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nexedi
dream
Commits
65d6aabc
Commit
65d6aabc
authored
Sep 19, 2014
by
Ioannis Papagiannopoulos
Committed by
Jérome Perrin
Feb 04, 2015
Browse files
Options
Browse Files
Download
Email Patches
Plain Diff
Router and Operator clean-up
parent
3aa1af0f
Changes
3
Show whitespace changes
Inline
Side-by-side
Showing
3 changed files
with
152 additions
and
262 deletions
+152
-262
dream/simulation/Operator.py
dream/simulation/Operator.py
+0
-50
dream/simulation/OperatorRouter.py
dream/simulation/OperatorRouter.py
+2
-211
dream/simulation/OperatorRouterManaged.py
dream/simulation/OperatorRouterManaged.py
+150
-1
No files found.
dream/simulation/Operator.py
View file @
65d6aabc
...
@@ -119,23 +119,6 @@ class Operator(ObjectResource):
...
@@ -119,23 +119,6 @@ class Operator(ObjectResource):
def
isAssignedTo
(
self
):
def
isAssignedTo
(
self
):
return
self
.
operatorAssignedTo
return
self
.
operatorAssignedTo
#===========================================================================
# method that finds a candidate entity for an operator
#===========================================================================
def
findCandidateStation
(
self
):
from
Globals
import
G
router
=
G
.
Router
candidateStation
=
None
possibleReceivers
=
[
x
for
x
in
self
.
candidateStations
if
not
x
in
router
.
conflictingStations
and
not
x
in
router
.
getReceivers
()]
if
possibleReceivers
:
candidateStation
=
next
(
x
for
x
in
possibleReceivers
)
if
not
candidateStation
:
candidateStation
=
next
(
x
for
x
in
self
.
candidateStations
)
router
.
conflictingStations
.
append
(
candidateStation
)
return
candidateStation
#===========================================================================
#===========================================================================
# sort candidate stations
# sort candidate stations
#===========================================================================
#===========================================================================
...
@@ -167,39 +150,6 @@ class Operator(ObjectResource):
...
@@ -167,39 +150,6 @@ class Operator(ObjectResource):
else
:
else
:
self
.
activeQSorter
(
self
.
schedulingRule
)
self
.
activeQSorter
(
self
.
schedulingRule
)
# =======================================================================
# sorts the candidateEntities of the Operator according to the scheduling rule
# TODO: find a way to sort machines or candidate entities for machines,
# now picks the machine that waits the most
# =======================================================================
def
sortCandidateEntities
(
self
):
from
Globals
import
G
router
=
G
.
Router
candidateMachines
=
self
.
candidateStations
# for the candidateMachines
if
candidateMachines
:
# choose the one that waits the most time and give it the chance to grasp the resource
for
machine
in
candidateMachines
:
machine
.
critical
=
False
if
machine
.
broker
.
waitForOperator
:
machine
.
timeWaiting
=
self
.
env
.
now
-
machine
.
broker
.
timeWaitForOperatorStarted
else
:
machine
.
timeWaiting
=
self
.
env
.
now
-
machine
.
timeLastEntityLeft
# find the stations that hold or are about to be delivered critical entities
if
self
in
router
.
preemptiveOperators
:
for
entity
in
machine
.
getActiveObjectQueue
():
if
entity
in
router
.
pending
and
entity
.
isCritical
:
machine
.
critical
=
True
break
for
previous
in
machine
.
previous
:
for
entity
in
previous
.
getActiveObjectQueue
():
if
entity
in
router
.
pending
and
entity
.
isCritical
:
machine
.
critical
=
True
# sort the stations according their timeWaiting
self
.
candidateStations
.
sort
(
key
=
lambda
x
:
x
.
timeWaiting
,
reverse
=
True
)
# sort the stations if they hold critical entities
self
.
candidateStations
.
sort
(
key
=
lambda
x
:
x
.
critical
,
reverse
=
False
)
# =======================================================================
# =======================================================================
# sorts the Entities of the Queue according to the scheduling rule
# sorts the Entities of the Queue according to the scheduling rule
# =======================================================================
# =======================================================================
...
...
dream/simulation/OperatorRouter.py
View file @
65d6aabc
...
@@ -132,7 +132,7 @@ class Router(ObjectInterruption):
...
