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edu-2009-05-mfe-exam

Course: MAT 2070, Spring 2011
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of Society Actuaries Casualty Actuarial Society Canadian Institute of Actuaries Exam MFE Actuarial Models Financial Economics Segment Friday, May 15, 2009 2:00 p.m. 4:00 p.m. MFE INSTRUCTIONS TO CANDIDATES 13. When the supervisor tells you to do so, break the seal on the book and remove the answer sheet. 1. Write your candidate number here ____________. Your name must not appear. 2. Do not break the...

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of Society Actuaries Casualty Actuarial Society Canadian Institute of Actuaries Exam MFE Actuarial Models Financial Economics Segment Friday, May 15, 2009 2:00 p.m. 4:00 p.m. MFE INSTRUCTIONS TO CANDIDATES 13. When the supervisor tells you to do so, break the seal on the book and remove the answer sheet. 1. Write your candidate number here ____________. Your name must not appear. 2. Do not break the seal of this book until the supervisor tells you to do so. On side 1 of the answer sheet, space is provided to write and to code candidate information. Complete Blocks A through G as follows: 3. Tables and numerical values necessary for solving some of the questions on this examination will be distributed by the Supervisor. (a) in Block A, print your name and the name of this test center; 4. This examination consists of 20 multiple-choice questions. (b) 5. Each question has equal weight. Your score will be based on the number of questions which you answer correctly. No credit will be given for omitted answers and no credit will be lost for wrong answers; hence, you should answer all questions even those for which you have to guess. in Block B, print your last name, first name and middle initial and code your name by blackening the ovals (one in each column) corresponding to the letters of your name; for each empty box, blacken the small rectangle immediately above the "A" oval; (c) write your candidate number in Block C (as it appears on your ticket of admission for this examination) and write the number of this test center in Block D (the supervisor will supply the number); (d) code your candidate number and center number by blackening the five ovals (one in each column) corresponding to the five digits of your candidate number and the three ovals (one in each column) corresponding to the three digits of the test center number, respectively. Please be sure that your candidate number and the test center number are coded correctly; (e) in Block E, code the examination that you are taking by blackening the oval to the left of "Exam MFE"; (f) Use a soft-lead pencil to mark the answer sheet. To facilitate correct mechanical scoring, be sure that, for each question, your pencil mark is dark and completely fills only the intended oval. Make no stray marks on the answer sheet. If you have to erase, do so completely. in Block F, blacken the appropriate oval to indicate whether you are using a calculator and write in the make and model number; and (g) in Block G, sign your name and write today's date. If the answer sheet is not signed, it will not be graded. 9. Do not spend too much time on any one question. If a question seems too difficult, leave it and go on. 10. While every attempt is made to avoid defective questions, sometimes they do occur. If you believe a question is defective, the supervisor or proctor cannot give you any guidance beyond the instructions on the exam booklet. On side 2 of your answer sheet, space is provided at the top for the number of this examination book. Enter the examination book number, from the upper right-hand corner of this examination book, in the four boxes at the top of side 2 marked "BOOKLET NUMBER". 6. 7. 