Calculus: Functions

Distance from Home vs. Time

  • The graph models Mr. Passwater's distance from his home over time.
  • Time (in hours) is the independent variable.
  • Distance from home (in miles) is the dependent variable.
  • Option (D) is appropriate:
    • Mr. Passwater leaves his house and drives to a restaurant at a constant rate.
    • He stops to eat breakfast for a period of time.
    • After eating, he drives to his school at a faster constant rate.

Water Pouring into a Container

  • Water pours into an empty container at a constant rate until it's full.
  • Initially, the depth of water increases at an increasing rate.
  • Then, the depth increases at a decreasing rate.

Mr. Passwater Skydiving - Distance Fallen vs. Time

  • Mr. Passwater skydives.
  • Initially, the distance he falls increases at an increasing rate until he opens his parachute.
  • After parachute opens, the distance he falls increases at a decreasing rate until he lands.

Mr. Passwater Skydiving - Distance from Ground vs. Time

  • Mr. Passwater's skydive is analyzed with distance from the ground as the dependent variable.
  • Initially, his distance from the ground decreases at an increasing rate.
  • After the parachute opens, his distance from the ground decreases at a decreasing rate.

Conical Tank Filling with Water

  • A conical tank is filling with water.
  • The water pours in such a way that the depth of the water increases at a constant rate with respect to time.
  • The graph depicts depth of water (independent) vs. volume of water (dependent).

Graph of ff Problems 6-10

  • Figure shows the graph of a function ff for x < L.

Points of Inflection

  • Determine the number of inflection points on the graph of ff.

Statements about the Graph

  • Analyze intervals to determine if ff is positive/negative and increasing/decreasing.

Rate of Change Analysis

  • Determine if ff is increasing/decreasing at an increasing/decreasing rate.

Concavity Analysis

  • Determine if ff is increasing/decreasing and if the graph is concave up/down.

Rate of Change Over Intervals

  • Analyze if the rate of change of ff is positive/negative and increasing/decreasing.

