/// <summary>
/// main init <see cref="lifemix.lifereactor"/> class using seed+fraction to eliminate
/// rules and add them to the reactor.
/// </summary>
/// <param name="tm"> max type </param>
/// <param name="sm"> max state </param>
/// <param name="f"> fraction (0 < x < 1.0) </param>
/// <param name="s"> seed for replay </param>
public lifereactor (int tm, int sm, double f, int s, double r)
{
/// init members
tmax = tm;
smax = sm;
fraction = f;
seed = s;
/// then init random generator
rd = new Random (seed);
/// create reactor
rec = new reactor ();
int idx = 0;
/// prepare the loop for all possible reaction
/// and thin it according to fraction
for (int t1 = 0; t1 < tmax; t1++) {
for (int s1 = 0; s1 < smax; s1++) {
for (int t2 = 0; t2 < tmax; t2++) {
for (int s2 = 0; s2 < smax; s2++) {
for (int s3 = 0; s3 < smax; s3++) {
for (int s4 = 0; s4 < smax; s4++) {
for (int c = 0; c < 2; c++) {
for (int p = 0; p < 2; p++) {
if ((s1 != s3) || (s2 != s4) || (c != p)) {
double o = rd.NextDouble ();
if (o < fraction) {
var ru = new b_rule (c == 1, t1 + 1, s1, t2 + 1, s2, p == 1, t1 + 1, s3, t2 + 1, s4, idx, r);
idx++;
rec.add_rule (ru);
}
}
}
}
}
}
}
}
}
}
/* for (int t1 = 0; t1 < tmax; t1++) {
for (int s1 = 0; s1 < smax; s1++) {
for (int t2 = 0; t2 < tmax; t2++) {
for (int s2 = 0; s2 < smax; s2++) {
double o = rd.NextDouble ();
if (o < fraction) {
var ru = new m_rule (t1, s1, t2, s2, false, r, ++idx);
rec.add_rule (ru);
}
}
}
}
}
*/
}
public bool apply(reactor rec,int pa){
particle a = rec.get_particle_id(pa);
//Console.WriteLine("a: " + a);
rec.remove_particle (a);
return true;
}
public static void graph(reactor rec, int seed, double lambda, int nb){
rec.export_graphviz ("out_" + seed + "_" + lambda + "_" + nb + ".dot");
// rec.export_particles_list ("part.rec");
var g = rec.create_graph ();
IDictionary<int,int> components = new Dictionary<int,int> ();
int count = g.WeaklyConnectedComponents (components);
Console.Write (count + " " + rec.npart + " " + ((double)count) / (rec.npart));
List<particle>[] u = new List<particle>[count];
for (int i = 0; i < count; i++)
u [i] = new List<particle> ();
foreach (KeyValuePair<int,int> kv in components) {
u [kv.Value].Add (rec.get_particle_id (kv.Key));
}
int tk = 0;
for (int i = 0; i < count; i++)
tk += u [i].Count;
Console.WriteLine (" " + ((float)tk) / count);
for (int i = 0; i < count; i++) {
List<particle> l = u [i];
particle p = l.Find (x => x.st.type == 5);
if (p != null) {
particle current = p;
bool done = true;
while (done) {
Console.Write (current.st);
l.Remove (current);
if (current.linked.Count > 0) {
int nc = current.linked.Count;
int z = 0;
while (z < nc && !l.Contains (rec.get_particle_id (current.linked [z]))) {
z++;
}
if (z == nc)
done = false;
else {
current = rec.get_particle_id (current.linked [z]);
}
}
}
Console.WriteLine ("");
} else {
foreach (particle r in l) {
Console.Write (r.st);
}
Console.WriteLine ("");
}
}
}
public bool apply(reactor rec,int pa){
particle a = rec.get_particle_id(pa);
type_state old_a = a.st;
type_state new_a = end;
if (old_a != new_a)
rec.update_new_state (a, old_a, new_a);
if (unlink)
rec.all_unlink (a.id);
return true;
}
public void TestReactor ()
{
reactor rec = new reactor ();
/// new configuration tests
Assert.AreEqual (0, rec.particles.Count);
Assert.AreEqual (0, rec.rules.Count);
int t = 0, s = 1;
type_state key = new type_state(t,s);
particle p = new particle (t, s);
rec.add_particle (p);
// test add particles
Assert.AreEqual (1, rec.particles.Count);
Assert.IsTrue(rec.stDict.ContainsKey(key));
Assert.AreEqual (1, rec.stDict [key].Count);
// check link -> no links
Assert.AreEqual (0, rec.pDict.Count);
// double add
rec.add_particle (p);
Assert.AreEqual (1, rec.particles.Count);
// two particles
particle q = new particle (t, s);
// test add
rec.add_particle (q);
Assert.AreEqual (2, rec.particles.Count);
// test dictionnaries
Assert.IsTrue(rec.stDict.ContainsKey(key));
Assert.AreEqual (2, rec.stDict [key].Count);
// test remove
rec.remove_particle (q);
