// $Id: run.hoc,v 1.92 2012/03/05 21:58:50 samn Exp $
declare("wf1","o[1]","wf2","o[1]","wrec","o[1]")
sprint(tstr,"o[%d]",numcols)
declare("vit",tstr,"nqLFP",tstr,"SPKSZ",25e6*tstop/20e3,"vitdp","o[1]","maxrec",1)
method("local")
cvode.atol(1e-3)
cvode.condition_order(1) // irrelevant to acells?
declare("sepflds",0) // whether to record separate fields for each layer
// rv2 is part of grvec.hoc, as a stub, so it can be
// customized to do something to vector before graphing it
proc rv2 () { }
//** draw lines between cell subpopulations
proc rasterlines () { local i,j,ct,c localobj o
{g=graphItem c=CDX}
for CDX=0,numcols-1 for ct=0,CTYPi-1 if(col[CDX].numc[ct]) {
if(ct==DP) {
j=cedp.o(0).id
i=cedp.o(cedp.count-1).id
} else {
i=col[CDX].ce.o(col[CDX].ixe[ct]).gid
j=col[CDX].ce.o(col[CDX].ix[ct]).gid
}
drline(0,i,tstop,i,g,2,6)
o=mdl2view(g,0.9,j+col[CDX].numc[ct]/4)
g.label(0.9,o.x[3],CTYP.o(ct).s)
}
{CDX=c g.flush}
}
//** calls rasterlines, making sure g is set first
proc grlines () { local id
if(numarg()>0) id=$1 else id=0
{g=Graph[id] rasterlines()}
}
//** a
proc a () { local sh,sv
if(g==nil)gg()
if (!isobj(aa,"Graph")) aa=g else g=aa
if (aa.view_count==0) aa=g
sv=gnum gnum=ojtnum(g)
graphItem=g
sh=0 grv_.super=1 g.erase_all
grv_.gveraseflag=0 grv_.gvmarkflag=grv_.super=1 // gnum=0
gv(0,1+sh,2) // gv(1,3+sh,2) gv(2,2+sh,2)
grv_.gvmarkflag=grv_.super=0
gnum=sv
rasterlines()
}
//** b
proc b () { rewt() time() a() }
//** initrr - for doing a rerun - not used right now
proc initrr () {
rewt()
col.intf.global_init()
NStim[0].global_init()
vseed_stats(392426)
}
//** setMemb - nothing here
proc setMemb () {}
//** initMisc1
proc initMisc1 () { local i localobj xo
vseed_stats(392426)
col.intf.global_init()
for i=0,numcols-1 col[i].cstim.initrands()
for ltr(xo,cedp) xo.soma.v = vrefrac_DRSPK //make sure DPD voltages initialized to same level
}
objref ww // global ww for post processing
{wwht_INTF6=1 wwwid_INTF6=100}
//** wrecon - setup LFP recording, one LFP for each COLUMN
proc wrecon () { local cdx,ii,jj,x,ct,cnt localobj tl,vm
tl=new List()
for cdx=0,numcols-1 {
nqsdel(nqLFP[cdx])
if(sepflds) nqLFP[cdx]=new NQS("ES","EM","LFP") else {nqLFP[cdx]=new NQS(1) nqLFP[cdx].s[0].s="LFP"}
{nqLFP[cdx].v.resize(tstop/vdt_INTF6) nqLFP[cdx].pad()}
for ii=0,nqLFP[cdx].m-1 tl.append(nqLFP[cdx].v[ii])
}
{vm=new Vector(CTYPi) vm.x(ES)=0 vm.x(EM)=1}
col.intf.initwrec(tl)
for x=0,numcols-1 {
for case(&ct,ES,EM,&jj) {
for ii=col[x].ix[ct],col[x].ixe[ct] {
if(sepflds) {
col[x].ce.o(ii).wrc(vm.x(jj)+x*3)
col[x].ce.o(ii).wrc(x*3)
} else col[x].ce.o(ii).wrc(x)
}
}
}
}
//** wrecoff - turn off LFP recording
proc wrecoff () { local ct
for ctt(&ct) for ixt(ct) XO.wrec(0)
}
//** finishMisc - called @ end of run()
func finishMisc () { local ii localobj co
for ltr(XO,printlist) if (isassigned(XO.o)) if (XO.o.fflag) XO.o.fini
// if(0) panobj.pvplist(ofile,params,100) //dont save printlist for now
col.intf.global_fini
for ltr(co,lcol) co.intf.spkstats2(1)
print "TMAX: ",tmax_INTF6
return 1
}
//** snapsv() save after printlist items min-max to fixed dt
proc snapsv () { local a,vdt,min,max localobj v1,o
grv_.bst(3,3)
vdt=0.2
a=allocvecs(v1)
v1.resize(tstop/vdt)
for ltr(o,printlist) {
if (o.code!=3) continue
v1.snap(o.vec,o.tvec,vdt)
o.vec.copy(v1)
o.pstep=vdt
o.tvflag=0
}
