S15-2154 |
tree . The main idea is to apply
|
graph traversal
|
algorithms to convert a directed
|
S14-2080 |
transformation approach . We use
|
graph traversal
|
algorithms to convert a directed
|
C90-2068 |
nodes encountered on a particular
|
graph traversal
|
. Pollack contrasts the above
|
W13-4306 |
can be exploited using simple
|
graph traversal
|
to generate the subjectivity
|
W15-0126 |
depth-first and breadth-first
|
graph traversals
|
, possibly changing the edge
|
W07-1427 |
Pre - viously , we wrote tedious
|
graph traversal
|
code by hand for each desired
|
W07-1501 |
Similar information generated via
|
graph traversal
|
can obviously provide a wealth
|
N04-1035 |
this step requires only a single
|
graph traversal
|
, it runs in linear time . Step
|
W01-0807 |
simple condi - tions : compared to
|
graph traversal
|
, the evaluation of conditions
|
S14-2080 |
tree . Depth-first-search We try
|
graph traversal
|
by depth-first-search starting
|
W15-0126 |
further , and perform depth-first
|
graph traversal
|
. We traverse the undirected
|
S14-2081 |
is based on depth-first search
|
graph traversal
|
and edge flipping . In it , we
|
W15-0126 |
it is governed by the order of
|
graph traversal
|
. In both cases , some edges
|
J97-1004 |
, reorganization methods , and
|
graph traversal
|
. By assembling these diverse
|
W07-1501 |
application of well-established
|
graph traversal
|
and analysis algorithms to produce
|
W90-0118 |
structure matching ( Hovy 1988 ) ,
|
graph traversal
|
algorithms ( Paris & McKeown
|
W90-0118 |
background before primary material .
|
Graph Traversal
|
. These are algorithms for selectively
|
D15-1038 |
∈ Js/r1 / ... / rkK . Writing
|
graph traversal
|
in this way immediately suggests
|
P98-2168 |
allows us to substitute efficient
|
graph traversal
|
for generalised plan - ning .
|
W05-0506 |
sentences , easily computed by
|
graph traversal
|
. This is similar to -LSB- Edel
|