PREFACE
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Comments (LaTex
notation used)
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Change "four" to "three"
and "2-5" to "2-7"
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8 and move the sentence to line 39
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II contains Chapters 6 and 7 which introduce algebraic
and combinatorial circuits and parallel machine models,
respectively."
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It" and move sentence after line 35.
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CHAPTER 1
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Comments (LaTex
notation used)
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{\bf alphabet} is a finite set with at least two elements."
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to "empty string".
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"(green,1)".
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"codomain".
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and around f(x) and g(x) on line -6.
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after "strings" (twice) -
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n^2/16.
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"outputs".
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CHAPTER 2
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Change "range" to "codomain".
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Change x_1^1 x_2^0 x_3^1 = 1
to x_1^1 \vee x_2^0 \vee x_3^1 = 0.
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Change (1,0) to (0,1) twice.
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bold.
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Change M_{int}(n) to
M_{int}(n,c)
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Insert "O(3^{\log_2 n})"
after =
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Add \pi_L^{(n)} before f_mult
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After s. add "and
$\pi_L^{(n)}$ is the projection operator defined on page 50."
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Replace "continuous" by
"twice continuously differentiable".
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"tangent".
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"convex".
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third to >=
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(n+1) twice on line 5 and once on line 15
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The above error on page 75
introduces small errors on lines 15, 16, 23, 26, 27, and 31-34. Click here to
see the corrections.
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Add "even" at the end of the
line.
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Change the first two
subscripts on the e's to 0 and 1.
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Change "Each vertex has
fan-in 2, no" to "The root has two descendants as does every
other vertex except for leaves which have none. No"
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Replace (d+1)N(d) by N(d+1)
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Delete the superscript (n)
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Add 1 to \lceil \log_2 n
\rceil
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Change 2^{n-1} to 2^n -1, 3
2^{n-1} to 2^{n+1}, and -1 on the right.
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integral from n+1 to n
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Add "(each vertex except a
leaf has two descendants)" after "binary tree".
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Change "depth two and b)
depth 4" to "depth one and b) depth 3"
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Replace the statement of
Prob. 2.12 b) by "Show that the size and depth of a dual-rail
logic circuit for a function $f: {\cal B}^{n} \mapsto {\cal B}$
are at most twice the circuit size (plus the NOTs for the
inputs) and at most one more than the circuit depth of $f$ over
the basis \{{\sc and}, {\sc or}, {\sc not}\}, respectively."
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Change n log n to n log^2
n
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Change "B^n -> B^n" to B^n ->
B^{kn}"
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Add "0 < q < 2 ^k < \log_2 n"
after comma
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CHAPTER 3
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Change "smaller" to "larger"
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Change C_{\Omega} to D_{\Omega}
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(n)
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Replace \delta_1, \lambda_1,
\delta_1, \lambda_1 with "C_{\Omega}(\delta, \lambda) and
D_{\Omega}(\delta, \lambda)"
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Insert "c," after "choice
input,"
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Replace (q,a) with (q,a,c)
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The exposition on these pages
will be improved in the next printing.
(Click here to see the improvements.)
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Change "machine" to "memory"
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Change x-1 to x and "itself"
to "zero".
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Add new line: "CLR R_0
Clear the contents of R_0"
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Add "Unbounded-Memory"
between "the" and "RAM"
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Delete "if M is in C and" and
add the phrase "(A stronger definition requiring that M also be in C
is used in Section 3.8.)" after sentence.
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Add "input address" after
"output words"
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1 and 17
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Change (q',C) to (q',a',C)
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$M$" before "accepts"
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Replace this line with "and
only if it is in $L$."
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Change \sqrt{2 \pi} to
\sqrt{2 \pi n}
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Change output gate of
SC_1 and its top input gate to OR gates, shrink circles
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Change SATISFIABILITY to SAT
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both places and replace L by L*
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Add "if $w \in L$ and 0 if
$w \not\in L$".
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Change Thm. to Def. in two
places
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Change "Design a DTM" to
"Design an NTM"
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Change "nondeterministic" to
"deterministic"
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Change "quadratic" to
"cubic"
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Change "CIRCUIT SAT" to
"SATISFIABILITY"
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Move > up and move 1 right
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Add "Hint: Because such RAM
programs can only have a finite number of registers, encode the contents of
the TM tape as a number to be stored in one register."