if (numarg()==0) grv_.pvall()
dealloc(a)
}
proc exeruncall () { for ltr(XO,printlist) if (XO.code==3) XO.tvflag=1 }
proc pvout2 () { snapsv(1) }
//printlist=new List()
if(printlist==nil)printlist=new List()
proc prlclr () { localobj ce,col,intf
for ltr(XO,printlist) {
if (isassigned(XO.o)) if (XO.o.fflag) XO.o.recclr
}
// for ltr(XO,ce) XO.wrc(-1)
for ltr(col,lcol) {
{ce=col.ce intf=ce.o(0)}
for ii=0,ce.count-1 ce.o(ii).wrc(-1)
intf.wwfree(0)
}
printlist.remove_all
}
//** prl(recv,recs[,lvextra]) - setup recording in printlist
//$1 = whether to record any cell voltages, default off
//$2 = whether to record spike times, default on
//$o3 = extra cells to record. lv.o(0)=cell,lv.o(1)=param to record,etc.,optional
proc prl () { local a,x,cidx,ii,jj,offst,y,recv,recs,max localobj xo,lvextra,co,ce
if(numarg()>0) recv=$1 else recv=0
if(numarg()>1) recs=$2 else recs=1
if(numarg()>2) lvextra=$o3 else lvextra=nil
{offst=0 prlclr()}
for ltr(co,lcol,&ii) {
{ce=co.ce intf=co.intf}
if (recs) { sprint(tstr,"%s_SPKS",co.name)
if (intf.flag("jcn")) { // for use with jitcon()
printlist.append((vit[ii]=new vitem(tstr,SPKSZ,1)))
intf.jitrec(vit[ii].vec,vit[ii].tvec)
} else {
intf.jitrec() // clear jit recording
for ltr(xo,ce,&y) {
if (y==0) vit[ii]=new_printlist_nc(xo, xo.id, tstr) else {
new_printlist_nc2(vit[ii], xo, xo.id) }
}
}
}
if(co.numc[DP]>0) {
printlist.append(vitdp=new vitem("DPSPKS",100))
for ltr(xo,cedp,&y) new_printlist_nc(xo.drspk, y+co.ix[DP])
// for ltr(xo,cedp,&y) new_printlist_nc(xo.drspk, xo.id) // y+co.ix[DP])
}
npacsz=20
if (recv && ce.count>0) {
for x=0,CTYPi-1 if(co.numc[x]>0 && x!=DP) {
max=maxrec-1
for jj=0,max {
XO=ce.o(co.ix[x]+jj)
XO.recclr
new_printlist_ac(XO,"V", CTYP.o(x).s,XO.id)
// new_printlist_ac(XO,"VGB", CTYP.o(x).s,XO.id)
// new_printlist_ac(XO,"VGA", CTYP.o(x).s,XO.id)
// new_printlist_ac(XO,"AHP", CTYP.o(x).s,XO.id)
// printlist.o(printlist.count-1).code=3 // use code 3 for snapping
// XO=ce.object(ixe[x]-jj-1)
// XO.recclr
// new_printlist_ac(XO,"V", CTYP.object(x).s,XO.id)
}
}
}
if(lvextra!=nil){
for(jj=0;jj<lvextra.count;jj+=2){ XO=lvextra.o(jj)
new_printlist_ac(XO,lvextra.o(jj+1).s,CTYP.object(ctyp(XO.id)).s,XO.id)
}
}
}
wrecon()
}
stopoq_INTF6=1
//** turnoff
proc turnoff () { local cel0,cel1,off
cel0=$1 cel1=$2
if (argtype(3)==0) off=$3 else off=0
ind.indgen(ix[cel0],ixe[cel0],1) vec.indgen(ix[cel1],ixe[cel1],1)
intf.turnoff(ind,vec,off)
}
//** turn off intralaminar connections
proc intralamoff () { local ct,i
for i=0,numcols-1 for col[i].ctt(&ct) if(col[i].numc[ct] && col[i].div[ct][ct]) turnoff(ct,ct)
}
//** turn on intralaminar connections
proc intralamon () { local ct,i
for i=0,numcols-1 for col[i].ctt(&ct) if(col[i].numc[ct] && col[i].div[ct][ct]) turnoff(ct,ct,1)
}
//* mkrecl(col,ty) - setup recording of spikes from a population of cells
// return List with 2 sub-Lists: 1st with NetCons, 2nd with Vectors storing spikes
obfunc mkrecl () { local ct localobj xo,nc,col,ls,myncl,myspkl,myv
col=$o1 ct=$2
ls=new List()
ls.append(myncl=new List())
ls.append(myspkl=new List())
for ltr(xo,col.ce) {
if(xo.type!=ct) continue
xo.flag("out",1) // make sure NetCon events enabled from this cell
myncl.append(nc=new NetCon(xo,nil))
myspkl.append(myv=new Vector())
nc.record(myv) // record each cell separately
}
return ls
}
//* function calls
prl(1,1)