@@ -132,7 +132,7 @@ class Router(ObjectInterruption):
self
.
assignOperators
()
self
.
assignOperators
()
# unAssign exits
# unAssign exits
self
.
unAssignExits
()
self
.
unAssignExits
()
# signal the stations that ought to be signaled
# signal the stations that ought to be signal
l
ed
self
.
signalOperatedStations
()
self
.
signalOperatedStations
()
self
.
printTrace
(
''
,
'router exiting'
)
self
.
printTrace
(
''
,
'router exiting'
)
self
.
printTrace
(
''
,
'=-'
*
20
)
self
.
printTrace
(
''
,
'=-'
*
20
)
...
@@ -412,212 +412,3 @@ class Router(ObjectInterruption):
...
@@ -412,212 +412,3 @@ class Router(ObjectInterruption):
break
break
occupiedStations
.
append
(
operator
.
candidateStation
)
occupiedStations
.
append
(
operator
.
candidateStation
)
occupiedEntities
.
append
(
operator
.
candidateEntity
)
occupiedEntities
.
append
(
operator
.
candidateEntity
)
\ No newline at end of file
#=======================================================================
# Find the candidateEntities for each candidateOperator
# find the candidateEntities of each candidateOperator and sort them according
# to the scheduling rules of the operator and choose an entity that will be served
# and by which machines
#=======================================================================
def
sortCandidateEntities
(
self
):
from
Globals
import
G
# sort the candidateEntities list of each operator according to its schedulingRule
for
operator
in
[
x
for
x
in
self
.
candidateOperators
if
x
.
candidateStations
]:
operator
.
sortCandidateEntities
()
#===========================================================================
# get all the candidate stations that have been chosen by an operator
#===========================================================================
def
getReceivers
(
self
):
candidateStations
=
[]
for
operator
in
self
.
candidateOperators
:
if
operator
.
candidateStation
:
if
not
operator
.
candidateStation
in
candidateStations
:
candidateStations
.
append
(
operator
.
candidateStation
)
return
candidateStations
#=======================================================================
# Find candidate entities and their receivers
# TODO: if there is a critical entity, its manager should be served first
# TODO: have to sort again after choosing candidateEntity
#=======================================================================
def
findCandidateReceivers
(
self
):
# finally we have to sort before giving the entities to the operators
# If there is an entity which must have priority then it should be assigned first
# TODO: sorting after choosing candidateEntity
# for the candidateOperators that do have candidateEntities pick a candidateEntity
for
operator
in
[
x
for
x
in
self
.
candidateOperators
if
x
.
candidateStations
]:
# find the first available entity that has no occupied receivers
operator
.
candidateStation
=
operator
.
findCandidateStation
()
# find the resources that are 'competing' for the same station
if
not
self
.
sorting
:
# if there are entities that have conflicting receivers
if
len
(
self
.
conflictingStations
):
self
.
conflictingOperators
=
[
operator
for
operator
in
self
.
candidateOperators
\
if
operator
.
candidateStation
in
self
.
conflictingStations
]
# keep the sorting provided by the queues if there is conflict between operators
conflictingGroup
=
[]
# list that holds the operators that have the same recipient
removedOperators
=
[]
if
self
.
conflictingOperators
:
# for each of the candidateReceivers
for
station
in
self
.
conflictingStations
:
# find the group of operators that compete for this station
conflictingGroup
=
[
operator
for
operator
in
self
.
conflictingOperators
if
operator
.
candidateStation
==
station
]
# the operator that can proceed is the manager of the entity as sorted by the queue that holds them
conflictingGroup
.
sort
()
# the operators that are not first in the list cannot proceed
for
operator
in
conflictingGroup
:
if
conflictingGroup
.
index
(
operator
)
!=
0
and
not
operator
in
removedOperators
:
self
.
candidateOperators
.
remove
(
operator
)
removedOperators
.
append
(
operator
)
# =======================================================================
# sorts the Operators of the Queue according to the scheduling rule
# =======================================================================
def
activeQSorter
(
self
,
criterion
=
None
,
candList
=
[]):
activeObjectQ
=
candList
if
not
activeObjectQ
:
assert
False
,
"empty candidateOperators list"
if
criterion
==
None
:
criterion
=
self
.
multipleCriterionList
[
0
]
#if the schedulingRule is first in first out
if
criterion
==
"FIFO"
:
# FIFO sorting has no meaning when sorting candidateEntities
self
.
