void cmpy_complex_top (
const std::complex<ap_fixed<10, 1, (ap_q_mode) 5, (ap_o_mode)3, 0> > sig[1024],
const std::complex<ap_fixed<10, 1, (ap_q_mode) 5, (ap_o_mode)3, 0> > sigRef[2048],
const ap_fixed<18, 12, (ap_q_mode) 5, (ap_o_mode)3, 0> prealign[1024],
std::complex<ap_fixed<20, 2, (ap_q_mode) 0, (ap_o_mode)3, 0> > cmp[1024],
const int nL,
const int nLExp,
const int nLen,
const ap_fixed<10, 1, (ap_q_mode) 5, (ap_o_mode)3, 0> factor)
{
fstream wrapc_switch_file_token;
wrapc_switch_file_token.open(".hls_cosim_wrapc_switch.log");
int AESL_i;
if (wrapc_switch_file_token.good())
{
static unsigned AESL_transaction_pc = 0;
string AESL_token;
string AESL_num;
static AESL_FILE_HANDLER aesl_fh;
// output port post check: "cmp"
aesl_fh.read(AUTOTB_TVOUT_PC_cmp, AESL_token); // [[transaction]]
if (AESL_token != "[[transaction]]")
{
exit(1);
}
aesl_fh.read(AUTOTB_TVOUT_PC_cmp, AESL_num); // transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc)
{
aesl_fh.read(AUTOTB_TVOUT_PC_cmp, AESL_token); // data
sc_bv<40> *cmp_pc_buffer = new sc_bv<40>[1024];
int i = 0;
while (AESL_token != "[[/transaction]]")
{
bool no_x = false;
bool err = false;
// search and replace 'X' with "0" from the 1st char of token
while (!no_x)
{
size_t x_found = AESL_token.find('X');
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'cmp', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
no_x = false;
// search and replace 'x' with "0" from the 3rd char of token
while (!no_x)
{
size_t x_found = AESL_token.find('x', 2);
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'cmp', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
// push token into output port buffer
if (AESL_token != "")
{
cmp_pc_buffer[i] = AESL_token.c_str();
i++;
}
aesl_fh.read(AUTOTB_TVOUT_PC_cmp, AESL_token); // data or [[/transaction]]
if (AESL_token == "[[[/runtime]]]" || aesl_fh.eof(AUTOTB_TVOUT_PC_cmp))
{
exit(1);
}
}
// ***********************************
if (i > 0)
{
// RTL Name: cmp
{
// bitslice(19, 0)
// {
// celement: cmp._M_real.V(19, 0)
// {
sc_lv<20>* cmp__M_real_V_lv0_0_1023_1 = new sc_lv<20>[1024];
// }
// }
// bitslice(39, 20)
// {
// celement: cmp._M_imag.V(19, 0)
// {
sc_lv<20>* cmp__M_imag_V_lv0_0_1023_1 = new sc_lv<20>[1024];
// }
// }
// bitslice(19, 0)
{
int hls_map_index = 0;
// celement: cmp._M_real.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
if (&(cmp[0].real()) != NULL) // check the null address if the c port is array or others
{
cmp__M_real_V_lv0_0_1023_1[hls_map_index++].range(19, 0) = sc_bv<20>(cmp_pc_buffer[hls_map_index].range(19, 0));
}
}
}
}
// bitslice(39, 20)
{
int hls_map_index = 0;
// celement: cmp._M_imag.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
if (&(cmp[0].imag()) != NULL) // check the null address if the c port is array or others
{
cmp__M_imag_V_lv0_0_1023_1[hls_map_index++].range(19, 0) = sc_bv<20>(cmp_pc_buffer[hls_map_index].range(39, 20));
}
}
}
}
// bitslice(19, 0)
{
int hls_map_index = 0;
// celement: cmp._M_real.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : cmp[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : cmp[0].real()
// output_left_conversion : (cmp[i_0].real()).range()
// output_type_conversion : (cmp__M_real_V_lv0_0_1023_1[hls_map_index++]).to_string(SC_BIN).c_str()
if (&(cmp[0].real()) != NULL) // check the null address if the c port is array or others
{
(cmp[i_0].real()).range() = (cmp__M_real_V_lv0_0_1023_1[hls_map_index++]).to_string(SC_BIN).c_str();
}
}
}
}
// bitslice(39, 20)
{
int hls_map_index = 0;
// celement: cmp._M_imag.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : cmp[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : cmp[0].imag()
// output_left_conversion : (cmp[i_0].imag()).range()
