D11-1106 |
( Papineni et al. , 2002 ) for
|
string comparison
|
. Whilst BLEU is not an ideal
|
A88-1011 |
consists in applying a general
|
string comparison
|
technique to phonological codes
|
E95-1009 |
resulting metric was called feature
|
string comparison
|
. It could be argued that it
|
E95-1009 |
simplest technique used was phone
|
string comparison
|
. In this approach , all operations
|
D12-1039 |
generated , re-ranking based on
|
string comparison
|
is much faster . We only include
|
D11-1144 |
values , we explore several fuzzy
|
string comparison
|
algorithms and found n-gram substring
|
D11-1144 |
attribute values , we explore several
|
string comparison
|
algorithms and found n-gram substring
|
E09-1097 |
is uniform for all words . The
|
string comparison
|
task and its associated metrics
|
D12-1113 |
just m , which is identical to
|
string comparison
|
features already existing in
|
E95-1010 |
the distributions for ordered
|
string comparisons
|
and number comparisons , were
|
E95-1009 |
shows that the approaches based on
|
string comparisons
|
of the phonetic transcriptions
|
E95-1009 |
agglomerative clustering of phonetic
|
string comparison
|
distances is applied to Gaelic
|
E06-2015 |
feature , as it solely relies on
|
string comparison
|
and acronym string matching .
|
E09-1097 |
regenerated , as measured by any
|
string comparison
|
method : in our case , using
|
E95-1009 |
all-word vs. same-word feature
|
string comparisons
|
. All of these distance matrices
|
E95-1009 |
distance matrix computed by phonetic
|
string comparison
|
, and indeed the top-level topologies
|
E95-1010 |
measures , hard matching of numbers ,
|
string comparisons
|
and n-gram co-occurrence matching
|
J01-4004 |
strings before performing the
|
string comparison
|
. Therefore , the license matches
|
C04-1013 |
can be compared naively with m20
|
string comparisons
|
or much more e ciently using
|
A88-1011 |
speed , is that it is a general
|
string comparison
|
technique which is not biased
|