activeQSorter
(
criterion
=
'WT'
,
candList
=
activeObjectQ
)
#if the schedulingRule is based on a pre-defined priority
elif
criterion
==
"Priority"
:
# if the activeObjectQ is a list of entities then perform the default sorting
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
priority
)
# if the activeObjectQ is a list of operators then sort them according to their candidateEntities
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
priority
)
#if the scheduling rule is time waiting (time waiting of machine
# TODO: consider that the timeLastEntityEnded is not a
# indicative identifier of how long the station was waiting
elif
criterion
==
'WT'
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
schedule
[
-
1
][
1
])
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
schedule
[
-
1
][
1
])
#if the schedulingRule is earliest due date
elif
criterion
==
"EDD"
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
dueDate
)
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
dueDate
)
#if the schedulingRule is earliest order date
elif
criterion
==
"EOD"
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
orderDate
)
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
orderDate
)
#if the schedulingRule is to sort Entities according to the stations they have to visit
elif
criterion
==
"NumStages"
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
len
(
x
.
remainingRoute
),
reverse
=
True
)
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
len
(
x
.
candidateEntity
.
remainingRoute
),
reverse
=
True
)
#if the schedulingRule is to sort Entities according to the their remaining processing time in the system
elif
criterion
==
"RPC"
:
try
:
for
entity
in
activeObjectQ
:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
remainingProcessingTime
,
reverse
=
True
)
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
remainingProcessingTime
,
reverse
=
True
)
#if the schedulingRule is to sort Entities according to longest processing time first in the next station
elif
criterion
==
"LPT"
:
try
:
for
entity
in
activeObjectQ
:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
processingTimeInNextStation
,
reverse
=
True
)
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
processingTimeInNextStation
,
reverse
=
True
)
#if the schedulingRule is to sort Entities according to shortest processing time first in the next station
elif
criterion
==
"SPT"
:
try
:
for
entity
in
activeObjectQ
:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
processingTimeInNextStation
)
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
processingTimeInNextStation
)
#if the schedulingRule is to sort Entities based on the minimum slackness
elif
criterion
==
"MS"
:
try
:
for
entity
in
activeObjectQ
:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
(
x
.
dueDate
-
x
.
remainingProcessingTime
))
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
(
x
.
candidateEntity
.
dueDate
-
x
.
candidateEntity
.
remainingProcessingTime
))
#if the schedulingRule is to sort Entities based on the length of the following Queue
elif
criterion
==
"WINQ"
:
try
:
from
Globals
import
G
for
entity
in
activeObjectQ
:
nextObjIds
=
entity
.
remainingRoute
[
1
].
get
(
'stationIdsList'
,[])
for
obj
in
G
.
ObjList
:
if
obj
.
id
in
nextObjIds
:
nextObject
=
obj
entity
.
nextQueueLength
=
len
(
nextObject
.
getActiveObjectQueue
())
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
nextQueueLength
)
except
:
from
Globals
import
G
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
nextObjIds
=
entity
.
remainingRoute
[
1
].
get
(
'stationIdsList'
,[])
for
obj
in
G
.
ObjList
:
if
obj
.
id
in
nextObjIds
:
nextObject
=
obj
entity
.
nextQueueLength
=
len
(
nextObject
.
getActiveObjectQueue
())
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
nextQueueLength
)
else
:
assert
False
,
"Unknown scheduling criterion %r"
%
(
criterion
,
)
\ No newline at end of file
dream/simulation/OperatorRouterManaged.py
View file @
65d6aabc
...
@@ -438,3 +438,152 @@ class RouterManaged(Router):
...
@@ -438,3 +438,152 @@ class RouterManaged(Router):
self
.
printTrace
(
'candidateReceivers for each entity '
,[(
str
(
entity
.
id
),
\
self
.
printTrace
(
'candidateReceivers for each entity '
,[(
str
(
entity
.
id
),
\
str
(
entity
.
candidateReceiver
.
id
))
str
(
entity
.
candidateReceiver
.
id
))
for
entity
in
self
.
pending
if
entity
.
candidateReceiver
])
for
entity
in
self
.
pending
if
entity
.
candidateReceiver
])
# =======================================================================
# sorts the Operators of the Queue according to the scheduling rule
# =======================================================================
def
activeQSorter
(
self
,
criterion
=
None
,
candList
=
[]):
activeObjectQ
=
candList
if
not
activeObjectQ
:
assert
False
,
"empty candidateOperators list"
if
criterion
==
None
:
criterion
=
self
.
multipleCriterionList
[
0
]
#if the schedulingRule is first in first out
if
criterion
==
"FIFO"
:
# FIFO sorting has no meaning when sorting candidateEntities
self
.