// output_type_conversion : (cmp__M_imag_V_lv0_0_1023_1[hls_map_index++]).to_string(SC_BIN).c_str()
if (&(cmp[0].imag()) != NULL) // check the null address if the c port is array or others
{
(cmp[i_0].imag()).range() = (cmp__M_imag_V_lv0_0_1023_1[hls_map_index++]).to_string(SC_BIN).c_str();
}
}
}
}
}
}
// release memory allocation
delete [] cmp_pc_buffer;
}
AESL_transaction_pc++;
}
else
{
static unsigned AESL_transaction;
static AESL_FILE_HANDLER aesl_fh;
// "sig"
char* tvin_sig = new char[50];
aesl_fh.touch(AUTOTB_TVIN_sig);
// "sigRef"
char* tvin_sigRef = new char[50];
aesl_fh.touch(AUTOTB_TVIN_sigRef);
// "prealign_V"
char* tvin_prealign_V = new char[50];
aesl_fh.touch(AUTOTB_TVIN_prealign_V);
// "cmp"
char* tvin_cmp = new char[50];
aesl_fh.touch(AUTOTB_TVIN_cmp);
char* tvout_cmp = new char[50];
aesl_fh.touch(AUTOTB_TVOUT_cmp);
// "nL"
char* tvin_nL = new char[50];
aesl_fh.touch(AUTOTB_TVIN_nL);
// "factor_V"
char* tvin_factor_V = new char[50];
aesl_fh.touch(AUTOTB_TVIN_factor_V);
static INTER_TCL_FILE tcl_file(INTER_TCL);
int leading_zero;
// [[transaction]]
sprintf(tvin_sig, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_sig, tvin_sig);
sc_bv<24>* sig_tvin_wrapc_buffer = new sc_bv<24>[1024];
// RTL Name: sig
{
// bitslice(9, 0)
{
int hls_map_index = 0;
// celement: sig._M_real.V(9, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : sig[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : sig[0].real()
// regulate_c_name : sig__M_real_V
// input_type_conversion : (sig[i_0].real()).range().to_string(SC_BIN).c_str()
if (&(sig[0].real()) != NULL) // check the null address if the c port is array or others
{
sc_lv<10> sig__M_real_V_tmp_mem;
sig__M_real_V_tmp_mem = (sig[i_0].real()).range().to_string(SC_BIN).c_str();
sig_tvin_wrapc_buffer[hls_map_index++].range(9, 0) = sig__M_real_V_tmp_mem.range(9, 0);
}
}
}
}
// bitslice(19, 10)
{
int hls_map_index = 0;
// celement: sig._M_imag.V(9, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : sig[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : sig[0].imag()
// regulate_c_name : sig__M_imag_V
// input_type_conversion : (sig[i_0].imag()).range().to_string(SC_BIN).c_str()
if (&(sig[0].imag()) != NULL) // check the null address if the c port is array or others
{
sc_lv<10> sig__M_imag_V_tmp_mem;
sig__M_imag_V_tmp_mem = (sig[i_0].imag()).range().to_string(SC_BIN).c_str();
sig_tvin_wrapc_buffer[hls_map_index++].range(19, 10) = sig__M_imag_V_tmp_mem.range(9, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1024; i++)
{
sprintf(tvin_sig, "%s\n", (sig_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_sig, tvin_sig);
}
tcl_file.set_num(1024, &tcl_file.sig_depth);
sprintf(tvin_sig, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_sig, tvin_sig);
// release memory allocation
delete [] sig_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_sigRef, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_sigRef, tvin_sigRef);
sc_bv<24>* sigRef_tvin_wrapc_buffer = new sc_bv<24>[2048];
// RTL Name: sigRef
{
// bitslice(9, 0)
{
int hls_map_index = 0;
// celement: sigRef._M_real.V(9, 0)
{
// carray: (0) => (2047) @ (1)
for (int i_0 = 0; i_0 <= 2047; i_0 += 1)
{
// sub : i_0
// ori_name : sigRef[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : sigRef[0].real()
// regulate_c_name : sigRef__M_real_V
// input_type_conversion : (sigRef[i_0].real()).range().to_string(SC_BIN).c_str()
if (&(sigRef[0].real()) != NULL) // check the null address if the c port is array or others
{
sc_lv<10> sigRef__M_real_V_tmp_mem;
sigRef__M_real_V_tmp_mem = (sigRef[i_0].real()).range().to_string(SC_BIN).c_str();
sigRef_tvin_wrapc_buffer[hls_map_index++].range(9, 0) = sigRef__M_real_V_tmp_mem.range(9, 0);
}
}
}
}
// bitslice(19, 10)
{