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CHAPTER 4
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156
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15
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"a"
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Leftmost label should
be y instead of x
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Caption should refer to
Fig. 4.3
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Change $r_{1,5}^{(5)} & = &
010 + (010)(10+010)^{\ast}$ to
$r_{1,5}^{(5)} & = & 010 + (010)(10+010)^{\ast}(\epsilon + 10 +
010)$
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Change $\epsilon + 01 +
(010)(01+010)^{\ast} to $\epsilon + 01 + (01)(01+001)^{\ast} (\epsilon + 0) =
(01+010)^{\ast}$
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n \geq 0, delete r in
rs = 0^d, change n to n-1 in exponent
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Add "For this purpose we
extend the state transition function $\delta$ to strings $\mbox{\boldmath $a$}
\in \Sigma^{\ast}$ recursively by $\delta(q,\epsilon) = q$ and $\delta (q,
\sigma \mbox{\boldmath $a$}) = \delta (\delta(q, \sigma), \mbox{\boldmath
$a$})$ for $\sigma \in \Sigma$."
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Insert "accessible" before
"states"
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Insert "with finite $R_L$"
after $\Sigma$.
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"$q_3$ is in a"
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$q_3$}" to "{$q_3$}, {$q_1$, $q_2$}"
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$q_3$}" to "{$q_3$}, {$q_1$, $q_2$}"
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f to $\beta, \epsilon, \epsilon$
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After "finite set $\Sigma$"
insert ", with $|\Sigma| \geq 2$,"
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After "respectively" add "a
designated non-terminal start symbol"
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"$a \in {\cal N}^+$
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non-terminal symbol" to end of line
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Add "L(G) and L(G) \cup
{\epsilon}" after "languages" and change "grammar" to "grammars
G"
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"the language"
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Due to q -> \epsilon, G_M is
not regular. Add text explaining conversion to regular
language.
The new page 185.
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"except for", delete "and eliminate the rest as follows", delete "and", and
add "or B => \epsilon"
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\leq n
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beginning of line
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\leq n
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"($C \to w_i$)" to "i+2"
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The second
regular expression is $(01+001)^{\ast}$.
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and make sentence singular
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CHAPTER 5
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"accepts" and "strings"
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Delete last ) in this line
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Insert "and the tape head at
the leftmost position" after "blank tape"
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Insert "Breadth-first search
is used."
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Add "one" at
beginning, change "inputs" to "input", and add "on each step"
after "tape".
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Delete "repeated; that is,
the computation is"
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Delete "breadth-first
searching"
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beginning of the line
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"grammars"
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end of line
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(e)"
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and delete "(e) removes ]"
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Change "xq -> xq" to "xq ->
px"
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Add Since an NDTM can be
simulated by a DTM, all strings accepted by a TM can be
generated deterministically in sequence."
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z'' to z'''
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Change "valid" to "canonical"
and "can be described" to "are a subset of the strings
defined".
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Replace the period that
follows in this paragraph with "which a TM can analyze to insure
that for each state and tape letter there is a valid
action."
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Add "<, >, \widehat{<},
\widehat{>}"
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Add "preceded by $\beta$ and"
after "U"
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\widehat{w}_1
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$\widehat{<}$" before "moves"
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Add "U returns to
$\widehat{<}$ and removes the mark."
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Add "The left end-of-tape
marker is the blank symbol \beta" to the caption. Put \beta in a new
first cell.
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Replace sentence "This
follows ..." by "Each must be contained in $([(<\{0, 1, \beta,
\mbox{\bf L}, \mbox{\bf R}\} \# 1^{\ast}>)^3 ])^{\ast}$ and have
a transition for each state and tape letter."
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Replace "does not correspond
to a valid encoding" by "is not canonical".
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Change "rules" to "definition"
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Change L_2 to {\cal B}^{\ast}
and add ${\cal B}$ after "alphabet"
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In caption, change _1 to _2
and _2 to _1
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Add "and L_2 is recursively
enumerable" before comma
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Replace "it" by "the tape"
and delete "then"
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Replace "if w is in L(M)" by
"if and only if M halts on w"
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Change "accepts" to "halts"
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Add "and encoding" after
"constructing"
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Change "empty tape" to
"emtpy string"
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Change "accepts" to "halts on"
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Change T(M,w) to L(T(M,w))
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Change T(M,w) to \rho(T(M,w))
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Add "over ${\cal B}$" before
period
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In this paragraph state that
T(M,w) simulates M on w and recognizes strings in L in parallel
by alternatively simulating one step in each computation until
one of them halts. The current argument presumes that L is
recursive, not just recursively enumerable.
