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@Parameter (displayName = "Measured Pressure", usageName = "measured pressure")) A* m& ~. S% V$ p6 e
public double getMeasured pressure() {5 V/ e& ^" Z9 e% C, u
return measured pressure% `! E+ y3 F) O# v/ P9 a. Q' u w
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public void setMeasured pressure(double newValue) {7 c ]6 r' X6 @" d" n4 ]
measured pressure = newValue4 K. z4 U$ D+ @* s9 G3 H
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public double measured pressure = 0 $ e$ T: y2 ~6 a5 V3 m3 ^" K, e4 O r% @3 C* w% ^1 f
/** / I' V4 F; v- o% K, X *1 q5 d9 B3 d7 \8 G& y. r
* This value is used to automatically generate agent identifiers. ; n( [; O% Y l$ ?/ ?3 g * @field serialVersionUID. R1 S! F6 n; k2 V9 t/ \. n
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*/ % E" s" R+ f' j; j* S; t9 ] private static final long serialVersionUID = 1L & J p a8 N4 j+ V }' I " h& O, C5 { @9 F7 C F /** i: J4 F9 }. l! e * $ {, h |& b4 t4 F. ~ * This value is used to automatically generate agent identifiers. 7 @: t( q+ g% C * @field agentIDCounter , W3 [1 H' \" G4 ~& p/ J' } *1 A. O) b6 U( P0 P Y8 ? e
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protected static long agentIDCounter = 1 5 D1 T8 |+ ~& J 9 U6 s' d5 W7 x4 U" G# b /**" c' A8 i) Y. v) ~
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* This value is the agent's identifier.- A! Z1 h0 {4 b* U- t
* @field agentID; A; _) N) A) M- m: j+ S% n4 l5 v6 u- T
*( ~6 b, c) d% i! W
*/ ( h1 J1 l. P6 }8 Y# w9 N protected String agentID = "GasNode " + (agentIDCounter++) 4 W" P2 G$ Z, W, Z' z: |. \' j7 Q3 n \9 A# N/ l1 m7 I
/**, ]3 t! |0 c* H
*% v# o- M4 Q+ {. x
* This is the step behavior.+ I( h- f4 m. B+ j! P
* @method step 2 ?5 |; ?; S: K1 b/ x2 Y *$ ^' [- @5 S5 n! c
*/ p) f+ C0 M6 h9 r( T2 |
@Watch(/ E) D( m4 O. y
watcheeClassName = 'infrastructuredemo.GasNode',7 H2 p" W% m8 _3 A" B& J2 p3 g1 i
watcheeFieldNames = 'pressure', # V. ?5 R" y3 }/ k# W query = 'linked_from',3 }' b3 N- t! v
whenToTrigger = WatcherTriggerSchedule.LATER,, \% {4 f7 e! `2 F) N6 i
scheduleTriggerDelta = 10d4 }8 r p- V2 F) v" H
) ; E" Y& v i3 t# q1 x4 _ public def step(infrastructuredemo.GasNode watchedAgent) { % r# U0 I, i3 B6 z$ D , t! e8 |( O y& Z# R+ }+ F // Define the return value variable. 7 m8 G! _& [2 h- {! A# A; Y def returnValue 9 e) n: x/ W5 z9 T+ c8 [* F" @ S' [ f& O
// Note the simulation time.9 G5 ^1 G4 y! X1 b1 P& r" ~
def time = GetTickCountInTimeUnits()+ z" W2 Q: V- x0 \! ?) w8 V
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/ v Y4 k7 k& A6 F // This is an agent decision. ( ?7 d3 D2 Z% r) w! _3 M0 a if (watchedNode.pressure<200) {# S* F$ X- y! H% e0 g e8 G
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// This is a task. 6 j1 D$ ]7 E. P1 U. x o9 c setPressure(watchedAgent.pressure)" l9 ?0 V; A" A; Y
- d4 B# d9 {+ i2 _9 J Z( q" L" d6 h } else { 3 y, s0 t% n: `1 n! f% f$ Z6 R- F
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// Return the results. 3 s' p$ `! D2 y6 F return returnValue , F( G% T0 Q# a, x. L3 M0 q9 S% | . l! T' f6 T4 H$ P2 l } # I: n) ~7 O5 R" ^ 5 k: h5 U3 f- x8 j. _ /**4 Y- m3 w. r. s Q0 Q
* ; Y! j6 d+ K9 E \: ] * This is the step behavior. 1 ^, l3 a' g! h) d- Y, Z3 a * @method step8 I! Q0 Q Y9 s7 X7 u+ O$ |
* , l) M: b/ R. w) v3 G; f. h1 N */ 6 B- V6 ?, b$ @6 c- v9 m m) Z$ \ @ScheduledMethod(* y* J1 s. G2 A, [- O9 H
start = 1d,, B7 ^# r2 g" @8 s! c
interval = 1d,+ [! E8 w: B) c! C& S
shuffle = false 7 r# `& O6 B( W7 w )% @( K9 d2 O, Q. l
public void step() {* Z; \7 e' B+ V( }- F! G8 H# F
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// Note the simulation time.1 B2 A7 I4 P+ @5 F( E7 h" D( m
def time = GetTickCountInTimeUnits()2 ^. P; v1 s' @% `& O
( ~7 x' {8 c0 B // This is a task. ' y3 `' T2 n9 r7 `0 F measurePressure=pressure+ RandomDraw(-20.0, 20.0) # c& E. B; y$ `& d# R // End the method.& p! Z5 N5 y& _- W- c
return# O# A) e$ X `1 W- h4 D* J4 r1 g* A
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}