8. A separate answer sheet is inside the front cover of this book. During the time allotted for this examination, record all your answers on side 2 of the answer sheet. NO ADDITIONAL TIME WILL BE ALLOWED FOR THIS PURPOSE. No credit will be given for anything indicated in the examination book but not transferred to the answer sheet. Failure to stop writing or coding your answer sheet after time is called will result in the disqualification of your answer sheet or further disciplinary action. Five answer choices are given with each question, each answer choice being identified by a key letter (A to E). Answer choices for some questions have been rounded. For each question, blacken the oval on the answer sheet which corresponds to the key letter of the answer choice that you select. 11. Clearly indicated answer choices in the test book can be an aid in grading examinations in the unlikely event of a lost answer sheet. 12. 14. After the examination, the supervisor will collect this book and the answer sheet separately. DO NOT ENCLOSE THE ANSWER SHEET IN THE BOOK. All books and answer sheets must be returned. THE QUESTIONS ARE CONFIDENTIAL AND MAY NOT BE TAKEN FROM THE EXAMINATION ROOM. Use the blank portions of each page for your scratch work. Extra blank pages are provided at the back of the examination book. Printed in the U.S.A. Exam MFE - Front Cover 2009 by the Society of Actuaries 475 N. Martingale Road Schaumburg, IL 60173-2226 Unless otherwise stated in the question, assume: The market is frictionless. There are no taxes, transaction costs, bid/ask spreads, or restrictions on short sales. All securities are perfectly divisible. Trading does not affect prices. Information is available to all investors simultaneously. Every investor acts rationally (i.e. there is no arbitrage). The risk-free interest rate is constant. The notation is the same as used in Derivatives Markets, by Robert L. McDonald. When using the normal distribution, choose the nearest z-value to find the probability, or if the probability is given, choose the nearest z-value. No interpolation should be used. Example: If the given z-value is 0.759, and you need to find Pr(Z < 0.759) from the normal distribution table, then choose the probability for z-value = 0.76: Pr(Z < 0.76) = 0.7764. The density function for the standard normal random variable is ( x) = 1 1 x2 e2 . 2 **BEGINNING OF EXAMINATION** 1. You use the usual method in McDonald and the following information to construct a binomial tree for modeling the price movements of a stock. (This tree is sometimes called a forward tree.) (i) The length of each period is one year. (ii) The current stock price is 100. (iii) The stocks volatility is 30%. (iv) The stock pays dividends continuously at a rate proportional to its price. The dividend yield is 5%. (v) The continuously compounded risk-free interest rate is 5%. Calculate the price of a two-year 100-strike American call option on the stock. (A) 11.40 (B) 12.09 (C) 12.78 (D) 13.47 (E) 14.16 Exam MFE: Spring 2009 -1- GO ON TO NEXT PAGE 2. You have observed the following monthly closing prices for stock XYZ: Date January 31, 2008 February 29, 2008 March 31, 2008 April 30, 2008 May 31, 2008 June 30, 2008 July 31, 2008 August 31, 2008 September 30, 2008 October 31, 2008 November 30, 2008 December 31, 2008 Stock Price 105 120 115 110 115 110 100 90 105 125 110 115 The following are one-year European options on stock XYZ. The options were issued on December 31, 2007. (i) An arithmetic average Asian call option (the average is calculated based on monthly closing stock prices) with a strike of 100. (ii) An up-and-out call option with a barrier of 125 and a strike of 120. (iii) An up-and-in call option with a barrier of 120 and a strike of 110. Calculate the difference in payoffs between the option with the largest payoff and the option with the smallest payoff. (A) 5 (B) 10 (C) 15 (D) 20 (E) 25 Exam MFE: Spring 2009 -2- GO ON TO NEXT PAGE 3. You are given the following regarding stock of Widget World Wide (WWW): (i) The stock is currently selling for $50. (ii) One year from now the stock will sell for either $40 or $55. (iii) The stock pays dividends continuously at a rate proportional to its price. The dividend yield is 10%. The continuously compounded risk-free interest rate is 5%. While reading the Financial Post, Michael notices that a one-year at-the-money European call written on stock WWW is selling for $1.90. Michael wonders whether