int hls_map_index = 0;
// celement: sigRef._M_imag.V(9, 0)
{
// carray: (0) => (2047) @ (1)
for (int i_0 = 0; i_0 <= 2047; i_0 += 1)
{
// sub : i_0
// ori_name : sigRef[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : sigRef[0].imag()
// regulate_c_name : sigRef__M_imag_V
// input_type_conversion : (sigRef[i_0].imag()).range().to_string(SC_BIN).c_str()
if (&(sigRef[0].imag()) != NULL) // check the null address if the c port is array or others
{
sc_lv<10> sigRef__M_imag_V_tmp_mem;
sigRef__M_imag_V_tmp_mem = (sigRef[i_0].imag()).range().to_string(SC_BIN).c_str();
sigRef_tvin_wrapc_buffer[hls_map_index++].range(19, 10) = sigRef__M_imag_V_tmp_mem.range(9, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 2048; i++)
{
sprintf(tvin_sigRef, "%s\n", (sigRef_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_sigRef, tvin_sigRef);
}
tcl_file.set_num(2048, &tcl_file.sigRef_depth);
sprintf(tvin_sigRef, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_sigRef, tvin_sigRef);
// release memory allocation
delete [] sigRef_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_prealign_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_prealign_V, tvin_prealign_V);
sc_bv<24>* prealign_V_tvin_wrapc_buffer = new sc_bv<24>[1024];
// RTL Name: prealign_V
{
// bitslice(17, 0)
{
int hls_map_index = 0;
// celement: prealign.V(17, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : prealign[i_0]
// sub_1st_elem : 0
// ori_name_1st_elem : prealign[0]
// regulate_c_name : prealign_V
// input_type_conversion : (prealign[i_0]).range().to_string(SC_BIN).c_str()
if (&(prealign[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<18> prealign_V_tmp_mem;
prealign_V_tmp_mem = (prealign[i_0]).range().to_string(SC_BIN).c_str();
prealign_V_tvin_wrapc_buffer[hls_map_index++].range(17, 0) = prealign_V_tmp_mem.range(17, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1024; i++)
{
sprintf(tvin_prealign_V, "%s\n", (prealign_V_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_prealign_V, tvin_prealign_V);
}
tcl_file.set_num(1024, &tcl_file.prealign_V_depth);
sprintf(tvin_prealign_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_prealign_V, tvin_prealign_V);
// release memory allocation
delete [] prealign_V_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_cmp, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_cmp, tvin_cmp);
sc_bv<40>* cmp_tvin_wrapc_buffer = new sc_bv<40>[1024];
// RTL Name: cmp
{
// bitslice(19, 0)
{
int hls_map_index = 0;
// celement: cmp._M_real.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : cmp[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : cmp[0].real()
// regulate_c_name : cmp__M_real_V
// input_type_conversion : (cmp[i_0].real()).range().to_string(SC_BIN).c_str()
if (&(cmp[0].real()) != NULL) // check the null address if the c port is array or others
{
sc_lv<20> cmp__M_real_V_tmp_mem;
cmp__M_real_V_tmp_mem = (cmp[i_0].real()).range().to_string(SC_BIN).c_str();
cmp_tvin_wrapc_buffer[hls_map_index++].range(19, 0) = cmp__M_real_V_tmp_mem.range(19, 0);
}
}
}
}
// bitslice(39, 20)
{
int hls_map_index = 0;
// celement: cmp._M_imag.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : cmp[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : cmp[0].imag()
// regulate_c_name : cmp__M_imag_V
// input_type_conversion : (cmp[i_0].imag()).range().to_string(SC_BIN).c_str()
if (&(cmp[0].imag()) != NULL) // check the null address if the c port is array or others
{
sc_lv<20> cmp__M_imag_V_tmp_mem;
cmp__M_imag_V_tmp_mem = (cmp[i_0].imag()).range().to_string(SC_BIN).c_str();
cmp_tvin_wrapc_buffer[hls_map_index++].range(39, 20) = cmp__M_imag_V_tmp_mem.range(19, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1024; i++)
{
