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PAPERS DISCUSSION IN ECONOMICS Working Paper No. 05-01 Attorney Fees in Repeated Relationships Brad Graham Department of Economics, University of Colorado at Boulder Boulder, Colorado Jack Robles School of Economics and Finance, Victoria University of Wellington Wellington, New Zealand January 2005 Center for Economic Analysis Department of Economics University of Colorado at Boulder Boulder, Colorado 80309...

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PAPERS DISCUSSION IN ECONOMICS Working Paper No. 05-01 Attorney Fees in Repeated Relationships Brad Graham Department of Economics, University of Colorado at Boulder Boulder, Colorado Jack Robles School of Economics and Finance, Victoria University of Wellington Wellington, New Zealand January 2005 Center for Economic Analysis Department of Economics University of Colorado at Boulder Boulder, Colorado 80309 2005 Brad Graham and Jack Robles Attorney Fees in Repeated Relationships Brad Graham Department of Economics University of Colorado at Boulder Boulder, CO 80309 Phone: (303)492-4288; Email: Bradley.Graham@colorado.edu Jack Robles School of Economics and Finance Victoria University of Wellington Wellington, New Zealand Phone: 64-4-463-7492; E-mail: Jack.Robles@vuw.ac.nz Revised January 2005 Abstract: We consider the optimal contract between a law firm and a corporate client involved in a repeated relationship. In contrast to the previous literature pertaining to one time interactions between clients and attorneys, we find that the contingent fee is not the best arrangement. Rather, we find the optimal contract to include an hourly fee equal to the law firm's opportunity cost, a lump sum, and a termination function. The lump sum payment is independent of the number of hours worked by the law firm and the outcome of the case. The repeated nature of the relationship along with the client's ability to replace the law firm at zero cost, allows the client to create a termination function that gives the law firm the probability that the client will terminate the relationship after the current case. The combination of all three of these contractual elements induce the law firm to exert the optimal level of effort in the current case in order to continue the relationship and obtain the lump sum payment in future cases. JEL Classification Number: K0, L14 1 1. Introduction When hiring an attorney, a client has many possible employment contracts from which to choose. The client may choose to pay a fixed fee or an hourly fee for the attorney's services. Alternatively, the client may prefer, or the attorney may require, a contingent fee that compensates the attorney by paying him a fixed percentage of the client's trial or settlement award. The merits of contingent fee compensation, as compared to an hourly or fixed fee, have been considered both by lawmakers and economists. While lawmakers tend to be somewhat skeptical of contingent fees, economists have largely supported their use.1 The typical reasoning in favor of the contingent fee stems from the familiar moral hazard problem. That is, if attorney effort is not observable, then an hourly or fixed fee arrangement will not induce the attorney to exert the effort necessary to maximize the client's expected award. The contingent fee, by giving the attorney a stake in the final award, will induce the attorney to put forth a more efficient level of effort (Danzon (1983).)2 Contingent fees have been found to be more efficient than hourly or fixed fees in a number of other settings as well.3 1 However, Schwartz & Mitchell (1970) find the hourly fee to be more desirable than the contingent fee. 2 Halpern and Turnbull (1983) and Santore and Viard (2001) argue that a 100% contingent fee is optimal. 3 Contingent fees have been deemed desirable when clients are risk averse (Danzon (1983)), the attorney has better information regarding the merits of the case than the client (Dana and Spier (1993), risk sharing is appropriate (Posner (1986)), information is asymmetric (Rubinfeld and Scotchmer (1993)), and clients cannot afford hourly or fixed fees (Rhein (1982)). 