this call is fairly priced. He uses the binomial option pricing model to determine if an arbitrage opportunity exists. What transactions should Michael enter into to exploit the arbitrage opportunity (if one exists)? (A) No arbitrage opportunity exists. (B) Short shares of WWW, lend at the risk-free rate, and buy the call priced at $1.90. (C) Buy shares of WWW, borrow at the risk-free rate, and buy the call priced at $1.90. (D) Buy shares of WWW, borrow at the risk-free rate, and short the call priced at $1.90. (E) Short shares of WWW, borrow at the risk-free rate, and short the call priced at $1.90. Exam MFE: Spring 2009 -3- GO ON TO NEXT PAGE 4. Your company has just written one million units of a one-year European asset-or-nothing put option on an equity index fund. The equity index fund is currently trading at 1000. It pays dividends continuously at a rate proportional to its price; the dividend yield is 2%. It has a volatility of 20%. The options payoff will be made only if the equity index fund is down by more than 40% at the end of one year. The continuously compounded risk-free interest rate is 2.5% Using the Black-Scholes model, determine the price of the asset-or-nothing put options. (A) 0.2 Million (C) 2.7 Million (B) 0.9 Million (D) 3.6 Million (E) 4.2 Million Exam MFE: Spring 2009 -4- GO ON TO NEXT PAGE 5. You are given the following three-period interest rate tree. Each period is one year. The risk-neutral probability of each up-move is 70%. The interest rates are continuously compounded rates. ruu = 18% ru = 15% rud = 12% r0 = 12% rdu = 12% r d = 9% rdd = 6% Consider a European put option that expires in 2 years, giving you the right to sell a one-year zero-coupon bond for 0.90. This zero-coupon bond pays 1 at maturity. Determine the price of the put option. (A) 0.012 (B) 0.018 (C) 0.021 (D) 0.024 (E) 0.029 Exam MFE: Spring 2009 -5- GO ON TO NEXT PAGE 6. X(t) is an Ornstein-Uhlenbeck process defined by dX(t) = 2[4 X(t)]dt + 8dZ(t), where Z(t) is a standard Brownian motion. Let Y(t) = 1 . X (t ) You are given that dY(t) = (Y(t))dt + (Y(t))dZ(t) for some functions (y) and (y). Determine (). (A) 9 (B) 1 (C) 4 (D) 7 (E) 63 Exam MFE: Spring 2009 -6- GO ON TO NEXT PAGE 7. The following one-period binomial stock price model was used to calculate the price of a one-year 10-strike call option on the stock. Su = 12 S0 = 10 Sd = 8 You are given: (i) The period is one year. (ii) The true probability of an up-move is 0.75. (iii) The stock pays no dividends. (iv) The price of the one-year 10-strike call is $1.13. Upon review, the analyst realizes that there was an error in the model construction and that Sd, the value of the stock on a down-move, should have been 6 rather than 8. The true probability of an up-move does not change in the new model, and all other assumptions were correct. Recalculate the price of the call option. (A) $1.13 (B) $1.20 (C) $1.33 (D) $1.40 (E) $1.53 Exam MFE: Spring 2009 -7- GO ON TO NEXT PAGE 8. Assume the Black-Scholes framework. Consider a stock and a derivative security on the stock. You are given: (i) The continuously compounded risk-free interest rate, r, is 5.5%. (ii) The time-t price of the stock is S(t). (iii) The time-t price of the derivative security is ert ln[S(t)]. (iv) The stocks volatility is 30%. (v) The stock pays dividends continuously at a rate proportional to its price. (vi) The derivative security does not pay dividends. Calculate , the dividend yield on the stock. (A) 0.00 (B) 0.01 (C) 0.02 (D) 0.03 (E) 0.04 Exam MFE: Spring 2009 -8- GO ON TO NEXT PAGE 9. You are given: (i) The current exchange rate is 0.011$/. (ii) A four-year dollar-denominated European put option on yen with a strike price of $0.008 sells for $0.0005. (iii) The continuously compounded risk-free interest rate on dollars is 3%. (iv) The continuously compounded risk-free interest rate on yen is 1.5%. Calculate the price of a four-year yen-denominated European put option on dollars with a strike price of 125. (A) 35 (B) 37 (C) 39 (D) 41 (E) 43 Exam MFE: Spring 2009 -9- GO ON TO NEXT PAGE 10. Two nondividend-paying assets have the following price