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<b>Executing the code will leave the page unresponsive for a few minutes.</b> Gravity Description The system calculates the energy related to Newton's Law = G * m1 * m2 / r. Where m1 = m2 = 1/d0 Differentiating the above with respect to r, you will get Newton's Gravity Law F = G * m1 * m2 / r ^2. Making m1 equal to m_e = 1 / d0 / lp = lp * m_e, which gives the gravitational force between two electrons. Note since lp is very small, the simulation will take a long time. Note only energy of p1 should be considered.

This is just a replacement in case Javascript is not available or used for SEO purposes

//insert code here
function GraphIt() {

var newElement = document.createElement('p');
	var L = 1000000;
	var w=1;
	var f1  =0;
	var f = 0;
	var q = 0;
	var en = 0;
	var en1 = 0;
	var edx = 0;
	var edx1 = 0;
	var kj = 20000000; // increase for accuracy
	var m = 0;
	var km = 500000;

var d0 = 10;
	var d1 = 10;
	var intr = .50 ;
	
	var dt = 0;

var rand = new Random();
	
    // create an array 's' and 'l' and initialize all elements to 0
    var fr = new Array();
	for (var i = 0; i <= km;i++) {
		fr.push([0,0]);
	}
	
	for ( var m = 1000; m <1000+1; m++) {
		var S = new Array();
		var Sy = new Array();

for (var i = 0; i <= d0;i++) {
			S.push(0);
			Sy.push(0);
		}
   
		var dist = 2*m*intr + d0;
		var st1 =(L/2)  - m*intr;
		var st0 =(L/2) + d0 + m*intr ;	
 
		f = 0;	f1 = 0;	edx = 0;	edx1 = 0;	en = 0.0;  en1=0;  ent=0;
	
		for ( var i = 1; i <kj; i++) {
			// throw random lines
			var p = d0 * rand.random();
			var li =  (dist + d0) *rand.random();
			var p1 =  d1 *rand.random();
			var li1 = (dist +d1)* rand.random();

p=Math.floor(p);
                         li=Math.floor(li);
                         p1=Math.floor(p1);
                         li1=Math.floor(li1);

// put random lines through conditions

dt = Math.floor(d0/2);
			if ( p == dt && p1 == dt) {
				en1 = en1 + li1;
				f1++;
			}
			else
			{
                                Sy[Math.floor(p1)]=Sy[Math.floor(p1)]+1;
				S[Math.floor(p)]=S[Math.floor(p)]+1;
				en = en+(li);
				f++;
			}
		}
 
		en = f1/en;
		en1 = f/en1;

//document.lf.log.value += m+" "+dist+" "+en+"\n";
 		for ( var ind = 0; ind<=d0; ind++) {
			// CALCULATE EXPECTATION VALUE AFTER INTERACTION HAS TAKEN PLACE
			edx = edx + (ind) * S[ind];
			edx1 = edx1 + (ind) * Sy[ind];
		}

fr[m][0] = (edx1 / f)- (0.5 * d1)+.5 ;

fr[m][1] = (edx / f)- (0.5 * d1)+.5;

//distance coupling  energy(p)    energy(p1)  expectation(p)     expectation(p1)

document.lf.log.value += dist+" "+en*dist * d0*d0+" "+en+" "+en1+" " + fr[m][0] +" " + fr[m][1] + "\n";
	}
}