2 In practice, however, we observe that contingent fees are not always used to compensate attorneys. For example, corporate clients with outside counsel tend to enter into fewer contingent fee contracts than the typical plaintiff.4 One reason for this might be that corporate clients are more informed about the merits of their cases than the average plaintiff.5 Another possible explanation may be that corporate plaintiffs are involved in more litigation than the average plaintiff and frequently use the same law firms for multiple cases. A law firm, therefore, must consider the impact of its effort on any single case on the continuing relationship with the corporate client. We argue that the best method for assuring that the firm makes an optimal effort is through the firm's desire to maintain the relationship. We show that in repeated relationships between law firms and corporate clients the contingent fee is no longer the optimal compensation arrangement. Rather, a fee that combines an hourly fee, a lump sum, and a "termination function" is the optimal mechanism. The termination function gives the probability that the client will choose to discontinue its relationship with the law firm based on the law firm's performance in previous cases. It is assumed that the termination function is an explicit element of the contract between the client and law firm. We discuss the realism of this assumption below. Further, we find that the termination function can take a very simple and intuitive form. In particular, it follows directly from realized payoffs and client risk preferences. 4 5 Kritzer, et al. (1985). See Dana and Spier (1993). 3 The combination of all three contractual elements create the optimal incentives for the law firm to provide the efficient level of effort. The hourly fee is set at exactly the opportunity cost of the law firm's time.6 The lump sum payment is independent of the outcome of the case and the law firm's performance.7 Thus, the incentive for the law firm to exert optimal effort is not based on the current case but solely on future cases. Given these three contractual elements, the incentive for the law firm to make the efficient level of effort is based on the likelihood of receiving future cases and the lump sum payment associated with those cases. Since the likelihood of receiving future cases is determined by the realized payoff in the current case, the firm acts to satisfy the client in the current case. The repeated nature of the relationship allows the client to set a contract such that the law firm cares about the full realized payoff in the current case rather than the fraction of the payoff it will receive, as is the case with contingent contracts. As noted above, the previous literature regarding attorney fees has largely found that contingent fee arrangements provide better incentives than hourly fee agreements. However, neither type of fee arrangement provides perfect incentives for the attorney.8 The contract we propose, however, creates perfect incentives for the law firm. In our setting, use of a contingent fee or an hourly fee not equal to the law firm's opportunity costs can only distort choices away from efficiency. Thus, in the optimal contract the 6 7 The law firm's opportunity cost is assumed to be the wage it can receive elsewhere. We examine possible sources of the lump sum in the discussion below. 8 Only a 100% contingent fee would completely solve the moral hazard problem but this arrangement is not legally permissible. See Danzon (1983),Halpern and Turnbull (1983) and Santore and Viard (2001). 4 contingent fee is set to zero and the hourly fee must be exactly equal to the law firm's opportunity costs. We presume that the client may terminate his relationship with the attorney at any time. However, this assumption is more restrictive than necessary. As long as the client can reduce the intensity of the relationship at low cost, then our results remain intact. Evidence suggests that corporate clients are able to reduce the intensity of a relationship with one law firm at nearly zero cost from the common use of "preferred counsel" lists that are maintained by many Fortune 500 companies.9 Preferred counsel lists are created by corporations to inform managers which law firms have been approved for use in a particular type of case without the need for additional approval. Many companies list multiple law firms under each case type. The law firms are informed of their placement on the list and of removal from the list. Thus, if a corporate client wished to punish a law firm for providing insufficient effort it could simply give a larger share of the cases to one of the other approved firms.10 Additionally, the corporation could remove the law firm from the preferred counsel list altogether. In a recent survey of the Fortune 250 corporations11, general counsels indicated a willingness to remove law firms from their preferred counsel lists if those firms showed complacency, neglect or charged excessive fees. Companies also state that they reduce 9 We discuss this evidence in more detail in the results section. See Jones (2003). 