Assert.AreEqual (1, rec.particles.Count);
Assert.IsTrue(rec.stDict.ContainsKey(key));
Assert.AreEqual (1, rec.stDict [key].Count);
rec.remove_particle (p);
Assert.AreEqual (0, rec.particles.Count);
Assert.IsTrue(rec.stDict.ContainsKey(key));
Assert.AreEqual (0, rec.stDict [key].Count);
// test link
rec.add_particle (q);
rec.add_particle (p);
Assert.AreEqual (2, rec.particles.Count);
Assert.IsTrue(rec.stDict.ContainsKey(key));
Assert.AreEqual (2, rec.stDict [key].Count);
// create pair part
pair_st pst = new pair_st (p, q);
pair_st pstn = new pair_st (p.st, q.st);
Assert.AreEqual (pst.a, pstn.a);
Assert.AreEqual (pst.b, pstn.b);
rec.link (p, q);
Assert.AreEqual (2, rec.particles.Count);
Assert.IsTrue(rec.stDict.ContainsKey(key));
Assert.AreEqual (2, rec.stDict [key].Count);
Assert.IsTrue (rec.pDict.ContainsKey (pst));
Assert.AreEqual (1, rec.pDict[pst].Count);
}
public static void Main (string[] args)
{
int seed = Int32.Parse (args [0]);
double lambda = double.Parse (args [1]);
int nb = Int32.Parse (args [2]);
//double kappa = double.Parse (args [3]);
string js_name = args [3];
string json;
using (System.IO.StreamReader r = new System.IO.StreamReader (js_name)) {
json = r.ReadToEnd ();
}
ensemble e = JsonConvert.DeserializeObject<ensemble> (json);
reactor rec = new reactor ();
for(int x = 0; x < nb; x++)
rec.insert_ensemble (e);
var lr0 = b_rule.generate_rules (7, false, 5, 8, 5, 0, true, 4, 3,1,lambda);
var lr1 = b_rule.generate_rules (7, true, -1, 4, -2, 1, true, 2, 5,2,lambda);
var lr2 = b_rule.generate_rules (7, false, -1, 5, -1, 0, true, 7, 6,3,lambda);
var lr3 = b_rule.generate_rules (7, false, -1, 3, -2, 6, true, 2, 13, 4,lambda);
var lr4 = b_rule.generate_rules (7, true, -1, 7, -2, 13, true, 4, 3,5,lambda);
var lr5 = b_rule.generate_rules (7, true, 6, 4, 6, 3, false, 8, 8,6,lambda);
var lr6 = b_rule.generate_rules (7, true, -1, 2, -2, 8, true, 9, 1,7,lambda);
var lr7 = b_rule.generate_rules (7, true, -1, 9, -2, 9, false, 8, 8, 8,lambda);
foreach(b_rule r in lr0) rec.add_rule(r);
foreach(b_rule r in lr1) rec.add_rule(r);
foreach(b_rule r in lr2) rec.add_rule(r);
foreach(b_rule r in lr3) rec.add_rule(r);
foreach(b_rule r in lr4) rec.add_rule(r);
foreach(b_rule r in lr5) rec.add_rule(r);
foreach(b_rule r in lr6) rec.add_rule(r);
foreach(b_rule r in lr7) rec.add_rule(r);
double lambda_p = 1e-6;
for (int i = 1; i < 7; i++) {
var er0 = new o_rule (i, 0, lambda_p);
rec.add_rule (er0);
}
double lambda_d = 1e-7;
for (int i = 1; i < 7; i++) {
for (int j = 0; j < 1; j++) {
var er0 = new d_rule (i, j, lambda_d, 0);
rec.add_rule (er0);
}
}
for (int i = 0; i < 10; i++) {
rec.add_particle (new particle (1, 0));
rec.add_particle (new particle (2, 0));
rec.add_particle (new particle (3, 0));
rec.add_particle (new particle (4, 0));
rec.add_particle (new particle (5, 0));
rec.add_particle (new particle (6, 0));
}
double tau;
double total_time = 0.0;
Random rd = new Random (seed);
int step = 0;
int idx;
int ndiv = 0;
while (rec.gillespie_step (rd,out tau, out idx)) {
total_time +=tau;
step++;
int npart = rec.particles.Count;
if (npart>100000)
break;
Console.WriteLine (step+ " " + npart + " " + ndiv + " " + total_time + " " + idx + " " + rec.get_rule(idx).idx + " " + rec.get_rule(idx));
if (idx == 245)
ndiv ++;
if (step % 1000 == 0) {
var g = rec.create_graph ();
IDictionary<int,int> components = new Dictionary<int,int> ();
int count = g.WeaklyConnectedComponents (components);
List<particle>[] u = new List<particle>[count];
for (int i = 0; i < count; i++)
u [i] = new List<particle> ();
foreach (KeyValuePair<int,int> kv in components) {
u [kv.Value].Add (rec.get_particle_id (kv.Key));
}
using(System.IO.StreamWriter str = new System.IO.StreamWriter("out"+step+".out")){
for (int i = 0; i < count; i++)
str.Write(u [i].Count + " ");
}
rec.export_graphviz ("out_" + seed + "_" + lambda + "_" + nb + "_" + step + ".dot");
}
}
/* var g = rec.create_graph ();
IDictionary<int,int> components = new Dictionary<int,int> ();
int count = g.WeaklyConnectedComponents (components);