Graph of f$ Problems 11-15

  • Figure shows the graph of a function fforforx < L.</li></ul><h4id="pointsofinflection1">PointsofInflection</h4><ul><li>Determinethenumberofinflectionpointsonthegraphof.</li> </ul> <h4 id="pointsofinflection-1">Points of Inflection</h4> <ul> <li>Determine the number of inflection points on the graph off.</li></ul><h4id="statementsaboutthegraph1">StatementsabouttheGraph</h4><ul><li>Analyzeintervalstodetermineif.</li> </ul> <h4 id="statementsaboutthegraph-1">Statements about the Graph</h4> <ul> <li>Analyze intervals to determine iffispositive/negativeandincreasing/decreasing.</li></ul><h4id="rateofchangeanalysis1">RateofChangeAnalysis</h4><ul><li>Determineifis positive/negative and increasing/decreasing.</li> </ul> <h4 id="rateofchangeanalysis-1">Rate of Change Analysis</h4> <ul> <li>Determine iffisincreasing/decreasingatanincreasing/decreasingrate.</li></ul><h4id="concavityanalysis1">ConcavityAnalysis</h4><ul><li>Determineifis increasing/decreasing at an increasing/decreasing rate.</li> </ul> <h4 id="concavityanalysis-1">Concavity Analysis</h4> <ul> <li>Determine iffisincreasing/decreasingandifthegraphisconcaveup/down.</li></ul><h4id="rateofchangeoverintervals1">RateofChangeOverIntervals</h4><ul><li>Analyzeiftherateofchangeofis increasing/decreasing and if the graph is concave up/down.</li> </ul> <h4 id="rateofchangeoverintervals-1">Rate of Change Over Intervals</h4> <ul> <li>Analyze if the rate of change offispositive/negativeandincreasing/decreasing.</li></ul><h3id="graphanalysisofddfddproblems1623">GraphAnalysisofis positive/negative and increasing/decreasing.</li> </ul> <h3 id="graphanalysisofddfddproblems1623">Graph Analysis off,Problems1623</h3><ul><li>Figuresshowthegraphofafunction, Problems 16-23</h3> <ul> <li>Figures show the graph of a functionfforforx < L.</li><li>Determineifthefunctionisincreasingordecreasingatanincreasingordecreasingrate.</li></ul><h3id="graphanalysisofddfddproblems2431">GraphAnalysisof.</li> <li>Determine if the function is increasing or decreasing at an increasing or decreasing rate.</li> </ul> <h3 id="graphanalysisofddfddproblems2431">Graph Analysis off,Problems2431</h3><ul><li>Figuresshowgraphsofafunction, Problems 24-31</h3> <ul> <li>Figures show graphs of a functionfforforx < L.</li><li>Determineiftherateofchangeof.</li> <li>Determine if the rate of change offispositive/negativeandincreasing/decreasing.</li></ul><h3id="graphanalysisofddfddproblems3239">GraphAnalysisofis positive/negative and increasing/decreasing.</li> </ul> <h3 id="graphanalysisofddfddproblems3239">Graph Analysis off,Problems3239</h3><ul><li>Figuresshowgraphsofafunction, Problems 32-39</h3> <ul> <li>Figures show graphs of a functionfforforx < L.</li><li>Determineifthefunction.</li> <li>Determine if the functionfisincreasing/decreasing,andifthegraphofis increasing/decreasing, and if the graph offisconcaveup/down.</li></ul><h3id="comparingratesofchangeforfunctionsproblems4042">ComparingRatesofChangeforFunctions,Problems4042</h3><ul><li>Graphsoffunctionsis concave up/down.</li> </ul> <h3 id="comparingratesofchangeforfunctionsproblems4042">Comparing Rates of Change for Functions, Problems 40-42</h3> <ul> <li>Graphs of functionsf,,g,and, andhareshownforare shown forx < L.</li><li>Determineforwhichfunction(s)therateofchangeisincreasingornegative,oridentifywhenboththefunctionanditsrateofchangearenegative.</li></ul><h3id="analyzingrateofchangeandconcavityfromagraph4346">AnalyzingRateofChangeandConcavityfromagraph4346</h3><ul><li>Thefigureshowsthegraphofafunction.Theendpointsandextremaarelabeled,aswellastheonlypointofinflectionofthegraphof.</li> <li>Determine for which function(s) the rate of change is increasing or negative, or identify when both the function and its rate of change are negative.</li> </ul> <h3 id="analyzingrateofchangeandconcavityfromagraph4346">Analyzing Rate of Change and Concavity from a graph 43 - 46</h3> <ul> <li>The figure shows the graph of a function. The endpoints and extrema are labeled, as well as the only point of inflection of the graph off.</li><li>Let.</li> <li>LetA, B, C,andandDrepresenttherepresent thexvaluesatthosepoints.<ul><li>Determineintervalswheretherateofchangeof-values at those points.<ul> <li>Determine intervals where the rate of change offisincreasing.</li><li>Determineintervalswhereis increasing.</li> <li>Determine intervals wherefisincreasingandthegraphofis increasing and the graph offisconcavedown.</li><li>Determineintervalswheretherateofchangeofis concave down.