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Change "accepting" to
"rejecting"
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Replace "zero function" by
"predecessor function" and delete "predecessor function" from
line 8 page 232. Insert "zero function" definition after
Definition 5.9.1.
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Insert new paragraph stating
correspondences between building blocks of partial recursive
functions (composition, primitive recursion, minimilization) and
straight-line programs, programs with for-loops and while
loops.
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Change "L(M) = \emptyset" to
"L(M) is infinite"
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Change "L(G) = \emptyset" to
"L(G) \not = \emptyset" and delete the hint
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Make p bold and precede by
"state"
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"partial".
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237
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2
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Add "Algebraic circuits combine operations drawn from an
algebraic system."TEXT
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CHAPTER 6
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Replace sentence by "In this
section we introduce rings, fields and matrices, concepts widely
used in this chapter."
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Replace sentence by "Rings
and fields are algebraic systems that consists of a set with two
special elements, $0$ and $1$, and two operations called
addition and multiplication that obey a small set of
rules."
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Make sentence part of
preceding paragraph and add sentence "A {\bf field} is a
commutative ring in which each element other than
\mbox{\boldmath $0$} has a {\bf multiplicative inverse} (for all
$a \in R$, $a \not= \mbox{\boldmath $0$}$, there exists an
element $a^{-1}$ such that $ a \ast a^{-1} = \mbox{\boldmath
$1$}$)."
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Change "Let N be the natural
numbers (the set of non-negative integers)." to "Let Z be the
set of positive and negative integers." and change the second
instance of N to Z.
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Add "commutative" before
"ring"
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Insert "over a field R" after
A
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Replace "the ring of positive
and negative integers" with "a field R"
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Insert "commutative" before
"ring"
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Insert "commutative" before
"ring
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251 |
Theorem 6.4.3 |
Because Figure 6.4 on page 252 doesn't include
computation of Y, depth bound on line -6 should be D(n) = 2D(n/2) + O(log n).
Also, change depth bound on line 8 in theorem to O(n). |
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-15 |
Change to T(n) = 2T(n/2) + 6M(n/2)
+ 2(n/2)^2 |
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-4 |
Delete "closed" |
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-1, -2, -4 |
Change * to \cdot |
252 |
Fig. 6.14 |
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4, 6, 7 |
Change * to \cdot |
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8 |
Delete "closed" |
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Change "substituting A for x,
we have" with "it can be shown"
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Section 6.8.1 |
New title : "Sorting Via Bitonic Merging".
Apparently, it is a common error, which I have also committed, of referring
to Batcher's bitonic merging as odd-even merging. To correct all the errors
that result, changes must be made to the following pages: 18 (TOC), 271-3,
301, 309-11, 316, 320, 410, 481, 482, 555. Changes are also required to
the following pages in the Index: 625, 648, 650, 661, 664, 665. |
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Change the labels $y_1$,
$y_0$, $y_2$, $y_3$ to $y_3$, $y_2$, $y_1$, $y_0$
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Exchange y_1 and y_3 and
exchange y_0 and y_2
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Change n-input to 2n-input
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Change (n/2) (log n) to n (log n + 1)
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Change \log n to \log n + 1
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Change C(1) = 1, D(1) = 1 to C(0) = 1, D(0) = 1
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Change + 2^{k-1} to + 2^k and k2^{k-1} to (k+1)2^k
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Change D(k) = k to D(k) = k + 1
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Add "commutative" before "ring"
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Insert "over a field" after
"A"
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Insert "over fiels" after
"that"
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Insert "over a field" after
"A"
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Change limit on product from
n-1 to k-1
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Change C(1) = 1 to C(0) = 1 and D(1) = 1 to D(0) = 1
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Change k2^{k-1} to (k+1)2^k
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CHAPTER 7
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Add "in words" after "messages"
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Change "message" to "word"
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Change "unit-length" to "word"
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Change "x[a_j]" to
"x[n+1-a_j]" for j = n, n-1, 1
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Add , $n = 2^k$ before period.
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Replace phrase starting
"or ..." with "to $p-1 processors and $n - (p-1) \lceil n/p \rceil$ integers
to the remaining processor"
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Replace "one unit" with "zero"
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Change "adds" to "sets", insert "to" before "the sum"
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Change "adds to" to "sets" and add "to" before "the product"
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After "array" add "and
another n-1 steps to compute the last entry $c_{n,n}$."
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Replace "n cells" by "as far as 2n-1 cells"; Change 4n+2 to 8n-2
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Change "descending" to "ascending"
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Change "ascending" to "descending"
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Change (d-1) to (d-2),
a_1, 0) to a_2)
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-14
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Change "right" back to "left" as in first
printingTEXT
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Add missing arrow to box 1
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Replace by "A fully normal descending algorithm has the above steps followed by the steps in reverse order."