List<particle>[] u = new List<particle>[count];
for (int i = 0; i < count; i++)
u [i] = new List<particle> ();
foreach (KeyValuePair<int,int> kv in components) {
u [kv.Value].Add (rec.get_particle_id (kv.Key));
}
using(System.IO.StreamWriter str = new System.IO.StreamWriter("out.out")){
for (int i = 0; i < count; i++)
str.Write(u [i].Count + " ");
}
int tk = 0;
for (int i = 0; i < count; i++)
tk += u [i].Count;
*/
/* Console.Write(lambda + " " + nb + " " + kappa + " " + seed + " " + step+" " + total_time+ " " + count + " " + rec.npart + " " + ((double)count) / (rec.npart));
Console.Write (" " + ndiv);
Console.WriteLine (" " + ((float)tk) / count);
*/
rec.export_graphviz ("out_" + seed + "_" + lambda + "_" + nb + ".dot");
}
public override bool apply_rule(reactor rec, Random rd){
particle o = new particle (target_type, target_state);
rec.add_particle(o);
return true;
}
public override double propensity(reactor rec){
return propensity (rec.stDict, rec.pDict);
}
public override bool apply_rule(reactor rec, Random rd){
var ret = pick_reactants (rec.stDict, rec.pDict, rd);
if (ret.id1 == -1)
return false;
return apply (rec, ret);
}
public bool apply(reactor rec,pair_part ret){
particle a = rec.get_particle_id(ret.id1);
particle b = rec.get_particle_id(ret.id2);
type_state old_a = a.st;
type_state old_b = b.st;
switch (function) {
case 0:
default:
return false;
case 1: //link
rec.link (a, b);
break;
case 2: // split
rec.unlink (a, b);
break;
case 3: // add
type_state new_a = new type_state(a.st.type,a.st.state+1);
type_state new_b = new type_state(b.st.type,b.st.state+1);
rec.update_new_state (a, old_a,new_a);
rec.update_new_state (b, old_b,new_b);
break;
case 4: // swap
rec.update_new_state (a, old_a,old_b);
rec.update_new_state (b, old_b,old_a);
break;
}
return true;
}
public override bool apply_rule(reactor rec, Random rd){
int pa = pick_reactants (rec.stDict, rec.pDict, rd);
return apply (rec, pa);
}
public virtual bool apply_rule(reactor rec, Random rd){
return false;
}
public virtual double propensity(reactor rec){
//Console.WriteLine ("error");
return 0.0;
}
public override double propensity(reactor rec){
var pDict = rec.pDict;
var stDict = rec.stDict;
pair_st st = reactants;
if (reactionContact == true) {
// looking for linked reactants as in pair
int count = 0;
if (pDict.ContainsKey (st))
count += pDict [st].Count;
pair_st st_swap = st.swap ();
if (pDict.ContainsKey (st_swap))
count += pDict [st_swap].Count;
// counting the number of reactants
int na = stDict.ContainsKey (trireac) ? stDict [trireac].Count : 0;
// we need to remove already linked
pair_st a1 = new pair_st(reactants.a, trireac);
int rem = 0;
if (pDict.ContainsKey (a1)) {
foreach (pair_part p in pDict[a1]) {
particle p1 = rec.get_particle_id(p.id1);
particle p2 = rec.get_particle_id(p.id2);
if (p1.st == trireac) {
foreach (int id in p1.linked) {
particle o = rec.get_particle_id (id);
if (o.st == reactants.b)
rem += 1;
}
} else {
foreach (int id in p2.linked) {
particle o = rec.get_particle_id (id);
if (o.st == reactants.b)
rem += 1;
;
}
}
}
}
return rate * (count * na - rem);
}
else {
type_state a = st.a;
type_state b = st.b;
int na = stDict.ContainsKey (a) ? stDict [a].Count : 0;
int nb = stDict.ContainsKey (b) ? stDict [b].Count : 0;
int nc = pDict.ContainsKey (st) ? pDict [st].Count : 0;
nc = pDict.ContainsKey (st.swap()) ? pDict [st.swap()].Count : 0;
if (a.state == b.state && a.type ==b.type )
nb += -1;
int ntot = na * nb - nc;
if (ntot < 0)
return 0.0;
return rate * ntot;
}
}
public bool apply(reactor rec,pair_part ret){
particle a = rec.get_particle_id(ret.id1);
particle b = rec.get_particle_id(ret.id2);
type_state old_a = a.st;
type_state old_b = b.st;
// Console.WriteLine ("A:" + (old_a.state == r.reactants.b.state));
pair_st st = products;
type_state new_a = st.a;
type_state new_b = st.b;
if (old_a != new_a)
rec.update_new_state (a, old_a, new_a);
if (old_b!=new_b)
rec.update_new_state (b , old_b, new_b);
if (productContact)
rec.link (a, b);
else {
a.unlink (b);
rec.unlink (a, b);
}
return true;
}