sprintf(tvin_cmp, "%s\n", (cmp_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_cmp, tvin_cmp);
}
tcl_file.set_num(1024, &tcl_file.cmp_depth);
sprintf(tvin_cmp, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_cmp, tvin_cmp);
// release memory allocation
delete [] cmp_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_nL, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_nL, tvin_nL);
sc_bv<32> nL_tvin_wrapc_buffer;
// RTL Name: nL
{
// bitslice(31, 0)
{
// celement: nL(31, 0)
{
// carray: (0) => (0) @ (0)
{
// sub :
// ori_name : nL
// sub_1st_elem :
// ori_name_1st_elem : nL
// regulate_c_name : nL
// input_type_conversion : nL
if (&(nL) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> nL_tmp_mem;
nL_tmp_mem = nL;
nL_tvin_wrapc_buffer.range(31, 0) = nL_tmp_mem.range(31, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_nL, "%s\n", (nL_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_nL, tvin_nL);
}
tcl_file.set_num(1, &tcl_file.nL_depth);
sprintf(tvin_nL, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_nL, tvin_nL);
// [[transaction]]
sprintf(tvin_factor_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_factor_V, tvin_factor_V);
sc_bv<10> factor_V_tvin_wrapc_buffer;
// RTL Name: factor_V
{
// bitslice(9, 0)
{
// celement: factor.V(9, 0)
{
// carray: (0) => (0) @ (0)
{
// sub :
// ori_name : factor
// sub_1st_elem :
// ori_name_1st_elem : factor
// regulate_c_name : factor_V
// input_type_conversion : (factor).range().to_string(SC_BIN).c_str()
if (&(factor) != NULL) // check the null address if the c port is array or others
{
sc_lv<10> factor_V_tmp_mem;
factor_V_tmp_mem = (factor).range().to_string(SC_BIN).c_str();
factor_V_tvin_wrapc_buffer.range(9, 0) = factor_V_tmp_mem.range(9, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_factor_V, "%s\n", (factor_V_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_factor_V, tvin_factor_V);
}
tcl_file.set_num(1, &tcl_file.factor_V_depth);
sprintf(tvin_factor_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_factor_V, tvin_factor_V);
// [call_c_dut] ---------->
AESL_ORIG_DUT_cmpy_complex_top(sig, sigRef, prealign, cmp, nL, nLExp, nLen, factor);
// [[transaction]]
sprintf(tvout_cmp, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVOUT_cmp, tvout_cmp);
sc_bv<40>* cmp_tvout_wrapc_buffer = new sc_bv<40>[1024];
// RTL Name: cmp
{
// bitslice(19, 0)
{
int hls_map_index = 0;
// celement: cmp._M_real.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : cmp[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : cmp[0].real()
// regulate_c_name : cmp__M_real_V
// input_type_conversion : (cmp[i_0].real()).range().to_string(SC_BIN).c_str()
if (&(cmp[0].real()) != NULL) // check the null address if the c port is array or others
{
sc_lv<20> cmp__M_real_V_tmp_mem;
cmp__M_real_V_tmp_mem = (cmp[i_0].real()).range().to_string(SC_BIN).c_str();
cmp_tvout_wrapc_buffer[hls_map_index++].range(19, 0) = cmp__M_real_V_tmp_mem.range(19, 0);
}
}
}
}
// bitslice(39, 20)
{
int hls_map_index = 0;
// celement: cmp._M_imag.V(19, 0)
{
// carray: (0) => (1023) @ (1)
for (int i_0 = 0; i_0 <= 1023; i_0 += 1)
{
// sub : i_0
// ori_name : cmp[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : cmp[0].imag()
// regulate_c_name : cmp__M_imag_V
// input_type_conversion : (cmp[i_0].imag()).range().to_string(SC_BIN).c_str()
if (&(cmp[0].imag()) != NULL) // check the null address if the c port is array or others
{
sc_lv<20> cmp__M_imag_V_tmp_mem;
cmp__M_imag_V_tmp_mem = (cmp[i_0].imag()).range().to_string(SC_BIN).c_str();
cmp_tvout_wrapc_buffer[hls_map_index++].range(39, 20) = cmp__M_imag_V_tmp_mem.range(19, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1024; i++)
{
