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  fortune index  all fortunes 
  
 |  |  | #4198 |  | Laws of Computer Programming: (1) Any given program, when running, is obsolete.
 (2) Any given program costs more and takes longer.
 (3) If a program is useful, it will have to be changed.
 (4) If a program is useless, it will have to be documented.
 (5) Any given program will expand to fill all available memory.
 (6) The value of a program is proportional the weight of its output.
 (7) Program complexity grows until it exceeds the capability of
 the programmer who must maintain it.
 
 |  |  |  | #4199 |  | Laws of Serendipity: (1) In order to discover anything, you must be looking for something.
 (2) If you wish to make an improved product, you must already
 be engaged in making an inferior one.
 
 |  |  |  | #4200 |  | lawsuit, n.: A machine which you go into as a pig and come out as a sausage.
 -- Ambrose Bierce
 
 |  |  |  | #4201 |  | Lawyer's Rule: When the law is against you, argue the facts.
 When the facts are against you, argue the law.
 When both are against you, call the other lawyer names.
 
 |  |  |  | #4202 |  | Lazlo's Chinese Relativity Axiom: No matter how great your triumphs or how tragic your defeats --
 approximately one billion Chinese couldn't care less.
 
 |  |  |  | #4203 |  | learning curve, n.: An astonishing new theory, discovered by management consultants
 in the 1970's, asserting that the more you do something the
 quicker you can do it.
 
 |  |  |  | #4204 |  | Lee's Law: Mother said there would be days like this,
 but she never said that there'd be so many!
 
 |  |  |  | #4205 |  | Leibowitz's Rule: When hammering a nail, you will never hit your
 finger if you hold the hammer with both hands.
 
 |  |  |  | #4206 |  | Lemma:  All horses are the same color. Proof (by induction):
 Case n = 1: In a set with only one horse, it is obvious that all
 horses in that set are the same color.
 Case n = k: Suppose you have a set of k+1 horses.  Pull one of these
 horses out of the set, so that you have k horses.  Suppose that all
 of these horses are the same color.  Now put back the horse that you
 took out, and pull out a different one.  Suppose that all of the k
 horses now in the set are the same color.  Then the set of k+1 horses
 are all the same color.  We have k true => k+1 true; therefore all
 horses are the same color.
 Theorem: All horses have an infinite number of legs.
 Proof (by intimidation):
 Everyone would agree that all horses have an even number of legs.  It
 is also well-known that horses have forelegs in front and two legs in
 back.  4 + 2 = 6 legs, which is certainly an odd number of legs for a
 horse to have!  Now the only number that is both even and odd is
 infinity; therefore all horses have an infinite number of legs.
 However, suppose that there is a horse somewhere that does not have an
 infinite number of legs.  Well, that would be a horse of a different
 color; and by the Lemma, it doesn't exist.
 
 |  |  |  | #4207 |  | leverage, n.: Even if someone doesn't care what the world thinks
 about them, they always hope their mother doesn't find out.
 
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