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#include <octane_matrix.h>
#define __modname(SUFFIX, IDX) \
((""s + this->name() + "_" + SUFFIX + to_string(IDX)).c_str())
#define __outname(SUFFIX, IDX, IDY) \
((""s + this->name() + "_" + SUFFIX + to_string(IDX) + "_" + to_string(IDY)).c_str())
using std::size_t;
using std::pow;
void OctaneMatrix::init_ports()
{
// --------------------------------------------------------------------------//
// --------------------------------------------------------------------------//
// Initializing input ports
// --------------------------------------------------------------------------//
// --------------------------------------------------------------------------//
p_in_r.clear();
p_in_c.clear();
// cout << "Initializing input ports of " << name() << endl;
for(size_t i = 0; i < m_rows; i++)
p_in_r.push_back(make_unique<port_in_type>(__modname("IN_R_", i)));
for(size_t i = 0; i < m_columns; i++)
p_in_c.push_back(make_unique<port_in_type>(__modname("IN_C_", i)));
// --------------------------------------------------------------------------//
// --------------------------------------------------------------------------//
// Initializing output port matrix
// --------------------------------------------------------------------------//
// --------------------------------------------------------------------------//
p_readout.clear(); // clearing before start
// cout << "Initializing output ports of " << name() << endl;
vector<unique_ptr<sc_out<double>>> temp_vector;
for(size_t i = 0; i < m_rows; i++)
{
temp_vector.clear(); // moving to new row
for(size_t j = 0; j < m_columns; j++)
{
temp_vector.push_back(make_unique<sc_out<double>>(__outname("PD_", i, j)));
}
p_readout.push_back(std::move(temp_vector)); // adding new row
}
// cout << "Successful port initialization of " << name() << endl;
}
void OctaneMatrix::init()
{
double crossing_loss = 0;
// --------------------------------------------------------------------------//
// --------------------------------------------------------------------------//
// Initializing circuit elements (waveguides, DCs, octanecell)
// --------------------------------------------------------------------------//
// --------------------------------------------------------------------------//
m_optical_connect_horizontal.clear();
m_optical_connect_vertical.clear();
m_segment.clear();
m_cross.clear();
// cout << "Initializing submodules of " << name() << endl;
// Optical wires
unsigned long num_of_nets_horizontal = 3*m_rows*(m_columns-1);
unsigned long num_of_nets_vertical = (m_rows-1)*m_columns;
for(unsigned long i = 0; i < num_of_nets_horizontal; i++)
m_optical_connect_horizontal.push_back(make_unique<sc_signal<OpticalSignal>>(__modname("wh_", i)));
for(unsigned long i = 0; i < num_of_nets_vertical; i++)
m_optical_connect_vertical.push_back(make_unique<sc_signal<OpticalSignal>>(__modname("wv_", i)));
// Crossings
for(unsigned long i = 0; i < m_rows; i++)
{ // Last column doesn't have crossings, thus the -1 in the loop
for(unsigned long j = 0; j < (m_columns - 1); j++)
{
m_cross.push_back(make_unique<Crossing>(__outname("X_", i, j), crossing_loss));
}
}
// Octane segments
bool term_row = false;
bool term_col = false;
double coupling_through_row = 0;
double coupling_through_col = 0;
for(unsigned long i = 0; i < m_rows; i++)
{
for(unsigned long j = 0; j < m_columns; j++)
{
if(isLastRow(i) && isLastCol(j))
{
// Last element
term_col = true;
term_row = true;
coupling_through_row = 0;
coupling_through_col = 0;
}
else if(isLastRow(i))
{
// Term row
term_col = false;
term_row = true;
coupling_through_row = (1.0 - 1.0/(m_columns - j));
coupling_through_col = 0;
}
else if(isLastCol(j))
{
// Term col
term_col = true;
term_row = false;
coupling_through_row = 0;
coupling_through_col = (1.0 - 1.0/(m_rows - i));
}
else
{
// Inner element
term_col = false;
term_row = false;
coupling_through_row = (1.0 - 1.0/(m_columns - j));
coupling_through_col = (1.0 - 1.0/(m_rows - i));
}
auto temp_segment = make_unique<OctaneSegment>
(
__outname("SEG_", i, j),
term_row, term_col,
coupling_through_row, coupling_through_col,
m_meltEnergy, m_nStates, m_isCompact
);
temp_segment->init(); // mandatory initialization
m_segment.push_back(std::move(temp_segment));
}
}
// cout << "Successful module initialization of " << name() << endl;
// Modules are constructed in their vectors, time to connect !