sprintf(tvout_cmp, "%s\n", (cmp_tvout_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVOUT_cmp, tvout_cmp);
}
tcl_file.set_num(1024, &tcl_file.cmp_depth);
sprintf(tvout_cmp, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVOUT_cmp, tvout_cmp);
// release memory allocation
delete [] cmp_tvout_wrapc_buffer;
// release memory allocation: "sig"
delete [] tvin_sig;
// release memory allocation: "sigRef"
delete [] tvin_sigRef;
// release memory allocation: "prealign_V"
delete [] tvin_prealign_V;
// release memory allocation: "cmp"
delete [] tvout_cmp;
delete [] tvin_cmp;
// release memory allocation: "nL"
delete [] tvin_nL;
// release memory allocation: "factor_V"
delete [] tvin_factor_V;
AESL_transaction++;
tcl_file.set_num(AESL_transaction , &tcl_file.trans_num);
}
}
void MAT_Multiply (int* A, int* B, long long* C, int mA, int nA, int mB, int nB, int mC, int nC)
{
fstream wrapc_switch_file_token;
wrapc_switch_file_token.open(".hls_cosim_wrapc_switch.log");
int AESL_i;
if (wrapc_switch_file_token.good())
{
static unsigned AESL_transaction_pc = 0;
string AESL_token;
string AESL_num;
static AESL_FILE_HANDLER aesl_fh;
// output port post check: "C"
aesl_fh.read(AUTOTB_TVOUT_PC_C, AESL_token); // [[transaction]]
if (AESL_token != "[[transaction]]")
{
exit(1);
}
aesl_fh.read(AUTOTB_TVOUT_PC_C, AESL_num); // transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc)
{
aesl_fh.read(AUTOTB_TVOUT_PC_C, AESL_token); // data
sc_bv<64> *C_pc_buffer = new sc_bv<64>[1];
int i = 0;
while (AESL_token != "[[/transaction]]")
{
bool no_x = false;
bool err = false;
// search and replace 'X' with "0" from the 1st char of token
while (!no_x)
{
size_t x_found = AESL_token.find('X');
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'C', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
no_x = false;
// search and replace 'x' with "0" from the 3rd char of token
while (!no_x)
{
size_t x_found = AESL_token.find('x', 2);
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'C', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
// push token into output port buffer
if (AESL_token != "")
{
C_pc_buffer[i] = AESL_token.c_str();
i++;
}
aesl_fh.read(AUTOTB_TVOUT_PC_C, AESL_token); // data or [[/transaction]]
if (AESL_token == "[[[/runtime]]]" || aesl_fh.eof(AUTOTB_TVOUT_PC_C))
{
exit(1);
}
}
// ***********************************
if (i > 0)
{
sc_lv<64>* C_lv0_0_0_1 = new sc_lv<64>[1];
AESL_i = 0;
for (int i_0 = 0; i_0 <= 0; i_0 += 1)
{
if (&(C[0]) != NULL)
{
C_lv0_0_0_1[0 + AESL_i].range(63, 0) = sc_bv<64>(C_pc_buffer[0 + AESL_i].range(63, 0));
}
AESL_i++;
}
AESL_i = 0;
for (int i_0 = 0; i_0 <= 0; i_0 += 1)
{
if (&(C[0]) != NULL)
{
C[i_0] = (C_lv0_0_0_1[0 + AESL_i]).to_uint64();
}
AESL_i++;
}
}
// release memory allocation
delete [] C_pc_buffer;
}
AESL_transaction_pc++;
}
else
{
static unsigned AESL_transaction;
static AESL_FILE_HANDLER aesl_fh;
// "A"
char* tvin_A = new char[50];
aesl_fh.touch(AUTOTB_TVIN_A);
// "B"
char* tvin_B = new char[50];
aesl_fh.touch(AUTOTB_TVIN_B);
// "C"
char* tvin_C = new char[50];
aesl_fh.touch(AUTOTB_TVIN_C);
char* tvout_C = new char[50];
aesl_fh.touch(AUTOTB_TVOUT_C);
// "mA"
char* tvin_mA = new char[50];
aesl_fh.touch(AUTOTB_TVIN_mA);
// "nA"
char* tvin_nA = new char[50];
aesl_fh.touch(AUTOTB_TVIN_nA);
// "mB"
char* tvin_mB = new char[50];
aesl_fh.touch(AUTOTB_TVIN_mB);
// "nB"
char* tvin_nB = new char[50];
aesl_fh.touch(AUTOTB_TVIN_nB);
// "mC"
char* tvin_mC = new char[50];
aesl_fh.touch(AUTOTB_TVIN_mC);
// "nC"
char* tvin_nC = new char[50];
aesl_fh.touch(AUTOTB_TVIN_nC);
static INTER_TCL_FILE tcl_file(INTER_TCL);
int leading_zero;
// [[transaction]]
sprintf(tvin_A, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_A, tvin_A);
sc_bv<32>* A_tvin_wrapc_buffer = new sc_bv<32>[1];
