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@Parameter (displayName = "Measured Pressure", usageName = "measured pressure") ! _. q6 s; u4 W public double getMeasured pressure() {& w. f2 F0 Y; X4 @2 j7 N
return measured pressure) M% B5 L$ B0 }$ X+ i
} 9 U" u n7 t* |, l public void setMeasured pressure(double newValue) {& m9 a: ?5 ~7 P8 Y
measured pressure = newValue . @( s, [: M0 Q, f [ }6 z7 d4 S5 J2 U9 E+ b
public double measured pressure = 0 ! E4 e3 x4 o6 s% g/ {3 J4 a/ M' t. @# L% j% o
/**, j q0 H ^& `! I9 {2 k: n
*# R! R1 H5 O( J- \: y& T% K1 z5 I
* This value is used to automatically generate agent identifiers.% o; }# ^! B+ ^5 B8 ^
* @field serialVersionUID R+ O4 \' f; v% X4 k * # w/ V+ s' u- D" x3 Y, r) b& D */ + {; o, N, r2 T* m: | private static final long serialVersionUID = 1L7 w! \. R( ]' d7 w+ G& R
( m; |7 n. r* h /**$ i: E+ t* A$ Y/ i2 N
*; K9 b: f. C4 l$ d5 ]" u
* This value is used to automatically generate agent identifiers. * G# G3 p. i: C * @field agentIDCounter: r3 d4 [1 X+ A9 e6 V9 U
* ' K% u6 B1 z! A */ 6 x7 _3 |8 R/ l2 y protected static long agentIDCounter = 19 i' Z4 M2 O* N# }0 `2 v
. C" b8 O6 b1 [' i0 v/ c /**$ _6 A: L8 ^5 [/ t" b2 F6 {
* , ~! y' D2 }" `( ]1 n$ l3 O5 U5 y * This value is the agent's identifier. 4 b7 y& q6 N" ]- Q& t. t * @field agentID , \% B) l" j2 O. U/ J1 V- o *9 F) g8 U1 I2 L! _5 f
*/ & W( D& }4 P% l. D% j! B% x protected String agentID = "GasNode " + (agentIDCounter++). l2 C# t- Z+ s( ?. g Q6 n% z/ j2 A
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/** ) S7 j1 `2 h3 f: h/ E T * 9 y4 l4 r# |* x7 h' H% G * This is the step behavior. 5 l- N7 O5 _) x+ v* }! o * @method step) G- Y" x9 K) X$ G, t2 J8 R
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*/% @$ Y7 i5 n0 Q- Y: [0 c
@Watch( ( }2 e) W7 Y) K3 ^% O8 ^9 [& d watcheeClassName = 'infrastructuredemo.GasNode',- b/ x; r- @1 _7 l
watcheeFieldNames = 'pressure', E, A) K ]% b4 T0 a w
query = 'linked_from', 4 E/ W( S; r) V& z whenToTrigger = WatcherTriggerSchedule.LATER,5 ]. k, k$ p3 L1 d
scheduleTriggerDelta = 10d4 z! E# [$ ?; g4 P8 z( V7 w
)2 A g Y# L- [! {
public def step(infrastructuredemo.GasNode watchedAgent) { , O" ]8 j7 O' S. M/ A7 D- k, Z & D0 i D1 r1 z // Define the return value variable. % T* U( j- ^! G: I* A def returnValue2 }+ q/ v) m9 E( g
5 s) L4 W! U! E$ ^$ |, D7 u# i // Note the simulation time.; q# P4 w' M6 f* H D$ G0 g
def time = GetTickCountInTimeUnits(). a% L/ {0 X2 u9 b7 c
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// This is an agent decision. 9 [& G+ Q' q X/ w7 I: L if (watchedNode.pressure<200) { : U4 o, g1 h& i$ A* H7 z7 ]6 w; D8 P! N% [
// This is a task.; F0 z) ^2 n8 S% w4 s- b& d
setPressure(watchedAgent.pressure)+ o3 S& {0 }2 w. B. x
$ K9 q6 J @1 Y# Z } else { ( O& n; Z) }) B! v . b) D3 @ J! y. o9 `* M s6 \- `: w! e
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// Return the results. / k) c$ t; j- \ M0 n/ B# O7 O return returnValue 0 B. P+ ~( W( i: L' d$ S % P7 j/ q* i$ Y7 Z/ K } 3 `& L6 N2 J6 {8 y / \- H! H3 r- I# w /** 5 ^0 _; p* ?0 O1 [/ x J, n0 [+ x' h * 9 G: m+ D& Y" o$ c8 S * This is the step behavior.0 T! N" ]; E x$ v5 U1 O
* @method step' P' t' g! S5 X' x" V& v1 t6 u
* 7 m3 o, @- Q, F8 Q1 ?# m* r */ 5 E7 [) ~; i5 ~- L @ScheduledMethod(* Y. ?# F! Q1 q" ?0 n
start = 1d,/ ]2 z; V' A4 H' E" Y7 a
interval = 1d, 4 Q. W( ]. @3 l: d* n, O, V shuffle = false 5 j8 C% \- r7 M6 g: w ) ; U9 H; c3 V `4 h public void step() {4 a" |- k, J( \* j* [) S0 D7 |. J9 J( D
* i1 I. i9 {0 J' {1 l // Note the simulation time.+ T) j1 D/ B, m- V. @8 L8 [3 B" L, c7 `
def time = GetTickCountInTimeUnits()' @3 u& w1 O& K: L& o
/ U) j2 ~/ C6 w // This is a task. 5 I Q( M' R y8 B9 f o measurePressure=pressure+ RandomDraw(-20.0, 20.0) . c3 ^ g0 ~$ k6 E& a3 d, k) O) c // End the method.4 G2 n* R, x, W1 c; B" o' }
return0 z* c4 O8 _: o7 v2 d* ?