processes: dS1 (t ) = 0.08dt + 0.2dZ (t ) S1 (t ) dS 2 (t ) = 0.0925dt 0.25dZ (t ) S 2 (t ) where Z(t) is a standard Brownian motion. An investor is to synthesize the risk-free asset by allocating 1000 between the two assets. Determine the amount to be invested in the first asset, S1 . (A) 333.33 (B) 444.44 (C) 555.56 (D) 666.67 (E) 750.00 Exam MFE: Spring 2009 - 10 - GO ON TO NEXT PAGE 11. Assume the Black-Scholes framework. For t 0, let S(t) be the time-t price of a nondividend-paying stock. You are given (i) S(0) = 0.5 (ii) The stock price process is dS (t ) = 0.05dt + 0.2dZ (t ) S (t ) where Z(t) is a standard Brownian motion. (iii) E[S(1)a] = 1.4, where a is a negative constant. (iv) The continuously compounded risk-free interest rate is 3%. Consider a contingent claim that pays S(1)a at time 1. Calculate the time-0 price of the contingent claim. (A) 1.345 (B) 1.359 (C) 1.372 (D) 1.401 (E) 1.414 Exam MFE: Spring 2009 - 11 - GO ON TO NEXT PAGE 12. You are given: (i) C(K, T) denotes the current price of a K-strike T-year European call option on a nondividend-paying stock. (ii) P(K, T) denotes the current price of a K-strike T-year European put option on the same stock. (iii) S denotes the current price of the stock. (iv) The continuously compounded risk-free interest rate is r. Which of the following is (are) correct? (I) 0 C(50, T) C(55, T) 5erT (II) 50erT P(45, T) C(50, T) + S 55erT (III) 45erT P(45, T) C(50, T) + S 50erT (A) (I) only (B) (II) only (C) (III) only (D) (I) and (II) only (E) (I) and (III) only Exam MFE: Spring 2009 - 12 - GO ON TO NEXT PAGE 13. Assume the Black-Scholes framework. Eight months ago, an investor borrowed money at the risk-free interest rate to purchase a one-year 75-strike European call option on a nondividend-paying stock. At that time, the price of the call option was 8. Today, the stock price is 85. The investor decides to close out all positions. You are given: (i) The continuously compounded risk-free rate interest rate is 5%. (ii) The stocks volatility is 26%. Calculate the eight-month holding profit. (A) 4.06 (B) 4.20 (C) 4.27 (D) 4.33 (E) 4.47 Exam MFE: Spring 2009 - 13 - GO ON TO NEXT PAGE 14. You are to use a Black-Derman-Toy model to determine F0,2[P(2, 3)], the forward price for time-2 delivery of a zero-coupon bond that pays 1 at time 3. In the Black-Derman-Toy model, each period is one year. The following effective annual interest rates are given: rd ru rdd ruu = = = = 30% 60% 20% 80% Determine 1000 F0,2[P(2, 3)]. (A) 667 (B) 678 (C) 690 (D) 709 (E) 712 Exam MFE: Spring 2009 - 14 - GO ON TO NEXT PAGE 15. You are given: (i) The true stochastic process of the short-rate is given by dr(t) = [0.008 0.1r(t)]dt + 0.05dZ(t), where Z(t) is a standard Brownian motion under the true probability measure. (ii) The risk-neutral process of the short-rate is given by ~ dr(t) = [0.013 0.1r(t)]dt + 0.05dZ (t ) , ~ where Z (t ) is a standard Brownian motion under the risk-neutral probability measure. (iii) For t T, let P(r, t, T) be the price at time t of a zero-coupon bond that pays $1 at time T, if the short-rate at time t is r. The price of each zero-coupon bond follows an It process: dP[r (t ), t , T ] = [r (t ), t , T ]dt q[r (t ), t , T ]dZ (t ), t T. P[r (t ), t , T ] Calculate (0.04, 2, 5). (A) 0.041 (B) 0.045 (C) 0.053 (D) 0.055 (E) 0.060 Exam MFE: Spring 2009 - 15 - GO ON TO NEXT PAGE 16. You are given the following information about a nondividend-paying stock: (i) The current stock price is 100. (ii) The stock-price process is a geometric Brownian motion. (iii) The continuously compounded expected return on the stock is 10%. (iv) The stocks volatility is 30%. Consider a nine-month 125-strike European call option on the stock. Calculate the probability that the call will be exercised. (A) 24.2% (B) 25.1% (C) 28.4% (D) 30.6% (E) 33.0% Exam MFE: Spring 2009 - 16 - GO ON TO NEXT PAGE 17. Assume the Black-Scholes framework. Consider a one-year at-the-money European put option on a nondividend-paying stock. You are given: (i) The ratio of the put option price to the stock price is less than 5%. (ii) Delta of the put option is 0.4364. (iii) The