11 See Jones (2003). 10 5 the volume of cases they give to a particular law firm if they are unhappy with its performance. We are not the first authors to suggest that a mixed fee arrangement may be optimal. For example Clermont and Currivan (1978) propose a mixture of hourly and contingent fees to solve the moral hazard problem. Likewise, Rubinfeld and Scotchmer (1993) find that a combination of fixed and contingent fees is optimal when information is asymmetric. Of course, these authors focus on one time interactions where as we consider repeated interactions between the attorney and client. 2. Model Consider the interactions between a corporate customer and a law firm. We assume that the corporate customer is the plaintiff, P, so that contingent fees can be contracted upon realized outcomes.12 The law firm is represented as F. Let i = [i1,i2 ] denote a vector of variables that characterizes a particular legal case. We presume that part of this vector, i1 , is observable by both plaintiff and law firm, but the remainder, i2 , is observable only by the law firm. Further, we presume that i2 is not reportable or verifiable.13 The time spent on the case by the law firm is h .14 The reward for the case is the random 12 13 See supra. i2 may represent private knowledge of the attorney's ability as in Rubinfeld and Scotchmer (1993), private knowledge of the merits of the case as in Dana and Spier (1993), or some other private information. 14 We assume that the number of hours spent on the case by the law firm is observable. 6 variable A(i,h ) .15 Of course, if the plaintiff loses his case, then A(i,h ) = 0 . The cost of time is c for the law firm. Let B(i,h ) = U ( + A(i,h ) - ch ) - U () , where U() is the client's von Neumann-Morgenstern (v.N-M) utility function and is the client's initial wealth. We presume that there is a maximum number of hours for the law firm to spend on a case and that there is an upper bound to the possible payoffs from the case. Then, given the plaintiff's knowledge of i1 , the plaintiff knows that B b,b . Throughout, a hatted variable denotes the expected value of that variable, prior to the case. This expectation is taken with, the law firm's, full knowledge of i . For example, [ ] ^ ^ A(i,h ) = E [ A(i,h)] and B(i,h ) is the increase in expected utility from the case. We define h * as the solution to maxU ( + A(i,h ) - ch ) - U () h (1) ^ ^ Let A * (i) = A(i,h *) and B * (i) = B(i,h *) . 3. One Shot Contracts 3.1 The One Shot Wage Contract Let us first consider an hourly fee in a one shot contract. We follow the approach set forth in Danzon (1983). We presume that when the law firm bills for time within a one shot relationship it charges w = c . A subscript w denotes that we are considering a one 15 The reward includes the possibility settlement. of 7 shot wage contract. Let p(i,hw ) be the probability of positive recovery by the plaintiff. We now assume that the law firm's effort can be specialized to add value to p or A ^ 2 separately. Then A(i,hw ) = p(i,h1 ) A(i,hw ) , where h1 represents the law firm's hours that w w increase the value of p and h represents the law firm's hours that increase the value of 2 w A . Let subscripts 1 and 0 on the utility function represent states where the plaintiff receives a positive award and a non-positive award respectively. Throughout we assume that the law firm is risk neutral. 2 The plaintiff selects h1 and hw to maximize his expected utility: w 2 2 max pU + A - w( h1 + hw ) + (1- p)U - w ( h1 + hw ) . w w 1 2 h w ,h w [ ] [ ] (2) The first order conditions for the plaintiff are: p A U'1 =w ^ h1 B w (3) p (U1 - U 0 ) = w, 2 ^ h w B (4) ^ where B = pU'1 + (1- p)U'0 is the expected marginal utility. We will compare these results to our analysis on the one shot contingent fee contract. 