</li> <li>Determine intervals where the rate of change offispositive.</li><li>Determineintervalswhereis positive.</li> <li>Determine intervals wherefisdecreasingatanincreasingrate.</li></ul></li></ul><h3id="rateofchangeofgraphs4749">Rateofchangeofgraphs4749</h3><ul><li>Thefigureshowsthegraphofafunctionis decreasing at an increasing rate.</li></ul></li> </ul> <h3 id="rateofchangeofgraphs4749">Rate of change of graphs 47-49</h3> <ul> <li>The figure shows the graph of a functionfforforx < L.</li><li>Determineifthefunctionis:<ul><li>Increasingatanincreasingrate</li><li>Increasingatadecreasingrate</li><li>Decreasingatanincreasingrate</li><li>Decreasingatadecreasingrate</li></ul></li></ul><h3id="analyzingthefunctionsgraph">Analyzingthefunctionsgraph:</h3><ul><li><p>Thegraphof.</li> <li>Determine if the function is:<ul> <li>Increasing at an increasing rate</li> <li>Increasing at a decreasing rate</li> <li>Decreasing at an increasing rate</li> <li>Decreasing at a decreasing rate</li></ul></li> </ul> <h3 id="analyzingthefunctionsgraph">Analyzing the function's graph:</h3> <ul> <li><p>The graph offispositive</p><ul><li>Thegraphis positive</p> <ul> <li>The graphfisincreasing</li><li>Therateofchangeofis increasing</li> <li>The rate of change offispositive</li><li>Therateofchangeofis positive</li> <li>The rate of change offisincreasing</li></ul></li><li><p>Thegraphofis increasing</li></ul></li> <li><p>The graph offisconcaveup,becausetherateofchangeofis concave up, because the rate of change offispositive</p><ul><li>Thegraphofis positive</p> <ul> <li>The graph offisconcaveup,becausetherateofchangeofis concave up, because the rate of change offisincreasing</li><li>Thegraphofis increasing</li> <li>The graph offisconcavedown,becausetherateofchangeofis concave down, because the rate of change offisnegative</li><li>Thegraphofis negative</li> <li>The graph offisconcavedown,becausetherateofchangeofis concave down, because the rate of change offisdecreasing</li></ul></li></ul><h3id="ratesofchange5053">Ratesofchange5053.</h3><ul><li><p>Thefigureshowsthegraphofafunctionis decreasing</li></ul></li> </ul> <h3 id="ratesofchange5053">Rates of change 50-53.</h3> <ul> <li><p>The figure shows the graph of a functionfwith34labeledpoints.Itisknownthatarelativeisarelativemaximumofwith 3-4 labeled points. It is known that a relative is a relative maximum offoccursatoccurs atx=B.</p></li><li><p>Considertheratesofchangeof.</p></li> <li><p>Consider the rates of change offatthethreelabeledpoints.Whichofthefollowingorderstheratesofchangeofat the three labeled points. Which of the following orders the rates of change offinorderfromleasttogreatest?</p><ul><li>in order from least to greatest?</p> <ul> <li>f'(A) < f'(C) < f'(B)</li></ul></li><li><p>Forwhichofthefollowingpairsofpointsistheaveragerateofchangeof</li></ul></li> <li><p>For which of the following pairs of points is the average rate of change offtheleast?</p></li><li><p>Ofthefollowingpoints,atwhichistherateofchangeofthe least?</p></li> <li><p>Of the following points, at which is the rate of change offtheleast/greatest</p></li></ul><h3id="averagerateofchangeproblems">Averagerateofchangeproblems</h3><ul><li>Averagerateofchangeproblemswilltypicallyhaveatableorgraphthatyoucanusetocalculatetheaveragerateofchange.</li><li>the least/greatest</p></li> </ul> <h3 id="averagerateofchangeproblems">Average rate of change problems</h3> <ul> <li>Average rate of change problems will typically have a table or graph that you can use to calculate the average rate of change.</li> <li>AverageRateOfChange = {f(b) - f(a) } / {b-a},where, whereaandandbdefinetheclosedinterval!</li></ul><h3id="analyzingratesofchangeofpolynomialfunctionsfromtables6471">Analyzingratesofchangeofpolynomialfunctionsfromtables6471</h3><ul><li>Atableisprovidedofpointsfromapolynomialfunction</li><li>Basedonthedata,determineifthegraphis:<ul><li>Concaveup</li><li>Concavedown</li><li>Modeledbyalinearfunction</li><li>Modeledbyaquadraticfunction</li></ul></li></ul><h3id="determiningconcavityfromtables">DeterminingConcavityFromTables</h3><ul><li>Positiveaverageratesofchangeoverconsecutiveequallengthinputvalueintervalsindicatethatthegraphcouldbeconcaveup</li><li>Increasingaverageratesofchangeoverconsecutiveequallengthinputvalueintervalsindicatethatthegraphcouldbeconcaveup.</li><li>Constantrateofchangeoverconsecutiveequallengthinputvalueintervalsindicatethefunctioncanbemodeledasalinearfunction</li><li>Changeintheaverageratesofchangeoverconsecutiveequallengthinputvalueintervalsisconstantindicatingthatitisbestmodeledbyaquadraticfunction.