Init
Heat will flow into and out of an ensemble if the ensemble is in contact with a heat reservoir. This simulation tracks the internal energy of the gas, N<KT>, and the heat flow into the gas from the bottom wall, Q. Internal Energy is shown in blue and heat flow is shown in red.
<script language="JavaScript">
function initSH(){
document.Molecular.setAutoRefresh(false);
document.Molecular.setDefault();
document.Molecular.setShowControls(false);
document.Molecular.setPeriodicH(false);
document.Molecular.setPeriodicV(false);
document.Molecular.createParticles(40);
eid=document.Molecular.getEnsembleID();
document.Molecular.setAutoRefresh(true);
document.DataGraph.setAutoscaleX(true);
document.DataGraph.setAutoscaleY(true);
document.DataGraph.setMinMaxX(0,6.5);
document.DataGraph.setMinMaxY(-6,6);
document.DataGraph.clearSeries(1);
document.DataGraph.setSeriesStyle(1,true,0);
document.DataGraph.setSeriesRGB(1,255,0,0);
document.DataGraph.clearSeries(2);
document.DataGraph.setSeriesStyle(2,true,0);
document.DataGraph.setSeriesRGB(2,0,0,255);
document.DataGraph.setLabelY("U & Q");
document.DataGraph.setLabelX("Time");
document.DataGraph.setTitle("Internal Enery and Heat vs Time");
gid=document.DataGraph.getGraphID();
document.Molecular.deleteDataConnections();
cid=document.Molecular.makeDataConnection(eid,gid,1,"time","qb/dt");
document.Molecular.setConnectionSmoothing(cid,10);
document.Molecular.makeDataConnection(eid,gid,2,"time","t*n");
document.Molecular.setWallTemp("bottom", 1);
document.Molecular.forward();
}
</script>