3.2 The One Shot Contingent Contract In the context of the one shot contingent contract, we assume that law firms competitively bid for the plaintiff's case. This implies that the plaintiff's expected utility 8 will be maximized subject to the constraint that the law firm will be able to cover the opportunity cost of its time. A subscript denotes that we are considering a contingent 1 2 contract. The law firm selects h , h and to: 1 2 max pU [ + A(1- )] + (1- p)U [] + pA - w( h + h ) . 1 2 h ,h , , [ ] (5) Maximizing with respect to implies = U'1 . Using this, the first order conditions are: p A =w 1 h (6) p U1 - U 0 + A = w . 2 ^ B h (7) Comparing equations (3) and (6) we can see that for a given p , the recovery is maximized under a contingent fee arrangement but not with the hourly wage contract. However, the sign on p is ambiguous since we are unsure how plaintiff risk aversion 2 2 affects hw and h . Thus, we cannot be sure that the contingent contract will induce optimal effort on the part of the law firm. Further, Danzon shows that if the value of is constrained below one, then the contingent contract will not lead to an efficient outcome. ^ ^ In a slightly different model, Danzon also argues that B(i,hw ) < B(i,h ) < B* (i) . We are not concerned with the relative merits of one shot contracts. Rather, we set ^ ^ B = max{B(i,hw ), B(i,h )} , and work with the fact that B(i) < B* (i) . 9 4. Repeated Interactions In a repeated relationship, the plaintiff might want to set either the contingent payment or the wage rate differently. We give the power to terminate the relationship to the plaintiff.16 We make the presumption that if the relationship is terminated, then the plaintiff will meet with another law firm and arrive at an identical contract. We further presume that there is no transaction cost associated with finding the new firm.17 These two presumptions lead us to the following: within equilibrium, the plaintiff is always indifferent between terminating the contract and continuing the contract. Consequently, the plaintiff makes his decisions as if he were looking at a one shot contract. In addition, the plaintiff will not hesitate to terminate the relationship if that is the outcome of his decision rule. Therefore, we do not need to make any presumption about his commitment to terminate the relationship. 4.1 A Simple Model The parties enter into a repeated contract (L,w, ,T()) . Here L denotes a lump sum that the law firm receives independent of hours worked, or money awarded. For simplicity, we assume that L is independent of i . L is a portion of the expected surplus from the case. The expected surplus must be positive for the law firm to receive any lump sum We could also give the firm the ability to terminate the relationship but if the firm can terminate the relationship it doesn't affect the client as long as it is costless for the client to create a contract with another firm. 17 If we assume that the plaintiff has more than one firm on its preferred counsel list then we can imagine the plaintiff reducing the number of cases given to this firm and increasing the caseload for the other firms on the list. 16 10 payment. Also, L must be small enough that the plaintiff prefers this contract to other types of contracts and not filing the case at all. However, we know that other types of contracts are less efficient and, therefore, there must always exist an L that is mutually beneficial in our contract as long as the case is worth filing. The termination function, T () , depends on the characteristics, i , and outcome, A , of the current case. This function allows the plaintiff and law firm to calculate the probability that the plaintiff terminate relationship its with the law firm after the current case. will According to the industry survey referred to above, corporate general counsels routinely add and remove law firms from their preferred counsel lists. The law firms are notified when they are removed from the list and at least one general counsel notifies the public of a change through a press release. Thus, law firms can infer the likelihood of their removal from the list from the actions of the plaintiff over time. We include this likelihood as an explicit contractual element. We found above that the wage contract alone cannot create the proper incentives. Now ^ ^ consider the incentives of the law firm. Let Vt