continuously compounded risk-free interest rate is 1.2%. Determine the stocks volatility. (A) 12% (B) 14% (C) 16% (D) 18% (E) 20% Exam MFE: Spring 2009 - 17 - GO ON TO NEXT PAGE 18. Consider an arbitrage-free securities market model, in which the risk-free interest rate is constant. There are two nondividend-paying stocks whose price processes are S1 (t ) = S1 (0)e0.1t + 0.2 Z (t ) , S 2 (t ) = S2 (0)e0.125t + 0.3Z (t ) , where Z(t) is a standard Brownian motion and t 0. Determine the continuously compounded risk-free interest rate. (A) 2% (B) 5% (C) 8% (D) 10% (E) 20% Exam MFE: Spring 2009 - 18 - GO ON TO NEXT PAGE 19. Consider a one-year 45-strike European put option on a stock S. You are given: (i) The current stock price, S(0), is 50.00. (ii) The only dividend is 5.00 to be paid in nine months. (iii) Var[ln Ft P ( S )] = 0.01 t , ,1 0 t 1. (iv) The continuously compounded risk-free interest rate is 12%. Under the Black-Scholes framework, calculate the price of 100 units of the put option. (A) 1.87 (B) 18.39 (C) 18.69 (D) 19.41 (E) 23.76 Exam MFE: Spring 2009 - 19 - GO ON TO NEXT PAGE 20. Assume that the Black-Scholes framework holds. Consider an option on a stock. You are given the following information at time 0: (i) The stock price is S(0), which is greater than 80. (ii) The option price is 2.34. (iii) The option delta is 0.181. (iv) The option gamma is 0.035. The stock price changes to 86.00. Using the delta-gamma approximation, you find that the option price changes to 2.21. Determine S(0). (A) 84.80 (B) 85.00 (C) 85.20 (D) 85.40 (E) 85.80 **END OF EXAMINATION** Exam MFE: Spring 2009 - 20 - STOP
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Université du Québec à Montréal - MAT - 2070
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Université du Québec à Montréal - MAT - 2070
May 2007 Exam MFE Solutions1.Answer = (B)Let D = the quarterly dividend.Using formula (9.2), put-call parity adjusted for deterministic dividends, we have4.50 = 2.45 + 52.00 D e 0.01 D e 0.025 50 e 0.03 = 54.45 D ( 0.99005 + 0.97531) 50 0.970446 .R
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Exam C, Fall 2005FINAL ANSWER KEYQuestion #AnswerQuestion #Answer123456789101112131415161718DAEBEEADBD and EDCCCADDA1920212223242526272829303132333435BABAEB and CCCABCDBBEAE*BEGIN
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Université du Québec à Montréal - MAT - 2070
Université du Québec à Montréal - MAT - 2070
Solution Manual for:Introduction to Probability Models: Eighth Editionby Sheldon M. Ross.John L. WeatherwaxOctober 26, 2008IntroductionChapter 1: Introduction to Probability TheoryChapter 1: ExercisesExercise 8 (Bonferronis inequality)From the in
Université du Québec à Montréal - MAT - 2070
CHAPITRE 1Rappels sur le calcul direntiel ` une variable.eaCest ` Wilhelm Gottfried Leibnitz (1646 1716) et ` Isaac Newton (1642 1727) que nous devonsaalinvention du calcul direntiel et intgral. Dj` depuis ses dbuts, il sest avr un outil indispensa
Université du Québec à Montréal - MAT - 2070
CHAPITRE 2Fonctions de plusieurs variables relles, drives partielles.eeeTr`s souvent les fonctions rencontres sont dpendantes non pas dune seule variable, mais plutt deeeeoplusieurs. Par exemple, si nous frappons sur la membrane dun tambour, elle
Université du Québec à Montréal - MAT - 2070
CHAPITRE 3Continuit.eCe chapitre sera bref. Nous y dcrirons la notion de continuit pour les fonctions de plusieurs variables.eeBeaucoup de rsultats sur les fonctions de plusieurs variables ne sont vris quavec lhypoth`se que celleseeeeci et leurs
Université du Québec à Montréal - MAT - 2070
CHAPITRE 4Approximation linaire, le gradient et les drives directionnelles.eeeSoit y = f (x), une fonction relle dune seule variable. La drive de f au point x = c esteeedydx=cdfdx= limch0f (c + h) f (c)het ceci peut tre rcriteey =dy
Université du Québec à Montréal - MAT - 2070
CHAPITRE 5R`gle de chaines et galit des drives partielles mixtes.eeeeeNous allons premi`rement noncer la r`gle de chaines pour une fonction f (u, v ) de deux variables u, veeeelles-mmes fonction de deux autres variables x, y .eeProposition 5.