</li></ul><h3id="concavitybasedontables7277">ConcavityBasedonTables7277</h3><ul><li>Thegraphofthepolynomialfunctiondefine the closed interval!</li> </ul> <h3 id="analyzingratesofchangeofpolynomialfunctionsfromtables6471">Analyzing rates of change of polynomial functions from tables 64-71</h3> <ul> <li>A table is provided of points from a polynomial function</li> <li>Based on the data, determine if the graph is:<ul> <li>Concave up</li> <li>Concave down</li> <li>Modeled by a linear function</li> <li>Modeled by a quadratic function</li></ul></li> </ul> <h3 id="determiningconcavityfromtables">Determining Concavity From Tables</h3> <ul> <li>Positive average rates of change over consecutive equal-length input-value intervals indicate that the graph could be concave up</li> <li>Increasing average rates of change over consecutive equal-length input-value intervals indicate that the graph could be concave up.</li> <li>Constant rate of change over consecutive equal-length input-value intervals indicate the function can be modeled as a linear function</li> <li>Change in the average rates of change over consecutive equal-length input-value intervals is constant indicating that it is best modeled by a quadratic function.</li> </ul> <h3 id="concavitybasedontables7277">Concavity Based on Tables 72-77</h3> <ul> <li>The graph of the polynomial functionfisconcaveup/downontheinterval.</li><li>Whichofthefollowingcouldbeatableofvaluescontainingpointsonthefunction.</li><li>Determineifthefunctionisincreasingordecreasingandifthegraphisconcaveuporconcavedown.</li></ul><h3id="polynomialinflectionpointsproblems7879">PolynomialInflectionPoints,Problems7879</h3><ul><li>Figureshowsthegraphofaquartic/cubicpolynomialfunctionis concave up/down on the interval.</li> <li>Which of the following could be a table of values containing points on the function.</li> <li>Determine if the function is increasing or decreasing and if the graph is concave up or concave down.</li> </ul> <h3 id="polynomialinflectionpointsproblems7879">Polynomial Inflection Points, Problems 78-79</h3> <ul> <li>Figure shows the graph of a quartic/cubic polynomial functionf.</li><li>Determinehowmanypointsofinflectionthegraphhas.</li></ul><h3id="identifypointofinflectiongraph80">IdentifyPointofInflectiongraph80</h3><ul><li>Thefigureshowsthegraphofaderivative.</li> <li>Determine how many points of inflection the graph has.</li> </ul> <h3 id="identifypointofinflectiongraph80">Identify Point of Inflection graph 80</h3> <ul> <li>The figure shows the graph of a derivativef'(x).Whichpointonthegraphof. Which point on the graph off'(x)equalsthepointofinflectiononthegraphofequals the point of inflection on the graph off(x)</li></ul><h3id="graphingpolynomialsproblems8183">GraphingPolynomialsProblems8183</h3><ul><li>Matchequationstotheirgraphs.</li></ul><h3id="oddandevenfunctionsfromtables8486">OddandEvenFunctionsFromTables8486</h3><ul><li><p>Thetablegivesvaluesofthepolynomialfunction</li> </ul> <h3 id="graphingpolynomialsproblems8183">Graphing Polynomials Problems 81-83</h3> <ul> <li>Match equations to their graphs.</li> </ul> <h3 id="oddandevenfunctionsfromtables8486">Odd and Even Functions From Tables 84-86</h3> <ul> <li><p>The table gives values of the polynomial functionfatselectedvaluesofat selected values ofx.</p></li><li><p>Determineifthefunctionisoddoreven,andwhether.</p></li> <li><p>Determine if the function is odd or even, and whetherf(-1) = -6,,f(-1) = 6,,f(-1) = 8,or, orf(-1) = -8.</p></li><li><p>Oddfunctionsaresymmetricabouttheorigin.</p><ul><li>Anoddfunctionwillhave,.</p></li> <li><p>Odd functions are symmetric about the origin.</p> <ul> <li>An odd function will have,f(-x) = -f(x).</li></ul></li><li><p>Evenfunctionsaresymmetricabouttheyaxis.</p><ul><li>Anevenfunctionwillhave,.</li></ul></li> <li><p>Even functions are symmetric about the y-axis.</p> <ul> <li>An even function will have,f(-x) = f(x).</li></ul></li></ul><h3id="increasingordecreasinggraphs8791">IncreasingorDecreasinggraphs8791</h3><ul><li>Determinewhichintervalisincreasingordecreasingforvariouspolynomialfunctions.</li></ul><h3id="comparingpolynomials9294">ComparingPolynomials9294</h3><ul><li>Determineintervalsforwhich.</li></ul></li> </ul> <h3 id="increasingordecreasinggraphs8791">Increasing or Decreasing graphs 87-91</h3> <ul> <li>Determine which interval is increasing or decreasing for various polynomial functions.