denote the value function for the firm. Vt is the expected value of future streams of income from the relationship with the plaintiff. Let denote the discount rate, and T ( A,h ) denote the probability that the plaintiff continues the relationship. Notice that the function T ( A,h ) depends only upon the ^ current period. Of course T ( A,h ) denotes the expectation of T ( A,h ) . Belman's equation yields: 11 ^ ^ Vt = Lr + A + ( w r - c ) h + T ( A,h )Vt +1 (2) Because none of the variables depend upon the past, the equation simplifies to ^ ^ L + A + (w r - c) h Vt = r ^ 1- T (A,h) (3) The first order condition for the law firm is dV = dh ( ^ ^ dA dT ^ ^ + w r - c)(1- T ) + [Lr + A + (w r - c)h] dh dh = 0 ^ )2 (1- T (4) ^ We know that T ( A, C ) < 1 . If the expected profit for the firm is zero, then the plaintiff and law firm have entered into a contract that is little different from a one shot deal. In particular, the law firm has no reason to care about the termination of the contract. This would leave the client with a contract with the shortcomings discussed in the previous ^ section. Therefore, we need L + A + ( w r - c ) h > 0 so that the termination probability will matter to the law firm. With this presumption, the first order condition may be transformed to ^ dA ^ + w r - c)(1- T ) ^ ( dT dh = ^ dh Lr + A + (w r - c)h [ ] (5) 12 Notice that we can set this to ^ dT = 0 if w r = c and = 0 . The plaintiff can use equation dh (5) to design a T ( A,h ) yielding an optimal contract given any value of w r and r . If w r - c = 0 = r , then T ( A,h ) may be designed without the knowledge of either h or . Further, we shall see below that in this case T ( A,h ) takes on a form which would be rather transparent to the firm. On the other hand, if w r c or 0 , then the plaintiff must know at least h * to design T ( A,h ) . If r A * +( w r - c ) h* 0 , then the client must also know . We see that the law firm's incentives are determined entirely by the termination function. In the end, it the lump sum payment on future cases that is motivates the law firm to choose the optimal effort on the current case. We now consider the case in which w r = c , r = 0 and Lr > 0 , and ask: can we arrive at a function T which yields the proper incentives for the law firm? The answer to this question is yes. Recall that B = U ( + A - ch U () is the v.N-M utility gain from the )- ^ law firm's effort, and the client would like the law firm to maximize B . We wish to use B to construct T , which is a probability. With this in mind, recall that given i1 , the plaintiff knows that B b,b . We set X = (B - b) b - b . [ ] ( ) We begin the simple case where T = X . Notice that with ^ ^ dT 1 dB = =0 dh b - b dh ( ) (6) 13 ^ is the first order condition from above. By the definition of h *, B is increasing for h < h * and decreasing for h > h * . Hence, the first order condition requires that h = h * . 4.2 Additional Signals The mechanism found above is set in its simplest form to make its nature clear. In this section, we consider a pair of modifications to the mechanism that maintain its main implications while adding flexibility. In particular, we want to show that the client may consider other sources of information relevant to its relationship with the law firm. We would also like the client to have the ability to be a bit more pragmatic regarding the probability of ending a relationship. We first consider the integration of other information into the client's termination decision. Let the plaintiff receive some other signal Y [0,1] concerning the performance of the law firm. Y is a random variable, the distribution of which is a function of h . In particular, if h1 - h * < h 2 - h * , then Y (h1 ) First Order Stochastically dominates Y (h 2 ) . That is, the signal Y is informative and unbiased. ^ Further, Y is a quasiconcave function and is maximized at h = h * . Let Z = Y + (1- )B , where represents the weight that the plaintiff puts on his two available signals. Now let a [0,1) be some base probability of not terminating the relationship. The higher is a , the lower the chance that the plaintiff will change the relationship with this law firm. We set T = a + ( - a )Z . We notice that 1 14 ^ ^ dT dZ = ( - a) 1 =0 dh dh (7) is the first order condition from above and ^ ^ ^ dZ dY (1- ) dB = + dh dh (b - b) dh (8) ^ ^ By presumption both Y and B are increasing for h < h * and decreasing for h > h * . Hence, the first order condition requires again that h = h * . If we set a = 0 , and = 0 , ^ ^ we arrive at T = X which is the simple contract we examined above. 