C04-1057 |
data sets for which the adaptive
|
greedy algorithm
|
outperforms our baseline . This
|
C04-1057 |
Table 2 compares our modified
|
greedy algorithm
|
to the baseline . In that case
|
D09-1001 |
assigned to . Instead , USP uses a
|
greedy algorithm
|
to search for the MAP parse .
|
D08-1005 |
topicality scores . A simple ,
|
greedy algorithm
|
for detecting Dk is then : 1
|
D08-1034 |
get the best one . So we use a
|
greedy algorithm
|
to get an approximate optimal
|
C96-1037 |
and distinctive t ~ atures . A A
|
greedy algorithm
|
for aligning words . The algorithm
|
C04-1152 |
Prefix Search The straightforward
|
greedy algorithm
|
schema for finding an approximately
|
C04-1024 |
proposed by Andreas Eisele1 . It is a
|
greedy algorithm
|
which tries to minimise the number
|
C04-1057 |
between the adaptive and modified
|
greedy algorithm
|
we found the latter to outperform
|
C94-2157 |
for developing and running his
|
greedy algorithm
|
. along with a measure corresponding
|
D08-1036 |
Following these authors , we used a
|
greedy algorithm
|
to associate states with POS
|
D09-1048 |
Iterative WSD IWSD is clearly a
|
greedy algorithm
|
. It bases its decisions on already
|
C94-2157 |
. The corpus wax run through a
|
greedy algorithm
|
4 that returned the most frequent
|
D08-1079 |
sentences have been obtained , a
|
greedy algorithm
|
( Wan and Yang , 2006 ) is applied
|
C96-1019 |
other type of generator applies a
|
greedy algorithm
|
to an initial solution in order
|
C04-1057 |
information and with the two variants of
|
greedy algorithms
|
described in Section 4 . We chose
|
C04-1057 |
Section 2.3 ) , we propose two
|
greedy algorithms
|
inspired by the algorithm above
|
C04-1057 |
NP-hard , properties of simple
|
greedy algorithms
|
have been explored , and a straightforward
|
C94-2156 |
dictionary data and corpora . A
|
greedy algorithm
|
3 to locate the most common coocurrences
|
C04-1057 |
of the optimal solution . The
|
greedy algorithm
|
for maximum set coverage has
|