static int state (double* _p, Datum* _ppvar, Datum* _thread, _NrnThread* _nt) {int _reset=0; int error = 0; { double* _savstate1 = _thread[_dith1]._pval; double* _dlist2 = _thread[_dith1]._pval + 1; int _counte = -1; if (!_recurse) { _recurse = 1; {int _id; for(_id=0; _id < 1; _id++) { _savstate1[_id] = _p[_slist1[_id]];}} error = nrn_newton_thread(_newtonspace1, 1,_slist2, _p, state, _dlist2, _ppvar, _thread, _nt); _recurse = 0; if(error) {abort_run(error);}} { Dcai = ( - beta * ica ) - ( phi * ( cai - caiBase ) ) ; {int _id; for(_id=0; _id < 1; _id++) { if (_deriv1_advance) { _dlist2[++_counte] = _p[_dlist1[_id]] - (_p[_slist1[_id]] - _savstate1[_id])/dt; }else{ _dlist2[++_counte] = _p[_slist1[_id]] - _savstate1[_id];}}} } } return _reset;}
static int state (double* _p, Datum* _ppvar, Datum* _thread, _NrnThread* _nt) {int _reset=0; int error = 0; { double* _savstate1 = _thread[_dith1]._pval; double* _dlist2 = _thread[_dith1]._pval + 2; int _counte = -1; if (!_recurse) { _recurse = 1; {int _id; for(_id=0; _id < 2; _id++) { _savstate1[_id] = _p[_slist1[_id]];}} error = nrn_newton_thread(_newtonspace1, 2,_slist2, _p, state, _dlist2, _ppvar, _thread, _nt); _recurse = 0; if(error) {abort_run(error);}} { Dko = ( 1e8 ) * ik / ( fhspace * FARADAY ) + ( kbath - ko ) / txfer ; Dnai = - ( 1e8 ) * ina / ( inspace * FARADAY ) + ( narest - nai ) / naxfer ; {int _id; for(_id=0; _id < 2; _id++) { if (_deriv1_advance) { _dlist2[++_counte] = _p[_dlist1[_id]] - (_p[_slist1[_id]] - _savstate1[_id])/dt; }else{ _dlist2[++_counte] = _p[_slist1[_id]] - _savstate1[_id];}}} } } return _reset;}
static int states (double* _p, Datum* _ppvar, Datum* _thread, _NrnThread* _nt) {int _reset=0; int error = 0; { double* _savstate1 = _thread[_dith1]._pval; double* _dlist2 = _thread[_dith1]._pval + 2; int _counte = -1; if (!_recurse) { _recurse = 1; {int _id; for(_id=0; _id < 2; _id++) { _savstate1[_id] = _p[_slist1[_id]];}} error = nrn_newton_thread(_newtonspace1, 2,_slist2, _p, states, _dlist2, _ppvar, _thread, _nt); _recurse = 0; if(error) {abort_run(error);}} { rates ( _threadargscomma_ v ) ; Dm = ( minf - m ) / mtau ; Dn = ( ninf - n ) / ntau ; {int _id; for(_id=0; _id < 2; _id++) { if (_deriv1_advance) { _dlist2[++_counte] = _p[_dlist1[_id]] - (_p[_slist1[_id]] - _savstate1[_id])/dt; }else{ _dlist2[++_counte] = _p[_slist1[_id]] - _savstate1[_id];}}} } } return _reset;}
static int state (double* _p, Datum* _ppvar, Datum* _thread, _NrnThread* _nt) {int _reset=0; int error = 0; { double* _savstate1 = _thread[_dith1]._pval; double* _dlist2 = _thread[_dith1]._pval + 1; int _counte = -1; if (!_recurse) { _recurse = 1; {int _id; for(_id=0; _id < 1; _id++) { _savstate1[_id] = _p[_slist1[_id]];}} error = nrn_newton_thread(_newtonspace1, 1,_slist2, _p, state, _dlist2, _ppvar, _thread, _nt); _recurse = 0; if(error) {abort_run(error);}} { drive_channel = - ( 10000.0 ) * ica / ( 2.0 * FARADAY * depth ) ; if ( drive_channel <= 0. ) { drive_channel = 0. ; } Dca = drive_channel / 18.0 + ( cainf - ca ) / taur * 7.0 ; cai = ca ; {int _id; for(_id=0; _id < 1; _id++) { if (_deriv1_advance) { _dlist2[++_counte] = _p[_dlist1[_id]] - (_p[_slist1[_id]] - _savstate1[_id])/dt; }else{ _dlist2[++_counte] = _p[_slist1[_id]] - _savstate1[_id];}}} } } return _reset;}