5. Discussion We have shown that the contingent fee is not the optimal contract between a corporate plaintiff and a law firm. This result is contrary to the previous literature involving the optimal contract between an individual client and an attorney. In the literature it was found that the contingent fee contract corrected many of distortions created through the information asymmetry between the client and the attorney by giving the attorney a stake in the final outcome of the case. We have shown that in repeated interactions between corporate plaintiffs and law firms, two factors lead to a correction of the distortions without the need of contingent contracts. 15 The first is the ability of the plaintiff to change law firms at no cost. In creating preferred counsel lists, corporations establish contracts with potentially many law firms for a wide variety of legal cases. Thus, if the corporation wishes to end its relationship with one law firm it is able to redistribute the caseload to the other firms on the list without the need for extensive negotiations (they could simply modify the contracts in place) or an expensive search for a new law firm. By maintaining a substantial number of firms on the preferred counsel list, the client is in a way treating the cost of terminating a relationship as sunk. That is, the cost of the current termination is zero, because there are other firms on the list. However, in order to prepare to terminate a future firm, the client must find a new firm to add to the list first. Since this search takes place over time its cost may be somewhat mitigated. As long as the corporate client can switch firms at no cost, it can treat each legal case as a one-time contract and be indifferent between ending and extending the relationship with the law firm to additional cases. Second, the law firm wishes to represent the client in future cases. The contract we propose consists of an hourly wage, a lump sum payment and a termination function. The hourly wage is set to exactly cover the law firm's opportunity costs. The lump sum payment is independent of the outcome of the current case and the law firm's performance. Finally, the termination function allows the plaintiff and attorney to calculate the probability that the client will terminate its relationship with law firm after the current case. This function is dependent on the outcome of the current case and the law firm's performance in the current case. These three contractual elements create 16 optimal incentives for the law firm in the current case because it wishes to receive the lump sum payment in future cases. The presence of the lump sum payment, L , in our contract is a unique feature of our model. As stated above, L is some positive share of the expected surplus of the case. L must also be small enough that the client prefers our contract to the contingent and hourly fee contracts. The precise value of L in the optimal contract is determined through bargaining. If we presume that the contingent fee contract is preferable to the hourly fee, then one possibility is that the client and law firm simply split the expected surplus from our contract. That is, L = ^ ^ A(i,h *) - A(i,h ) . The considerations involved in bargaining 2 over the value of L depend on its particular interpretation. There are a number of possible interpretations of L . First, in every case the law firm will incur administrative costs such as photocopying, filing, telephone calls, etc. that are often borne by the law firm. L could be used to cover these administrative costs. Second, in any given case there is some likelihood that the client will dispute the expenses billed by the law firm. The law firm looking at a set of cases may transform this likelihood into an expected fixed cost. Then L could be an amount of expenses that the client agrees he will not dispute. If the client becomes dissatisfied with the law firm's performance, he could decrease the amount of L . One could think of this as requiring a more detailed reporting of billable hours for example. Finally, L might represent what is known as a "pure retainer." A pure retainer is a payment to the law firm that is not related to any 17 specific service but rather to ensure that the law firm will be available to the client and that it will not represent any parties adverse to the client.18 Another unique feature of our model is that we are implicitly presuming that t...