activeQSorter
(
criterion
=
'WT'
,
candList
=
activeObjectQ
)
#if the schedulingRule is based on a pre-defined priority
elif
criterion
==
"Priority"
:
# if the activeObjectQ is a list of entities then perform the default sorting
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
priority
)
# if the activeObjectQ is a list of operators then sort them according to their candidateEntities
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
priority
)
#if the scheduling rule is time waiting (time waiting of machine
# TODO: consider that the timeLastEntityEnded is not a
# indicative identifier of how long the station was waiting
elif
criterion
==
'WT'
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
schedule
[
-
1
][
1
])
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
schedule
[
-
1
][
1
])
#if the schedulingRule is earliest due date
elif
criterion
==
"EDD"
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
dueDate
)
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
dueDate
)
#if the schedulingRule is earliest order date
elif
criterion
==
"EOD"
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
orderDate
)
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
orderDate
)
#if the schedulingRule is to sort Entities according to the stations they have to visit
elif
criterion
==
"NumStages"
:
try
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
len
(
x
.
remainingRoute
),
reverse
=
True
)
except
:
activeObjectQ
.
sort
(
key
=
lambda
x
:
len
(
x
.
candidateEntity
.
remainingRoute
),
reverse
=
True
)
#if the schedulingRule is to sort Entities according to the their remaining processing time in the system
elif
criterion
==
"RPC"
:
try
:
for
entity
in
activeObjectQ
:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
remainingProcessingTime
,
reverse
=
True
)
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
remainingProcessingTime
,
reverse
=
True
)
#if the schedulingRule is to sort Entities according to longest processing time first in the next station
elif
criterion
==
"LPT"
:
try
:
for
entity
in
activeObjectQ
:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
processingTimeInNextStation
,
reverse
=
True
)
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
processingTimeInNextStation
,
reverse
=
True
)
#if the schedulingRule is to sort Entities according to shortest processing time first in the next station
elif
criterion
==
"SPT"
:
try
:
for
entity
in
activeObjectQ
:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
processingTimeInNextStation
)
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
processingTime
=
entity
.
remainingRoute
[
0
].
get
(
'processingTime'
,
None
)
if
processingTime
:
entity
.
processingTimeInNextStation
=
float
(
processingTime
.
get
(
'mean'
,
0
))
else
:
entity
.
processingTimeInNextStation
=
0
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
processingTimeInNextStation
)
#if the schedulingRule is to sort Entities based on the minimum slackness
elif
criterion
==
"MS"
:
try
:
for
entity
in
activeObjectQ
:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
(
x
.
dueDate
-
x
.
remainingProcessingTime
))
except
:
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
RPT
=
0
for
step
in
entity
.
remainingRoute
:
processingTime
=
step
.
get
(
'processingTime'
,
None
)
if
processingTime
:
RPT
+=
float
(
processingTime
.
get
(
'mean'
,
0
))
entity
.
remainingProcessingTime
=
RPT
activeObjectQ
.
sort
(
key
=
lambda
x
:
(
x
.
candidateEntity
.
dueDate
-
x
.
candidateEntity
.
remainingProcessingTime
))
#if the schedulingRule is to sort Entities based on the length of the following Queue
elif
criterion
==
"WINQ"
:
try
:
from
Globals
import
G
for
entity
in
activeObjectQ
:
nextObjIds
=
entity
.
remainingRoute
[
1
].
get
(
'stationIdsList'
,[])
for
obj
in
G
.
ObjList
:
if
obj
.
id
in
nextObjIds
:
nextObject
=
obj
entity
.
nextQueueLength
=
len
(
nextObject
.
getActiveObjectQueue
())
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
nextQueueLength
)
except
:
from
Globals
import
G
for
entity
in
[
operator
.
candidateEntity
for
operator
in
activeObjectQ
]:
nextObjIds
=
entity
.
remainingRoute
[
1
].
get
(
'stationIdsList'
,[])
for
obj
in
G
.
ObjList
:
if
obj
.
id
in
nextObjIds
:
nextObject
=
obj
entity
.
nextQueueLength
=
len
(
nextObject
.
getActiveObjectQueue
())
activeObjectQ
.
sort
(
key
=
lambda
x
:
x
.
candidateEntity
.
nextQueueLength
)
else
:
assert
False
,
"Unknown scheduling criterion %r"
%
(
criterion
,
)
\ No newline at end of file
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