</li> </ul> <h3 id="comparingpolynomials9294">Comparing Polynomials92-94</h3> <ul> <li>Determine intervals for whichf(x) = g(x),,f(x) < g(x),and, andf(x) > g(x).</li></ul><h3id="distinctrealzeros9598">DistinctRealZeros9598</h3><ul><li>Givenapolynomialfunction,determinethenumberofdistinctrealzeros.</li></ul><h3id="leastpossibledegreetables99101">LeastPossibleDegreeTables99101</h3><ul><li>Givenatableofapolynomialfunction,findtheleastpossibledegreeofthefunction.</li></ul><h3id="functionmodelingtype">FunctionModelingType</h3><ul><li>DeterminefromtabledataifthefunctionisLinearorQuadraticviaaveragerateofchangeorthe2nddifferencesoftheoutputvalues.</li></ul><h3id="leastpossibledegree104">LeastPossibleDegree104</h3><ul><li><p>Giventhegraphofapolynomialfunctionthathasazero,whatistheleastpossibledegreeoff(x)<br/>EndBehavior</p></li><li><p>Matchgraphstotheirendbehaviors.</p></li><li><p>.</li> </ul> <h3 id="distinctrealzeros9598">Distinct Real Zeros 95-98</h3> <ul> <li>Given a polynomial function, determine the number of distinct real zeros.</li> </ul> <h3 id="leastpossibledegreetables99101">Least Possible Degree Tables 99-101</h3> <ul> <li>Given a table of a polynomial function, find the least possible degree of the function.</li> </ul> <h3 id="functionmodelingtype">Function Modeling Type</h3> <ul> <li>Determine from table data if the function is Linear or Quadratic via average rate of change or the 2nd differences of the output values.</li> </ul> <h3 id="leastpossibledegree104">Least Possible Degree 104</h3> <ul> <li><p>Given the graph of a polynomial function that has a zero, what is the least possible degree of f(x)<br /> *End Behavior</p></li> <li><p>Match graphs to their end behaviors.</p></li> <li><p>lim(x-> -inf) = +inf</p></li><li><p></p></li> <li><p>lim(x-> +inf) = +inf</p></li><li><p>Asxapproachesnegativeinfinity,f(x)approachespositiveinfinity</p></li><li><p>Asxapproachespositiveinfinity,f(x)approachespositiveinfinity</p></li></ul><h3id="identifyingendbehavior110113">IdentifyingEndBehavior110113</h3><ul><li><p>Thesignoftheleadingtermof</p></li> <li><p>As x approaches negative infinity, f(x) approaches positive infinity</p></li> <li><p>As x approaches positive infinity, f(x) approaches positive infinity</p></li> </ul> <h3 id="identifyingendbehavior110113">Identifying End Behavior 110-113</h3> <ul> <li><p>The sign of the leading term offispositive,andthedegreeoftheleadingtermofis positive, and the degree of the leading term offisodd;therefore</p><ul><li>is odd; therefore</p> <ul> <li>lim x->+inf = +inf</li><li></li> <li>lim x->-inf = -inf</li></ul></li><li><p>Thesignoftheleadingtermof</li></ul></li> <li><p>The sign of the leading term offisnegative,andthedegreeoftheleadingtermofis negative, and the degree of the leading term offiseven;therefore,</p><ul><li>is even; therefore,</p> <ul> <li>lim x->+inf = -inf</li><li></li> <li>lim x->-inf = -inf</li></ul></li><li><p>Thesignoftheleadingtermof</li></ul></li> <li><p>The sign of the leading term offispositive,andthedegreeoftheleadingtermofis positive, and the degree of the leading term offiseven;therefore,</p><ul><li>is even; therefore,</p> <ul> <li>lim x->+inf = +inf</li><li></li> <li>lim x->-inf = +inf</li></ul></li><li><p>Thesignoftheleadingtermof</li></ul></li> <li><p>The sign of the leading term offisnegative,andthedegreeoftheleadingtermofis negative, and the degree of the leading term offisodd;therefore,</p><ul><li>is odd; therefore,</p> <ul> <li>lim x->+inf = -inf</li><li></li> <li>lim x->-inf = +inf</li></ul></li></ul><h3id="determiningfunctionequationsbasedonendbehavior114117">DeterminingFunctionEquationsBasedonEndBehavior114117</h3><ul><li>Determinefunctionequationsbasedonendbehavior.Iftheendbehaviorof</li></ul></li> </ul> <h3 id="determiningfunctionequationsbasedonendbehavior114117">Determining Function Equations Based on End Behavior 114-117</h3> <ul> <li>Determine function equations based on end behavior. If the end behavior offisgivenbythestatements<ul><li>limxf(x)=</li><li>limxf(x)=</li></ul></li></ul><h3id="rationalfunctionsendbehavior">RationalFunctionsEndBehavior</h3><ul><li>Astheinputvaluesofis given by the statements<ul> <li>limx→−∞f(x) = ∞</li> <li>limx→∞f(x) = ∞</li></ul></li> </ul> <h3 id="rationalfunctionsendbehavior">Rational Functions End Behavior</h3> <ul> <li>As the input values ofxincreasewithoutbound,theoutputvaluesofincrease without bound, the output values off(x)getarbitrarilycloseto0.Therationalfunctionwilleventuallyapproachget arbitrarily close to 0. The rational function will eventually approachy=0y=0