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Collaborative Design with Use Case ScenariosLynne DavisDLESE Program CenterMelissa DaweCenter for LifeLong Learning and Design Dept. Of Computer Science University of Colorado at Boulder 303 492-4932University Corporation for Atmospheric Resea
Colorado - PDF - 2008
Lecture 6: GENETIC TRANSFER in the Lab and in the EnvironmentText: Read pp. 294-311 (267-287 in 11th.) re. DNA transfer mechanisms and carriers. This is a pretty good introductory overview of what we know. I suspect, however, that we don't know muc
Colorado - PDF - 4350
Lecture 6: GENETIC TRANSFER in the Lab and in the EnvironmentText: Read pp. 294-311 (267-287 in 11th.) re. DNA transfer mechanisms and carriers. This is a pretty good introductory overview of what we know. I suspect, however, that we don't know muc
Colorado - PDF - 2008
Vignette: Probiotics&quot;Probiotics&quot; is the emerging field of using &quot;good&quot; microbes to combat &quot;bad&quot; ones, and to do potentially lots of other things to contribute to human health. BIG future. Some early entries, some historical lore: - Lavage-cures for
Colorado - PDF - 4350
Vignette: Probiotics&quot;Probiotics&quot; is the emerging field of using &quot;good&quot; microbes to combat &quot;bad&quot; ones, and to do potentially lots of other things to contribute to human health. BIG future. Some early entries, some historical lore: - Lavage-cures for
Colorado - PDF - 2008
Crenarchaeota in the environment What are they doing for a living?Known Bacterial Phylogenetic DivisionsAccumulation of Archaeal rRNA SequencesKarner, Nature 409: 507-10, 2001Karner, Nature 409: 507-10, 2001Ingalls et al, PNAS 103:6442-7, 2
Colorado - PDF - 4350
Crenarchaeota in the environment What are they doing for a living?Known Bacterial Phylogenetic DivisionsAccumulation of Archaeal rRNA SequencesKarner, Nature 409: 507-10, 2001Karner, Nature 409: 507-10, 2001Ingalls et al, PNAS 103:6442-7, 2
Colorado - PDF - 2008
Colorado - PDF - 4350
Colorado - MCDB - 4300
Antigen-Antibody InteractionsImmunologist's Toolbox-The interaction between an antibody and an antigen involves various non-covalent interactions between the antigenic determinant, or epitope, of the antigen and the variable region (VH-VL) domain o
Colorado - MCDB - 4300
AutoimmunityJaneway ch 13, pages 557-596Self-tolerance Upon encountering an antigen, the immune system can either develop an immune response or enter into a state of unresponsiveness called tolerance Generation of self-tolerance requires that t
Colorado - INFRMR - 2
BIBLIOGRAPHY FOR PUBLIC RISK COMMUNICATION ON WARNINGS FOR PUBLIC PROTECTIVE ACTIONS RESPONSE AND PUBLIC EDUCATION* (Revision 4)Dennis S. Mileti Rachel Bandy Linda B. Bourque Aaron Johnson Megumi Kano Lori Peek Jeannette Sutton Michele WoodSeptem
Colorado - INFRMR - 2
Number 2+PHQTOGT0CVWTCN *C\CTFUNovember 19992WDNKE 'FWECVKQP HQT 'CTVJSWCMG *C\CTFUD[ 5CTCJ 0CVJG 2CWNC )QTK /CTLQTKG )TGGPG 'NK\CDGVJ .GOGTUCN CPF &amp;GPPKU /KNGVK Why Educate about Earthquakes? 6JG IQCN QH OQUV RWDNKE GFWECVKQP GHHQTVU KU VQ
Colorado - INFRMR - 2
ANNOTATED BIBLIOGRAPHY FOR PUBLIC RISK COMMUNICATION ON WARNINGS FOR PUBLIC PROTECTIVE ACTIONS RESPONSE AND PUBLIC EDUCATION* (Revision 4)Dennis S. Mileti Rachel Bandy Linda B. Bourque Aaron Johnson Megumi Kano Lori Peek Jeannette Sutton Michele Wo
Alabama A&M University - SAS - 106
ALABAMA A&amp;M UNIVERSITY School of Art and Sciences Department of Physics Course Outline Spring 2008Instructor: Dr. Mostafa Dokhanian Course Number: PHY106 Section 3 Call Number: 3455 Course Title: Physics II Class Schedule: 18:00-20:30 Tu-Th Class Lo
Alabama A&M University - SAS - 106
ALABAMA A&amp;M UNIVERSITY School of Art and Sciences Department of Physics Course Outline Spring 2009Instructor: Course Number: Call Number: Course Title: Class Schedule: Class Location: Office Location: Office Hours: Course Credit: Text: e-mail: web:
Alabama A&M University - SAS - 101
PHYSICAL SCIENCE Course Outline Phys 101 Instructors Name: Course Number: Class Location: Time Text: Course Credit: Class Home Page: Office Hours: Office Location: Office Phone: E-mail: Dr. Marius Schamschula PHY 101 Section 3, Call # 3290, Spring 20