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Replace "or descending" by
"(descending)"
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Change "in" to "with", and
add
"(2T(n)) additional" before "parallel".
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Delete "Each step of"; change n- to 2d-
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Change "linear" to $n \times n$
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Change 2 \sqrt{m} -1 to 2
\sqrt{m} -2; Change $m \times m$ to $\sqrt{m} \times \sqrt{m}$
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Change 2 \sqrt{m} -1 to 2 \sqrt{m} -2
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Change "\leq 2d" to "< 2d"
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Change "\leq (2d)" to "< (2d)"
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Before second period add
", where $0 \leq i,j \leq n-1$
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Change $1 \leq j \leq n$ to $0 \leq j \leq n-1, j\not = k$
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Change $1 \leq i \leq n$ to $0 \leq i \leq n-1, i\not = k$
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Change $C_{i,j,k}$ to $C_{i,j,0}$
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Replace text beginning
"The first" with the following: "For $1 \leq i \leq n/4$ ($n/4 +1 \leq i \leq
n/2$) the top output of switch $i$ is connected to the top input of the $i$th
switch in the upper (lower) copy of $P_{n/2}$ and the bottom output is
connected to the bottom input of the $i$th switch in the lower (upper) copy of
$P_{n/2}$. The connections of output switches are the mirror image of the
connections of the input switches."
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Replace "first" by "second"
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Add "algorithm" after "hypercube"
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Replace "in" with "with slowdown factor" and delete "steps"
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Add "by destination
address" before "cooperatively"
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Before "The first" add the
following: "To compare destinations, move messages to adjacent vertices on the
hypercube, compare, and then reverse the process. (Move them by sorting by
appropriate addresses.)"
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Change $1 \leq i \leq k$ to $0 \leq i \leq k-1$
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Replace "is fully normal"
by "consists of a fixed number of normal and fully normal sequences of
steps"
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Change in \sqrt{n} to 3\sqrt{n}
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CHAPTER 8
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Delete "where $k \geq
1$,"
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Add "(Definitions of time and
space on Turing machines are given in Section 8.4.2.)"
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337
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20
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Change k^n to 2^{n^k}TEXT
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21
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Change k^n to 2^{n^k}TEXT
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Delete NSPACE(r(n)) and add
"deterministic and nondeterministic space-bounded" before "classes".
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-14
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Change 8.5.6 to 8.5.5TEXT
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Add "for some $k \geq
1$"
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The
proof of Theorem 8.6.1 has been reworked for clarity.
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345
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-12
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Change node_1 to node_2TEXT
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Change NPSPACE(r(n))
\subseteq coNPSPACE(r(n)) to coNPSPACE(r(n)) \subseteq
NPSPACE(r(n))
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Change coNPSPACE(r(n))
\subseteq NPSPACE(r(n)) to NPSPACE(r(n)) \subseteq
coNPSPACE(r(n))
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Change VALIDITY with SATISFIABILITY
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Change \overline{VALIDITY} to
coVALIDITY and fix related text.
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The statement "which implies
that there is a path from \overline{x} to x" is incorrect. It
is necessary to say that an instance is a "No" instance if and
only if there is a variable x such that there is a path in G
from x to \overline{x} and one from \overline{x} to x and to use
this fact in the proof. Only small changes are needed in the
argument. Figure 8.15 changed to add edges for (\overline{x}_3
\vee x_1).
(Click here to see correction.)
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Replace "gate" by "circuit"
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Change "Construct" to "Let"
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Replace this line with
"${\cal T}$ be a set variables that have value 1. Let ${\cal T}$
be empty initially. Cycle"
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Change "is" to "are" and add
"Show that all satisfying assignments contain ${\cal T}$."
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CHAPTER 9
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In caption second sentence is
"The input $x_2$ has fan-out 2."
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Add -4 to -3k and to - 3 log_2 n
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Change 3 to 4 in two places
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Move the text from lines 24
and 25 to this line
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Replace the text "more ..."
with "at least e(|V|/2)/2 edges."
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Replace "more than e(5n/2)"
with "at least e(5n/2)/2 edges."
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Replace = 2n-4 with \geq 2n-3
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CHAPTER 10
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Caption - Replace text
starting "can be" with "Input vertices are on the bottom; edges are directed
upward. Four pebbles are shown on the graph when pebbling the leftmost
output."