connect_submodules();
}
void OctaneMatrix::connect_submodules()
{
// cout << "Connecting submodules of " << name() << endl;
// If there is only one element in the matrix
// the pins are connected directly
if((m_rows == 1) && (m_columns == 1))
{
// cout << name() << "contains only one element. " << endl;
m_segment.at(0)->p_in[0]->bind(*p_in_r.at(0));
m_segment.at(0)->p_in[1]->bind(*p_in_c.at(0));
m_segment.at(0)->p_readout->bind(*p_readout[0][0]);
// cout << "Successful connection of " << name() << endl;
return;
}
// Column vector
if(m_columns == 1)
{
// cout << name() << "contains only one column. " << endl;
for(unsigned long i = 0; i < m_rows; i++)
{
// in segment, in row is p_in[0]
m_segment.at(i)->p_in[0]->bind(*p_in_r.at(i));
if(isFirstRow(i)) // should connect to the port
m_segment.at(i)->p_in[1]->bind(*p_in_c.at(0));
else // connects to intermediate net which is output of the previous block
m_segment.at(i)->p_in[1]->bind(*m_optical_connect_vertical.at(i-1));
if(!isLastRow(i)) // there's only one output in vector segment
m_segment.at(i)->p_out[0]->bind(*m_optical_connect_vertical.at(i));
m_segment.at(i)->p_readout->bind(*p_readout[i][0]);
}
// cout << "Successful connection of " << name() << endl;
return;
}
// Row vector
if(m_rows == 1)
{
// cout << name() << "contains only one row. " << endl;
for(unsigned long j = 0; j < m_columns; j++)
{
if(isFirstCol(j))
{
// in segment, in row is p_in[0]
m_segment.at(j)->p_in[0]->bind(*p_in_r.at(0));
m_segment.at(j)->p_in[1]->bind(*m_optical_connect_horizontal.at(3*j+1));
m_segment.at(j)->p_out[0]->bind(*m_optical_connect_horizontal.at(3*j));
// in1, out1 are horizontal connections
m_cross.at(j)->p_in1.bind(*m_optical_connect_horizontal.at(3*j));
m_cross.at(j)->p_in2.bind(*p_in_c.at(j));
m_cross.at(j)->p_out1.bind(*m_optical_connect_horizontal.at(3*j+2));
m_cross.at(j)->p_out2.bind(*m_optical_connect_horizontal.at(3*j+1));
}
else if(!isLastCol(j))
{ // middle element
m_segment.at(j)->p_in[0]->bind(*m_optical_connect_horizontal.at(3*j-1));
m_segment.at(j)->p_in[1]->bind(*m_optical_connect_horizontal.at(3*j+1));
m_segment.at(j)->p_out[0]->bind(*m_optical_connect_horizontal.at(3*j));
// in1, out1 are horizontal connections
m_cross.at(j)->p_in1.bind(*m_optical_connect_horizontal.at(3*j));
m_cross.at(j)->p_in2.bind(*p_in_c.at(j));
m_cross.at(j)->p_out1.bind(*m_optical_connect_horizontal.at(3*j+2));
m_cross.at(j)->p_out2.bind(*m_optical_connect_horizontal.at(3*j+1));
}
else
{ // last column here
m_segment.at(j)->p_in[0]->bind(*m_optical_connect_horizontal.at(3*j-1));
m_segment.at(j)->p_in[1]->bind(*p_in_c.at(j));
}
m_segment.at(j)->p_readout->bind(*p_readout[0][j]);
}
// cout << "Successful connection of " << name() << endl;
return;
}
// Getting here means it's an actual matrix with more than one element
unsigned long cur_pos;
unsigned long cur_cross;
unsigned long seg_out_h;
unsigned long seg_out_v;
for(unsigned long i = 0; i < m_rows; i++)
{
for(unsigned long j = 0; j < m_columns; j++)
{
cur_pos = m_columns*i + j;
cur_cross = (m_columns-1)*i + j;
seg_out_h = 3*(m_columns-1)*i+3*j;
seg_out_v = m_columns*i+j;
// cout << "cur_pos: " << cur_pos << endl;
// cout << "cur_cross: " << cur_cross << endl;
// cout << "out_h: " << seg_out_h << endl;
// cout << "out_v: " << seg_out_v << endl;
if(isFirstRow(i) && isFirstCol(j))
{
// cout << "first element" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*p_in_r.at(i));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_horizontal.at(seg_out_h+1));
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_horizontal.at(seg_out_h));
m_segment.at(cur_pos)->p_out[1]->bind(*m_optical_connect_vertical.at(seg_out_v));
m_cross.at(cur_cross)->p_in1.bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in2.bind(*p_in_c.at(j));
m_cross.at(cur_cross)->p_out1.bind(*m_optical_connect_horizontal.at(seg_out_h+2));
m_cross.at(cur_cross)->p_out2.bind(*m_optical_connect_horizontal.at(seg_out_h+1));
}
else if(isFirstRow(i) && !isLastCol(j))
{
// cout << "first row not last col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*m_optical_connect_horizontal.at(seg_out_h-1));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_horizontal.at(seg_out_h+1));
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_horizontal.at(seg_out_h));