Alabama A&M University - SAS - 106
Some helpful constants and Equations:e = 1.60 1019 C kq1 q2 F12 = 2 r12 r12 k = 8.99 109 N m2 /C 2 E= F qo kqi 2 riP riP EiPiEiP = EP = net =S oE ndA = QInsideo= 8.85 1012 C 2 /N m2 1 ER = 2k = R 2 o R kQz Ez = 3/2 (z 2 + a2 )
Alabama A&M University - SAS - 101
Formulas for PHY 101: Exam 2W = Fd W P = t 1 KE = mv 2 2 P E = mgh p = mv Eo = mc2 c = 2.99 108 m/s g = 9.8 m/s29 TF = TC + 32 5 5 TC = (TF 32 ) 9 Q = mcT cwater = 4.2 kJ/kg C m d= V F p= A p1 V2 = p2 V1 V1 T1 = V2 T2 TK = TC + 273 p1 V 1 p2 V
Alabama A&M University - SAS - 101
e = 1.6 10-19 C F =K Q1 Q2 R2K = 9 109 N m2 /C 2 I= Q t V RI=P = IV N1 V1 I2 = = N2 V2 I1 v = f T = 1 f h nh =
Alabama A&M University - SAS - 106
!! &quot; !8@9 = &quot; #!HE:HH &amp;G9B % = 8 C/ 8 !G;E@ 1/&quot; # 8E@D;F =BC/ # 8ED =BC/ ! !8@9 = $ 8E@!= &quot;8:&quot;! &quot;#*3!)$32&amp;(!*3!4702(!9E9GI!&amp;$33!(#41!(#$!$J4'(!&gt;4&amp;2$!07(4*1$,!*1!?#AE!&quot;#*3!3255$3(3! Homework Chapter 22 (#4(!(#$!&amp;*1$!0K!'#4)5$!*3!(00!&amp;015!K0
Alabama A&M University - SAS - 106
% V $ ,37,)A1+7 ; , 8 ) :&quot; ) &quot;)3+ !&quot; #( * - )!# ( *3+ 8 + *3+ ) 8 . *3+ 9 8 % ) &amp; $ &gt;399 56 Electrostatic Potential Difference, Electrostatic Energy and Homework Chapter 23 Electric Field! !&quot;#-%.!/0(!&quot;1!2!&quot;*!2!)3+!&quot;!$&lt;=!&quot;)!2!.)3+!&quot;4! 19 J!%8/1
Colorado - MATH - 4310
Math 4310 Homework #12 due Wednesday, December 12 1. Let f (x) be the zero function. Prove that fn (x) = xn does not converge uniformly to f , but that gn (x) = xn (1 - x) does converges uniformly to f . (On the interval [0, 1].) Solution: Obviously
Colorado - CALC - 3
Line Integrals - work, circulationLine Integrals of functions:Let C be a piecewise smooth curve from P to Q, smoothly parameterized by r(t) = x(t), y(t), z(t) , a t b. Let f (x, y, z) be a real valued function. Then the line integral along C of f
Colorado - CSCI - 4202
Support Vector MachinesGreg GrudicGreg GrudicMachine Learning1No Class on Thursday! However, I would like you to attend a talk I am giving on Thursday: Time: 3:30pm-4:30pm Location: ECCR 265 Title: Regression and Classification Models
Colorado - CSCI - 4202
Class Project: Artificial Intelligence 2: Machine Learning CSCI 4202Greg GrudicGreg GrudicMachine Learning1Most Supervised Learning Algorithms Build Models That Just Predict OutputsGiven data:(x1 , y1 ),., (x N , yN )A model is compute
Colorado - ECEN - 3320
Problem 3.1SolutionConsider a gold-GaAs Schottky diode with a capacitance of 1 pF at -1 V. What is the doping density of the GaAs? Also calculate the depletion layer width at zero bias and the field at the surface of the semiconductor at -10 V. T
Colorado - CSCI - 6268
Foundations of Network and Computer SecurityJohn BlackLecture #30 Nov 26th 2007CSCI 6268/TLEN 5831, Fall 2007vulnerable.cvoid main(int argc, char *argv[]) { char buffer[512]; if (argc &gt; 1) strcpy(buffer,argv[1]); } Now we need to inject our s
Colorado - CSCI - 6268
Foundations of Network and Computer SecurityJohn BlackLecture #18 Oct 28th 2004CSCI 6268/TLEN 5831, Fall 2004Announcements Quiz #3 Thurs, Nov 4th A week from todayHow to Derive Shell Code? Write in C, compile, extract assembly into machin
Colorado - CSCI - 6268
Foundations of Network and Computer SecurityJohn BlackLecture #10 Sep 29th 2005CSCI 6268/TLEN 5831, Fall 2005Announcements Reading: Groups and RSA Get from the schedule page Midterm Results High: 91 Median: 70 Mostly happy with results
Colorado - CSCI - 6268
Professor John R. Black University of Colorado at Boulder Fall 2005CSCI 6268 Notes on Groups and RSAThese are some rough notes for the lectures we did recently concerning groups and related notions in number theory and RSA cryptography. Denition 1
Colorado - CSCI - 6268
Foundations of Network and Computer SecurityJohn BlackLecture #22 Nov 17th 2005CSCI 6268/TLEN 5831, Fall 2005Announcements Project #2 is due on Nov 29th Quiz #3 is due on Dec 1st Project #3 is due on Dec 8th, last day of classIf we know wh
Colorado - CSCI - 6268
Foundations of Network and Computer SecurityJohn BlackLecture #16 Oct 25th 2005CSCI 6268/TLEN 5831, Fall 2005Announcements Project #1 is assigned See web page for description and cacert.pem Due Thurs, Nov 3rd (distance students too!) Note: