| Page |
Line |
Comment |
| 58 | 14 |
Replace "min" by "max".
|
| 204 | 24 |
One must require $c \ge c'$ in Exercise 6.
|
| 303 | 25-27 |
The full version of the paper by Gabow [1990] appeared in ACM Transactions on Algorithms 14 (2018), Article 39.
|
| 324 | 1-3 |
The full version of the paper by Gabow [1983] appeared in ACM Transactions on Algorithms 14 (2018), Article 39.
|
| 378 | 10 |
The right-hand side of this inequality should be
$\max \{ \sum_{t=(p,A,B)\in T_{i-1}} p x_t \Delta_B, \sum_{t=(p,A,B)\in T_{i-1}} p (1-x_t) \Delta_A \}$.
This is sufficient because either
$\Exp[f(O_{i-1})-f(O_i)] \le x_t \Delta_B$ for all $(p,A,B)\in T_{i-1}$
or
$\Exp[f(O_{i-1})-f(O_i)] \le (1-x_t) \Delta_A$ for all $(p,A,B)\in T_{i-1}$;
see the proof of (14.4).
|
| 379 | 38 |
In Exercise 11, f should be integer-valued.
|
| 381 | 30 |
Replace "$f$ and any $g_C$" by "$g$ and any $f_C$".
|
| 382 | 26-28 |
The paper by Buchbinder and Feldman [2016] appeared in ACM Transactions on Algorithms 14 (2018), Article 14.
|
| 434 | 3 |
A factor 1/2 is missing on the left-hand side of the inequality.
|
| 533 | 29 |
This line should read: "Set $E(G):=\delta_{G'}(X)$ and $E(H):=E(G')\setminus\delta_{G'}(X)$."
|
| 552 | 13 |
Replace G+f by G[T]+f.
|
| 573/574 | 19/25 |
Lemma 20.38 and Theorem 20.39 also hold when f can have negative values (which can happen when
we apply the Theorem).
|
| 628 | 28-29 |
The paper by Svensson, Tarnawski and Végh [2017] appeared in the
Proceedings of the 50th Annual ACM Symposium on Theory of Computing (2018), pp. 204-213.
|
| 628 | 30-32 |
The paper by Traub and Vygen [2018] appeared in the Journal of the ACM 66 (2019), Article 14.
|