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Change "graph" by "of Fig. 10.1"
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After "least" add "$k$ pebbles,"
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471
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-9
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Change Problem 10.28 to Section 10.8
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474
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-2
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Change first exponent of n to n + \lceil log n \rceilTEXT
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477
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-16
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Change k to k-1TEXT
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-16
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Change k to k-1TEXT
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-11
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Change D and E to boldTEXT
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478
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1
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Change and to orTEXT
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Drop | | inside first set of ( )
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Add "rows of" after "and"
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Change n^2/6 to n^2/27; 2\sqrt{2} to 16; 6\sqrt{S} to 27\sqrt{S}; 2/9 to (.35); n^6/2 to n^6/3
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Change the labels $y_2$,
$y_1$, $y_4$, $y_3$ to $y_4$, $y_3$, $y_2$, $y_1$
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Replace "has a (1/\mu, m, \tau)-flow" with "is (\alpha,n,m,p)-independent for the appropriate values of \alpha, n, m, and p."
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Replace "the (1/\mu, m, \tau)-flow property" with "(\alpha,n,m,p)-independence"
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Replace "a (1/\mu, m, \tau)-flow" with "is (\alpha,n,m,p)-independent"
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Replace everything after "for" with $p = p = \min (\lambda n, \tau(\mu m)) + \mu m"
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Delete "(b)" and "(x)" after "\tau^{ast}" and the first instance of "\tau(x)"
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Replace everything after "f" with is $(1/\nu, n, m, p)$-independent for $p = \tau^{\ast} + \mu m$.
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Replace "has an (\alpha, m, p)-flow" with "is $(\alpha, n, m, p)$-independent"
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Replace "has an (\alpha, m, q)-flow" with "$(\alpha, n, m, q)$-independent"
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Add "that are within a factor of $O(\log ^2 n)$ of one another
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CHAPTER 11
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Replace "by a factor of
$2^{\beta}$" by "to $S^{\beta}$"
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Add "namely $\beta \approx
7$," after the comma
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Replace "by a factor of
about 128" by "from S to about S^7$"
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Increase step numbers 13-22 by 1
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Change \geq to = at end of line
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Add "and the output" after "A"
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Change ab/S to \sqrt{ab/S}
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CHAPTER 12
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Replace "subtrees (leaves)"
by "leaves"
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Add "H_{k-1} with" after "of"
and delete "with copies of H_{k-1}" and replace "itself" with "H_1"
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Lines made thicker to make them all visible
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Replace "a d-dimensional" with "n-processor"
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Reduce space between V and comma
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590
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3
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Add "Since the lemma is true if the cost of any vertex exceeds 1/3, assume the converse."TEXT
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5
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Change "consists of the regioiu outside of all edges and vertices" to "is the face of unbounded area."TEXT
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7
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Strike the phrase "; that is, the face has ... "TEXT
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591
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-12
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Change "a) L" to "a) H"
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8,9,10
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Change "the cycle defined by e" to $\xi(3)$
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12
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Change "the cycle defined by (x,y)" to $\xi((x,y))$
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13
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Change "the cycle defined by (x,y)" to $\xi((x,y))$
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13
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Replace "the assumption that" with "If greater than
2c(V)/3, $\xi((x,y))$ is a cycle with fewer faces which is contradicted.
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-11
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Change "e) L" to "e) H"
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-9
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After "empty" add "and $l = h = m$"
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-7 and -6/DIV>
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Change r_l and r_h to l and h
|
592
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19
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Change 2c(v)/3 to 7c(v)/9TEXT
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Add "of" to the section heading
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Change "P = 4" to "P = 7"
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The problem now states "Show that every layout of a balanced binary tree on $n$ leaves in which the
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root and the leaves are placed on the boundary of a convex region has area
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proportional to $n \log n$."
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Add "{\bf Hint:} Consider an inscribed quadrilateral defined by the longest
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chord and a chord perpendicular to it."
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Add "from the root" after "path"
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Change "2c(V)/3" to "7c(V)/9"
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BIBLIOGRAPHY
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Citations may be off by one, two
or three places
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Change "Mealey" to "Mealy"
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Change "binary 564" to
"binary 78, 564"
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Insert "directed graph 10"
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Delete Euler's constant
entry
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Change "Mealey" to "Mealy"
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Change "directed graph,
maximal ..." by adding "10" after "graph"
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Delete "of closed semirings"
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Delete "closed semirings"
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Delete "closed" and move 251
to preceding line
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Change "binary," to "binary 78"
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