// Name: A
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: A(31, 0)
{
// carray: (0) => (0) @ (1)
for (int i_0 = 0; i_0 <= 0; i_0 += 1)
{
if (&(A[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> A_tmp_mem;
A_tmp_mem = A[i_0];
A_tvin_wrapc_buffer[hls_map_index++].range(31, 0) = A_tmp_mem.range(31, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_A, "%s\n", (A_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_A, tvin_A);
}
tcl_file.set_num(1, &tcl_file.A_depth);
sprintf(tvin_A, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_A, tvin_A);
// release memory allocation
delete [] A_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_B, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_B, tvin_B);
sc_bv<32>* B_tvin_wrapc_buffer = new sc_bv<32>[1];
// Name: B
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: B(31, 0)
{
// carray: (0) => (0) @ (1)
for (int i_0 = 0; i_0 <= 0; i_0 += 1)
{
if (&(B[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> B_tmp_mem;
B_tmp_mem = B[i_0];
B_tvin_wrapc_buffer[hls_map_index++].range(31, 0) = B_tmp_mem.range(31, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_B, "%s\n", (B_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_B, tvin_B);
}
tcl_file.set_num(1, &tcl_file.B_depth);
sprintf(tvin_B, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_B, tvin_B);
// release memory allocation
delete [] B_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_C, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_C, tvin_C);
sc_bv<64>* C_tvin_wrapc_buffer = new sc_bv<64>[1];
// Name: C
{
// bitslice(63, 0)
{
int hls_map_index = 0;
// celement: C(63, 0)
{
// carray: (0) => (0) @ (1)
for (int i_0 = 0; i_0 <= 0; i_0 += 1)
{
if (&(C[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<64> C_tmp_mem;
C_tmp_mem = C[i_0];
C_tvin_wrapc_buffer[hls_map_index++].range(63, 0) = C_tmp_mem.range(63, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_C, "%s\n", (C_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_C, tvin_C);
}
tcl_file.set_num(1, &tcl_file.C_depth);
sprintf(tvin_C, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_C, tvin_C);
// release memory allocation
delete [] C_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_mA, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_mA, tvin_mA);
sc_bv<32> mA_tvin_wrapc_buffer;
// Name: mA
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: mA(31, 0)
{
// carray: (0) => (0) @ (0)
if (&(mA) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> mA_tmp_mem;
mA_tmp_mem = mA;
mA_tvin_wrapc_buffer.range(31, 0) = mA_tmp_mem.range(31, 0);
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_mA, "%s\n", (mA_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_mA, tvin_mA);
}
tcl_file.set_num(1, &tcl_file.mA_depth);
sprintf(tvin_mA, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_mA, tvin_mA);
// [[transaction]]
sprintf(tvin_nA, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_nA, tvin_nA);
sc_bv<32> nA_tvin_wrapc_buffer;
// Name: nA
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: nA(31, 0)
{
// carray: (0) => (0) @ (0)
if (&(nA) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> nA_tmp_mem;
nA_tmp_mem = nA;
nA_tvin_wrapc_buffer.range(31, 0) = nA_tmp_mem.range(31, 0);
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_nA, "%s\n", (nA_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_nA, tvin_nA);
}
tcl_file.set_num(1, &tcl_file.nA_depth);
sprintf(tvin_nA, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_nA, tvin_nA);
// [[transaction]]
sprintf(tvin_mB, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_mB, tvin_mB);
sc_bv<32> mB_tvin_wrapc_buffer;
// Name: mB
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: mB(31, 0)