Rational function facts

  • Given rational functions:
    • Determine matching end behaviors
    • State intervals on which f(x) > 0
    • State zero of the function
    • Identify an expression for f(x)f(x)

Rational Functions & Vertical Asymptotes

  • A vertical asymptote occurs when the denominator of a rational function approaches 0. It is displayed as a dashed line on the graph of a function
    • In the xy-plane, the graph of a rational function ff has a vertical asymptote at x=5x=5

Limits for Rational Functions 128-131

  • Given \lim{x->a^-}f(x)andf(x) and\lim{x->a^+}f(x)determinewhatf(x)isapproaching.Functionswillapproach+inf,inf,andspecificvalues.Graphingcanbeausefultool.</li></ul><h3id="limitsandoutputvalues132134">LimitsandOutputValues132134</h3><ul><li>TheInputvaluesoff(x) determine what f(x) is approaching. Functions will approach +inf, -inf, and specific values. Graphing can be a useful tool.</li> </ul> <h3 id="limitsandoutputvalues132134">Limits and Output Values 132-134</h3> <ul> <li>The Input values ofxsufficientlycloseto4correspondtooutputvaluesarbitrarilycloseto8.<ul><li>Itmeans,sufficiently close to 4 correspond to output values arbitrarily close to 8.<ul> <li>It means,\lim_{x->4}f(x) = 8

Definition of Holes

  • Holes are open circle discontinuities in a rational function when a rational function factors so that the numerator and denominator share a similar term.

