x + 7 + 4 x 3 x 3 x + 7 + 4 (x + 7) 16 x 3 (x 3)( x + 7 + 4) x 9 x 3 (x 3)( x + 7 + 4) x 3 (x 3)(x

More information

Everything Old Is New Again: Connecting Calculus To Algebra Andrew Freda

Everything Old Is New Again: Connecting Calculus To Algebra Andrew Freda Everything Old Is New Again: Connecting Calculus To Algebra Andrew Freda (afreda@deerfield.edu) ) Limits a) Newton s Idea of a Limit Perhaps it may be objected, that there is no ultimate proportion of

More information

Set 3: Limits of functions:

Set 3: Limits of functions: Set 3: Limits of functions: A. The intuitive approach (.): 1. Watch the video at: https://www.khanacademy.org/math/differential-calculus/it-basics-dc/formal-definition-of-its-dc/v/itintuition-review. 3.

More information

Chapter 2 Derivatives

Chapter 2 Derivatives Contents Chapter 2 Derivatives Motivation to Chapter 2 2 1 Derivatives and Rates of Change 3 1.1 VIDEO - Definitions................................................... 3 1.2 VIDEO - Examples and Applications

More information

Procrastination is hazardous! John Chinchen, LCB 326, ,

Procrastination is hazardous! John Chinchen, LCB 326, , Tom Robbins MATH 00- Summer 00 Homework Set due 6/3/0 at 7:00 PM This is the first of WeBWorK based home work sets. Each problem is worth point. These problems are designed to be mathematically easy and

More information

AP Calculus AB Chapter 1 Limits

AP Calculus AB Chapter 1 Limits AP Calculus AB Chapter Limits SY: 206 207 Mr. Kunihiro . Limits Numerical & Graphical Show all of your work on ANOTHER SHEET of FOLDER PAPER. In Exercises and 2, a stone is tossed vertically into the air

More information

m is: at x = 1:. 12.(1 pt) Let f (x) = x 3. Find the slope of the curve y = f (x) at the point x = 1 by calculating h proaches as h approaches 0.

m is: at x = 1:. 12.(1 pt) Let f (x) = x 3. Find the slope of the curve y = f (x) at the point x = 1 by calculating h proaches as h approaches 0. Peter Alfeld Math 0-, Summer 006 WeBWorK Assignment due 5/4/06 at 8:00 PM This assignment will cover notes on polynomial calculus and sections and of the book ( pt) The equation of the line with slope

More information

Solutions to Math 41 First Exam October 18, 2012

Solutions to Math 41 First Exam October 18, 2012 Solutions to Math 4 First Exam October 8, 202. (2 points) Find each of the following its, with justification. If the it does not exist, explain why. If there is an infinite it, then explain whether it

More information

Chapter 1/3 Rational Inequalities and Rates of Change

Chapter 1/3 Rational Inequalities and Rates of Change Chapter 1/3 Rational Inequalities and Rates of Change Lesson Package MHF4U Chapter 1/3 Outline Unit Goal: By the end of this unit, you will be able to solve rational equations and inequalities algebraically.

More information

This file is /conf/snippets/setheader.pg you can use it as a model for creating files which introduce each problem set.

This file is /conf/snippets/setheader.pg you can use it as a model for creating files which introduce each problem set. Victoria Howle WeBWorK assignment number WW06 is due : 03/30/2012 at 08:07pm CDT. The (* replace with url for the course home page *) for the course contains the syllabus, grading policy and other information.

More information

Average rates of change May be used to estimate the derivative at a point

Average rates of change May be used to estimate the derivative at a point Derivatives Big Ideas Rule of Four: Numerically, Graphically, Analytically, and Verbally Average rate of Change: Difference Quotient: y x f( a+ h) f( a) f( a) f( a h) f( a+ h) f( a h) h h h Average rates

More information

Formulas that must be memorized:

Formulas that must be memorized: Formulas that must be memorized: Position, Velocity, Acceleration Speed is increasing when v(t) and a(t) have the same signs. Speed is decreasing when v(t) and a(t) have different signs. Section I: Limits

More information

1.1 Radical Expressions: Rationalizing Denominators

1.1 Radical Expressions: Rationalizing Denominators 1.1 Radical Expressions: Rationalizing Denominators Recall: 1. A rational number is one that can be expressed in the form a, where b 0. b 2. An equivalent fraction is determined by multiplying or dividing

More information

MATH 121: EXTRA PRACTICE FOR TEST 2. Disclaimer: Any material covered in class and/or assigned for homework is a fair game for the exam.