Université du Québec à Montréal - MAT - 2070
CHAPITRE 6Maximums et minimums relatifs, optimisation.Nous allons initialement considrer dans ce chapitre que des fonctions de deux variables pour loptimisa etion sans contrainte. Cependant la thorie peut tre prsente dans un cadre plus gnral, mais alor
Université du Québec à Montréal - MAT - 2070
CHAPITRE 7Rappel sur lintgrale simple.eLes prochains chapitres traiteront de lintgration. Dans un premier temps, nous rappellerons ce questelintgrale simple (lintgration pour les fonctions dune seule variable relle), ainsi que le thor`me fondaeeee
Université du Québec à Montréal - MAT - 2070
CHAPITRE 8Intgrales doubles.eDans ce chapitre, nous dnirons lintgrale double dune fonction f (x, y ) sur une rgion borne du planeeeeet nous prsenterons quelques-unes de ces proprits. Ensuite nous verrons comment calculer ces intgraleseeeeau mo
Université du Québec à Montréal - MAT - 2070
CHAPITRE 9Intgrales triples.eDans ce chapitre, nous dnirons lintgrale triple dune fonction f (x, y, z ) sur une rgion borne de R3eeeeet nous prsenterons quelques-unes de ces proprits. Ensuite nous verrons comment calculer ces intgraleseeeeau m
Université du Québec à Montréal - MAT - 2070
CHAPITRE 10Jacobien, changement de coordonnes.eDans ce chapitre, nous allons premi`rement rappeler la dnition du dterminant dune matrice. Nouseeenous limiterons au cas des matrices dordre 2 2 et 3 3, bien que les rsultats noncs sont vrais dans une
Université du Québec à Montréal - MAT - 2070
CHAPITRE 11Applications de lintgrale multiple.eCe chapitre sera tr`s bref. Il existe un grand nombre dapplications de lintgrale multiple. Il sut deeepenser aux notions desprance et de variance en probabilits ou encore des quations intgrales. Beaucou
Université du Québec à Montréal - MAT - 2070
CHAPITRE 12Intgrales impropres, fonctions gamma et bta et transforme de Laplace.eeeDans ce chapitre, nous revenons aux intgrales simples, mais cette fois soit lintervalle dintgration, soiteela fonction ` intgrer, soit les deux ne sont pas borns. T
LSU - ISDS - 3115
CHAPTER 1: OPERATIONS AND PRODUCTIVITYTRUE/FALSE1. Some of the operations-related activities of Hard Rock Caf include designing meals and analyzing them for ingredient cost and labor requirements. True (Global company profile, easy) The production proce
RIT - PHY - 303
PHY 313 FA10QUIZ #01Dr. VivName:-&lt;extra credit question&gt;-&lt;extra credit question&gt;
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PHY 313 Fall 2010Dr. VivQUIZ#02Name:&lt;extra credit question 1&gt;&lt;extra credit question 2&gt;
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RIT - PHY - 303
PHY 313 FA 10Dr. VivQUIZ # 03Name:----&lt;extra credit question #1&gt;&lt;extra credit question #2&gt;
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PHY 313 FA 2010Dr. VivQUIZ #4Name:----&lt;extra credit question #1&gt;-&lt;extra credit question #2&gt;-
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Kettering - MECH - 115
00 introductionmy expectationsyour expectationsgradingon-line quizzeswhat I expect from you: active learningbefore classread chapter before we beginwarm-up quiz (on-line) on reading*during classthink/pair/share quizzes*be prepared with question
Kettering - MECH - 115
01 Motiondiagramsuse movie to studymotionfixed time betweenframesdon't pan the camera!usually 1/30th of a secstrobe pictures arefasterfaster objectshave greater positionchange between framesWhich car is going faster, A or B? Assume there are
Kettering - MECH - 115
02 Velocity &amp;accelerationrv(average) velocity: tvector displacement rtime interval tdraw the velocity vector vvthe same size as the displacement vectordon't forget the difference in meaning, unitsvelocity:how fast it's goingAND in what dir
Kettering - MECH - 115
03 Motion in1 dimensioncoordinate systemoriginpositive direction: conventionx: right y: upposition-time graphsposition on vertical axis(dependent variable)even if position ishorizontaltime on horizontal axis(independent variable)can pick off
Kettering - MECH - 115
04 position, velocity and accelerationif v is constant s=v s tdisplacementchange in positionarea under v(t)workbook:2.2b page 2-3displacement when v isn't constanttfs f = si v s t dttiintegral = areaunder curvebetween curve andaxisintegrat
Kettering - MECH - 115
05 problem solving: constant amodel: particle modelvisualize: shift between these as neededmotion diagrampictorial representation: labelv fs = v is a s tsolve12s f = si v is t a s t 2assess22v fs = v is 2 a s s units? sensible? believable?
Kettering - MECH - 115
06 Instantaneousaccelerationa s=d vsdt v s = a s dtfollow up:workbook 2.28page 2-16Rank in order, from largest to smallest,the accelerations aA aC at points A C.A) aA &gt; aB &gt; aCB) aC &gt; aA &gt; aBC) aC &gt; aB &gt; aAD) aB &gt; aA &gt; aCWhich velocity-vers
Kettering - MECH - 115
07 Vectors and componentsvector: magnitude &amp; directionscalar: magnitude onlyreview:follow up:Workbook 3.1-3Page 3-1Which figure showsA1 A 2 ?A1 A 2 A 3 ?multiplying a vector by a scalar. by a positive scalar. by a negative scalarfollow up: 3.