# @6 q) ^! ~) g4 H! z@Parameter (displayName = "Measured Pressure", usageName = "measured pressure")5 O3 H1 S& w2 |, B* {8 N8 {6 g' {
public double getMeasured pressure() { 7 x2 m6 w) U( D' d1 _' q# Z return measured pressure4 E; d) ~1 E# s/ E* e- u/ V
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public void setMeasured pressure(double newValue) {5 q- g8 V* t6 }
measured pressure = newValue + z% j9 {, c! v. [, v }2 q+ Z- S+ B% ]" z
public double measured pressure = 0 5 q2 f* F0 }. ^, O) V1 d6 s! T k' X. [2 V6 n$ f# m
/**# M6 m/ T7 r! J4 d$ O
* " u6 e a" y5 V) o7 r * This value is used to automatically generate agent identifiers. ; k! W j! {% U9 `* e0 M/ f * @field serialVersionUID 4 V& J# t; s2 C1 I, X8 K * 2 s8 U. I) p+ E2 Z6 y$ r */! L9 }2 @) l A
private static final long serialVersionUID = 1L + A9 q3 p1 M9 q8 V 5 o0 ~( o4 k# K, q, x /**. L( c( L( V/ L" Y, U
* 0 y' N. Q J& }( C+ Z- b9 f: j3 M * This value is used to automatically generate agent identifiers.# l& J; x- W6 u$ J
* @field agentIDCounter 4 K2 a, G& e: J' v *; b/ u2 x! O( b/ f- t
*/ . V* g1 K! W$ @. l$ K: I0 \2 ? protected static long agentIDCounter = 1" Q; o Q5 f7 y
* b" O+ V* l/ E; Y& ` /** & l0 X* Z3 E' C *6 P9 r- n6 ]+ D- x
* This value is the agent's identifier. % y1 D. |- A, C3 C# n# S * @field agentID! s$ @4 f2 v, p
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protected String agentID = "GasNode " + (agentIDCounter++)1 C' u, J6 v& V5 q4 D
# R) j1 s/ u0 ~& ~; U6 J& ~ /**: g$ V9 ?$ y3 T1 v* R
* : y, Y1 X. v6 J7 d * This is the step behavior.) e; [& ^" H( }6 Q9 e7 [
* @method step 5 N M9 U+ k2 |% N *. @1 I, W8 W5 i, k- h9 A
*/ % [( Z2 d- V& r0 d/ E @Watch($ w i8 a; P9 ~$ i& m0 E
watcheeClassName = 'infrastructuredemo.GasNode', # y' R( u; ]. K$ K* Y watcheeFieldNames = 'pressure', ) i3 B- ?" ]( T3 | query = 'linked_from',/ k0 M* j- g) F) o
whenToTrigger = WatcherTriggerSchedule.LATER," d$ m" q3 I7 @- T
scheduleTriggerDelta = 10d! G3 M7 {: V2 Z! S
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public def step(infrastructuredemo.GasNode watchedAgent) {* }0 s0 R+ T5 T
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// Define the return value variable.& m( E' Z8 }+ _% p5 J) ]
def returnValue j7 K7 z. E# b2 A# o+ s2 p; h( { t7 v4 {: r* z& |8 t; L7 }
// Note the simulation time.) p8 ^! N! h" f8 l2 p5 D2 N7 b
def time = GetTickCountInTimeUnits() $ ?8 e' H/ ?" O' j' D 2 E c* X& H) u2 ~9 C& _3 d( v: A9 X0 B0 t4 N
// This is an agent decision. $ Z% e: B8 S+ D V5 K0 e! t if (watchedNode.pressure<200) {/ p' p W) H, A2 g2 x, z" W( e3 J0 Y
$ \1 V: f: F& ]9 ? o3 g- j# {# w // This is a task.8 e- H7 w9 a, w5 `/ ]
setPressure(watchedAgent.pressure) . B6 j! I' J1 w% z% V x9 Y8 [( _& E3 R } else {- f1 P0 z9 t4 j4 l( U" _- _
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// Return the results.5 O4 E( _: i0 j* U
return returnValue / X# q' F* f6 A9 E* L $ C$ T* N: d0 S z+ y: z* I } - }" L: ]& s: O/ ?) W1 i4 J$ X& k( @; p8 V8 i3 Y3 c2 b. C4 z
/** ; D( s$ J, Y1 v *9 N9 K( n; w- E( ?
* This is the step behavior. 1 n: R: w1 D, p8 j) b+ C* f * @method step ! D& O1 m. P5 _2 u" `2 |, F * - G* P# p9 f, N, H */ ; h. k! N/ Y, d) z6 }& J" e+ D5 b @ScheduledMethod(- s, Q! ~. D9 x. C+ ^1 X
start = 1d,) y9 n/ q; C- M% M) e
interval = 1d,& D% L* f8 b- \+ I6 f' m
shuffle = false " M6 v3 s1 r1 |& B7 H/ Y2 D ) 2 Y5 ]8 d) i% K3 b. f public void step() { 6 s% `8 x2 ?. Z0 v2 G, g0 k2 C" ] d0 J$ J
// Note the simulation time. 3 @% t: g$ r. J4 a def time = GetTickCountInTimeUnits() . B4 h) b4 \' T4 ~, H" J( H0 x5 q0 x0 Y" G0 V
// This is a task., e+ q# b4 V/ S/ ]( g d" k6 w
measurePressure=pressure+ RandomDraw(-20.0, 20.0)8 a8 J/ G8 ]6 Y- s6 S' @
// End the method.+ w& ~' a, `5 A6 K
return. k/ U# A+ s) F N5 ?4 p; N. }