2 w7 w% l, w0 {( N& A@Parameter (displayName = "Measured Pressure", usageName = "measured pressure")) R0 V R9 Q9 }; n* n" `
public double getMeasured pressure() {7 R8 r8 E8 u' N' ~7 r* u
return measured pressure; V Z2 o# \4 r
} " Y1 C) F) \, q9 z public void setMeasured pressure(double newValue) {4 |. Y# K3 m9 F4 G. `9 `, J" ]
measured pressure = newValue ( }- h" p* Q. h' A }: ~. n- G) J2 |. D( c8 C$ C: U
public double measured pressure = 0 R' X) ]6 r" e2 V9 E3 {
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/** 9 e' |. \4 u7 L *" W' V- e# |/ e5 V
* This value is used to automatically generate agent identifiers.% u8 ]1 |" g* T6 e1 N
* @field serialVersionUID - `7 `& r' w6 l3 Q' v$ s2 T! H * 1 ~! C" ?% g+ A) _0 G( E( L */ 9 p2 q# k% c: A: ]# Q& [ private static final long serialVersionUID = 1L) x% u! v: }" H% J
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/**7 X$ c3 e" o9 X
* 4 T2 s: R9 ]# r4 z4 p * This value is used to automatically generate agent identifiers. ) m* b9 q( V: E" z. T2 k- Z/ E+ H * @field agentIDCounter # J% k- }2 C8 c m3 Q: a2 l * & T, [5 G% D* N v6 t */ s$ S4 J; o- i) U; z8 J" J7 b& w
protected static long agentIDCounter = 1 4 t! J( r& Q4 |+ J z6 t0 C* B) T5 J
/**0 X+ ^$ M. I; [$ o2 T3 W
* ; N" W1 G3 i- F. b2 p* G! q7 @8 y * This value is the agent's identifier. * M) P h0 ?) `, ?+ t4 K * @field agentID/ {% Q5 ]3 }4 h/ n5 J b
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protected String agentID = "GasNode " + (agentIDCounter++) 1 H5 }* J( U; c, R9 v 0 v- p7 d0 y1 ? /**5 g/ R& y; c# A# [4 i$ ^. ?' B9 ~
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* This is the step behavior. , {! H0 ]) G2 U1 Q * @method step 6 [ U4 q: Q5 ?( p; A * & |5 h3 [9 b3 I! T2 ?7 I& b */) ]7 U. s- u: _. q2 v
@Watch( 9 e) S9 e# `7 U watcheeClassName = 'infrastructuredemo.GasNode',. {" X% M# U0 D7 o1 A) O
watcheeFieldNames = 'pressure',( ?# O8 H# o4 M4 P! W0 t
query = 'linked_from',/ |! e* _/ R4 e s; v+ j
whenToTrigger = WatcherTriggerSchedule.LATER,; ?/ H6 R% d, p
scheduleTriggerDelta = 10d4 }$ q' P. G$ w1 h
) 4 r0 s; r, o# I/ G public def step(infrastructuredemo.GasNode watchedAgent) {7 `0 f. ~$ v2 I% }6 G
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// Define the return value variable. ! C& d$ P" C/ \( Q' l! ` def returnValue8 i, r" k- k$ ]7 ], d6 `
' y' ]& j# Y5 _ g6 I // Note the simulation time.) l7 Z* p( u) X% z
def time = GetTickCountInTimeUnits() 4 a1 r! h' |, J# S& b- W; }: s& g( x ^5 {8 D5 a1 ]
: A. `1 i% O# T9 X& [ // This is an agent decision.& o! Z; w( H5 @$ o
if (watchedNode.pressure<200) {) i5 s6 @; `% ?
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// This is a task. $ E' O: {& F* A$ V6 D2 S7 O2 b setPressure(watchedAgent.pressure) 5 B& n2 K$ x0 j( A8 x9 a# f, R7 J$ a- x, [
} else { / t% w. |& B/ \, y ) w9 c* a, Z9 w! f' A7 W! M' D, O/ v- ]" ^' O7 w0 @6 N+ }
} % K( I( e" \) ~/ v // Return the results. 0 E7 z. \. J+ T, @2 F( U" r+ O! K return returnValue% l* I j4 f" i6 w& S
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} 7 a* }& a' O2 E$ H; {- K% Q5 ^. _; B9 p6 A* d9 w8 |
/** 3 p$ |+ ]& [; |. ]8 M5 Q5 h( ^ * 9 t* X2 ]6 q i4 t9 y4 ~ * This is the step behavior.- Z j; `* J2 N. v1 f! c7 Y
* @method step/ s- [* X2 w/ q! p
* 7 |$ x" f# H, ~2 F */6 W) \: C7 h1 H x; u, } Z' Y( Z
@ScheduledMethod( ' X3 M. L" i/ g" ?, j5 X* L start = 1d, % X4 n0 e- t/ M. n; ~ interval = 1d, 6 [& S8 E0 K# x shuffle = false 6 r R$ S2 ]* `& N. b( E ) 2 i$ s( n0 }$ `- H! A public void step() { . T# P. C( r( L ( w! {" |% P N+ y0 Z% q b) N! Q* X // Note the simulation time. 7 Q; d( V, L2 X0 W, R def time = GetTickCountInTimeUnits()& {3 w9 w' {# y" \
0 j" g: {6 K) z$ f+ o // This is a task.4 F* G$ @" A. T( ?/ x
measurePressure=pressure+ RandomDraw(-20.0, 20.0) 8 q6 _! u. k& H1 x1 T! c // End the method. $ w3 t3 j, d: v) Y+ T- _ return. g' G! }; c x* F b6 H T
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}