MATH 121: EXTRA PRACTICE FOR TEST 2. Disclaimer: Any material covered in class and/or assigned for homework is a fair game for the exam. MATH 121: EXTRA PRACTICE FOR TEST 2 Disclaimer: Any material covered in class and/or assigned for homework is a fair game for the exam. 1 Linear Functions 1. Consider the functions f(x) = 3x + 5 and g(x)

More information

AP Calculus Chapter 3 Testbank (Mr. Surowski)

AP Calculus Chapter 3 Testbank (Mr. Surowski) AP Calculus Chapter 3 Testbank (Mr. Surowski) Part I. Multiple-Choice Questions (5 points each; please circle the correct answer.). If f(x) = 0x 4 3 + x, then f (8) = (A) (B) 4 3 (C) 83 3 (D) 2 3 (E) 2

More information

Antiderivatives. Definition A function, F, is said to be an antiderivative of a function, f, on an interval, I, if. F x f x for all x I.

Antiderivatives. Definition A function, F, is said to be an antiderivative of a function, f, on an interval, I, if. F x f x for all x I. Antiderivatives Definition A function, F, is said to be an antiderivative of a function, f, on an interval, I, if F x f x for all x I. Theorem If F is an antiderivative of f on I, then every function of

More information

Math 12 Final Exam Review 1

Math 12 Final Exam Review 1 Math 12 Final Exam Review 1 Part One Calculators are NOT PERMITTED for this part of the exam. 1. a) The sine of angle θ is 1 What are the 2 possible values of θ in the domain 0 θ 2π? 2 b) Draw these angles

More information

Today s Agenda. Upcoming Homework Section 2.1: Derivatives and Rates of Change

Today s Agenda. Upcoming Homework Section 2.1: Derivatives and Rates of Change Today s Agenda Upcoming Homework Section 2.1: Derivatives and Rates of Change Lindsey K. Gamard, ASU SoMSS MAT 265: Calculus for Engineers I Wed., 9 September 2015 1 / 9 Upcoming Homework Written HW B:

More information

1.2 Functions and Their Properties Name:

1.2 Functions and Their Properties Name: 1.2 Functions and Their Properties Name: Objectives: Students will be able to represent functions numerically, algebraically, and graphically, determine the domain and range for functions, and analyze

More information

MTH132 Exam 1 Covers: Page Total. Max

MTH132 Exam 1 Covers: Page Total. Max Name: PID: A Section #: Instructor: Page 3 4 5 6 7 8 Total Score Max 4 4 4 4 1 150 Instructions 1. You will be given exactly 90 minutes for this exam.. No calculators, phones, or any electronic devices.

More information

December Exam Summary

December Exam Summary December Exam Summary 1 Lines and Distances 1.1 List of Concepts Distance between two numbers on the real number line or on the Cartesian Plane. Increments. If A = (a 1, a 2 ) and B = (b 1, b 2 ), then

More information

AP Calculus AB/IB Math SL2 Unit 1: Limits and Continuity. Name:

AP Calculus AB/IB Math SL2 Unit 1: Limits and Continuity. Name: AP Calculus AB/IB Math SL Unit : Limits and Continuity Name: Block: Date:. A bungee jumper dives from a tower at time t = 0. Her height h (in feet) at time t (in seconds) is given by the graph below. In

More information

LIMITS AT INFINITY MR. VELAZQUEZ AP CALCULUS

LIMITS AT INFINITY MR. VELAZQUEZ AP CALCULUS LIMITS AT INFINITY MR. VELAZQUEZ AP CALCULUS RECALL: VERTICAL ASYMPTOTES Remember that for a rational function, vertical asymptotes occur at values of x = a which have infinite its (either positive or

More information