    • Rational functions
      • State its domain
        *Vertical Asymptotes
  • Vertical asymptotes can be determined by setting the denominator of a rational function to 0, and solving for x.

Rational equation to graphs 141-146

  • Given some rational functions. Determine the zeros and the vertical/horizontal asymptotes.
  • This can be tested by setting the numerator and denominator equal to 0, respectively.

Slant Asymptotes with Long Division

  • If the degree of the numerator is one more than the degree of the denominator, the rational function will have what is called a slant asymptote. To find the equation for the slant asymptote, simply perform long division.

Properties of the Remainder

  • Remainder Theorem

    • What is the remainder that results when the polynomial f(x)f(x) is divided by the polynomial g(x)g(x)
      *Slant Asymptotes
  • Equation relating polynomials to vertical and slant asymptotes.

Applying the Binomial Theorem

  • The binomial theorem can be used to expand an expression of the form
    • (x+y)n(x+y)^n

Finding coefficients terms in a polynomial 153

  • What is the coefficient of the x2x^2 term in the expanded polynomial?

Horizontal Asymptote Rules 154-155

  • y=0y = 0 if the degree of the numerator < degree of the denominator
  • y=a/by = a/b if the degree of the numerator = degree of the denominator
  • No horizontal asymptote if the degree of the numerator > degree of the denominator

Describing Transformation of Functions

  • The sequence of transformations to map the graph of ff to the graph of gg includes a horizontal dilation of the graph of f by a factor of +1/41/4 followed by a vertical translation of the graph of ff by 7 unit.

Graph Transformations and Effects on Domain 158-159

  • What happens to the domain during graph transformations
    *Graph Transformations Effects on Range

  • What happens to the Range during graph transformations

Transformations and Points 162-164

  • The point (2,-4) is on the graph of,f(x)f(x). Which of the following points is on the graph of g(x) = -f(1/2(x-4)) + 5?</li></ul><h3id="verticalandhorizontalasymptotesandtransformations165">VerticalandHorizontalAsymptotesandTransformations165</h3><ul><li><p>Thegraphofthefunction?</li> </ul> <h3 id="verticalandhorizontalasymptotesandtransformations165">Vertical and Horizontal Asymptotes and Transformations 165</h3> <ul> <li><p>The graph of the functionfhasaverticalasymptoteathas a vertical asymptote atx=3x = 3 and a horizontal asymptote of y=4y =4 . The graph of gg is the result of the transformation

  • What Happens to the Horizonal Asymptotes.

  • How does the Domain Effect the Graph
    *Transformations from Tables of Values

Transformations of values 166-169

  • Given the selected values of xx and yy, what is the coordinate pair for g(x)=2 * f(-x+3) - 1?</li></ul><h3id="graphfortransformedfunctions">GraphforTransformedFunctions</h3><ul><li>Thetransformedgraphforf(x)?</li> </ul> <h3 id="graphfortransformedfunctions">Graph for Transformed Functions</h3> <ul> <li>The transformed graph for f(x)=2f(x2)= -2f(x-2)

Describing Function Transformation

  • Determine the sequence of transformations that maps the graph of f(x) to the graph g(x) in the xyxy -plane

Horizontal and Vertical Translations, Problems 177-178

  • The function ff is given by f(x)=x2f(x) = x^2

  • The graph of which of the following functions is the image of the graph of ff after a horizontal translation of the graph of ff units?

  • Function Modeling With Tables

    • Given a table, find the function type (Linear, Quadratic, polynomial greater than degree 2, exponential
  • Graph Features

    • Select a scenario based on the graph features
  • Analyzing Data

    • Given cost to produce pez related data, when should money be spent.