m_segment.at(cur_pos)->p_out[1]->bind(*m_optical_connect_vertical.at(seg_out_v));
m_cross.at(cur_cross)->p_in1.bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in2.bind(*p_in_c.at(j));
m_cross.at(cur_cross)->p_out1.bind(*m_optical_connect_horizontal.at(seg_out_h+2));
m_cross.at(cur_cross)->p_out2.bind(*m_optical_connect_horizontal.at(seg_out_h+1));
}
else if(isFirstRow(i) && isLastCol(j))
{
// cout << "first row last col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*m_optical_connect_horizontal.at(seg_out_h-1));
m_segment.at(cur_pos)->p_in[1]->bind(*p_in_c.at(j));
// no row output
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_vertical.at(seg_out_v));
}
else if(!isFirstRow(i) && !isLastRow(i) && isFirstCol(j))
{
// cout << "middle row first col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*p_in_r.at(i));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_horizontal.at(seg_out_h+1));
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_horizontal.at(seg_out_h));
m_segment.at(cur_pos)->p_out[1]->bind(*m_optical_connect_vertical.at(seg_out_v));
m_cross.at(cur_cross)->p_in1.bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in2.bind(*m_optical_connect_vertical.at(seg_out_v-m_columns));
m_cross.at(cur_cross)->p_out1.bind(*m_optical_connect_horizontal.at(seg_out_h+2));
m_cross.at(cur_cross)->p_out2.bind(*m_optical_connect_horizontal.at(seg_out_h+1));
}
else if(!isFirstRow(i) && !isLastRow(i) && !isLastCol(j))
{
// cout << "middle row middle col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*m_optical_connect_horizontal.at(seg_out_h-1));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_horizontal.at(seg_out_h+1));
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_horizontal.at(seg_out_h));
m_segment.at(cur_pos)->p_out[1]->bind(*m_optical_connect_vertical.at(seg_out_v));
m_cross.at(cur_cross)->p_in1.bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in2.bind(*m_optical_connect_vertical.at(seg_out_v-m_columns));
m_cross.at(cur_cross)->p_out1.bind(*m_optical_connect_horizontal.at(seg_out_h+2));
m_cross.at(cur_cross)->p_out2.bind(*m_optical_connect_horizontal.at(seg_out_h+1));
}
else if(!isFirstRow(i) && !isLastRow(i) && isLastCol(j))
{
// cout << "middle row last col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*m_optical_connect_horizontal.at(seg_out_h-1));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_vertical.at(seg_out_v-m_columns));
// no row output
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_vertical.at(seg_out_v));
}
else if(isLastRow(i) && isFirstCol(j))
{
// cout << "last row first col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*p_in_r.at(i));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_horizontal.at(seg_out_h+1));
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in1.bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in2.bind(*m_optical_connect_vertical.at(seg_out_v-m_columns));
m_cross.at(cur_cross)->p_out1.bind(*m_optical_connect_horizontal.at(seg_out_h+2));
m_cross.at(cur_cross)->p_out2.bind(*m_optical_connect_horizontal.at(seg_out_h+1));
}
else if(isLastRow(i) && !isLastCol(j))
{
// cout << "last row middle col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*m_optical_connect_horizontal.at(seg_out_h-1));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_horizontal.at(seg_out_h+1));
m_segment.at(cur_pos)->p_out[0]->bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in1.bind(*m_optical_connect_horizontal.at(seg_out_h));
m_cross.at(cur_cross)->p_in2.bind(*m_optical_connect_vertical.at(seg_out_v-m_columns));
m_cross.at(cur_cross)->p_out1.bind(*m_optical_connect_horizontal.at(seg_out_h+2));
m_cross.at(cur_cross)->p_out2.bind(*m_optical_connect_horizontal.at(seg_out_h+1));
}
else if(isLastRow(i) && isLastCol(j))
{
// cout << "last row last col" << endl;
m_segment.at(cur_pos)->p_in[0]->bind(*m_optical_connect_horizontal.at(seg_out_h-1));
m_segment.at(cur_pos)->p_in[1]->bind(*m_optical_connect_vertical.at(seg_out_v-m_columns));
}
else
cout<< endl << endl << "This condition should not appear" << endl << endl;
m_segment.at(cur_pos)->p_readout->bind(*p_readout[i][j]);
}
}
}
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