{
// carray: (0) => (0) @ (0)
if (&(mB) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> mB_tmp_mem;
mB_tmp_mem = mB;
mB_tvin_wrapc_buffer.range(31, 0) = mB_tmp_mem.range(31, 0);
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_mB, "%s\n", (mB_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_mB, tvin_mB);
}
tcl_file.set_num(1, &tcl_file.mB_depth);
sprintf(tvin_mB, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_mB, tvin_mB);
// [[transaction]]
sprintf(tvin_nB, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_nB, tvin_nB);
sc_bv<32> nB_tvin_wrapc_buffer;
// Name: nB
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: nB(31, 0)
{
// carray: (0) => (0) @ (0)
if (&(nB) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> nB_tmp_mem;
nB_tmp_mem = nB;
nB_tvin_wrapc_buffer.range(31, 0) = nB_tmp_mem.range(31, 0);
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_nB, "%s\n", (nB_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_nB, tvin_nB);
}
tcl_file.set_num(1, &tcl_file.nB_depth);
sprintf(tvin_nB, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_nB, tvin_nB);
// [[transaction]]
sprintf(tvin_mC, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_mC, tvin_mC);
sc_bv<32> mC_tvin_wrapc_buffer;
// Name: mC
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: mC(31, 0)
{
// carray: (0) => (0) @ (0)
if (&(mC) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> mC_tmp_mem;
mC_tmp_mem = mC;
mC_tvin_wrapc_buffer.range(31, 0) = mC_tmp_mem.range(31, 0);
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_mC, "%s\n", (mC_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_mC, tvin_mC);
}
tcl_file.set_num(1, &tcl_file.mC_depth);
sprintf(tvin_mC, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_mC, tvin_mC);
// [[transaction]]
sprintf(tvin_nC, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_nC, tvin_nC);
sc_bv<32> nC_tvin_wrapc_buffer;
// Name: nC
{
// bitslice(31, 0)
{
int hls_map_index = 0;
// celement: nC(31, 0)
{
// carray: (0) => (0) @ (0)
if (&(nC) != NULL) // check the null address if the c port is array or others
{
sc_lv<32> nC_tmp_mem;
nC_tmp_mem = nC;
nC_tvin_wrapc_buffer.range(31, 0) = nC_tmp_mem.range(31, 0);
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvin_nC, "%s\n", (nC_tvin_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_nC, tvin_nC);
}
tcl_file.set_num(1, &tcl_file.nC_depth);
sprintf(tvin_nC, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_nC, tvin_nC);
// [call_c_dut] ---------->
AESL_ORIG_DUT_MAT_Multiply(A, B, C, mA, nA, mB, nB, mC, nC);
// [[transaction]]
sprintf(tvout_C, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVOUT_C, tvout_C);
sc_bv<64>* C_tvout_wrapc_buffer = new sc_bv<64>[1];
// Name: C
{
// bitslice(63, 0)
{
int hls_map_index = 0;
// celement: C(63, 0)
{
// carray: (0) => (0) @ (1)
for (int i_0 = 0; i_0 <= 0; i_0 += 1)
{
if (&(C[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<64> C_tmp_mem;
C_tmp_mem = C[i_0];
C_tvout_wrapc_buffer[hls_map_index++].range(63, 0) = C_tmp_mem.range(63, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvout_C, "%s\n", (C_tvout_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVOUT_C, tvout_C);
}
tcl_file.set_num(1, &tcl_file.C_depth);
sprintf(tvout_C, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVOUT_C, tvout_C);
// release memory allocation
delete [] C_tvout_wrapc_buffer;
// release memory allocation: "A"
delete [] tvin_A;
// release memory allocation: "B"
delete [] tvin_B;
// release memory allocation: "C"
delete [] tvout_C;
delete [] tvin_C;
// release memory allocation: "mA"
delete [] tvin_mA;
// release memory allocation: "nA"
delete [] tvin_nA;
// release memory allocation: "mB"
delete [] tvin_mB;
// release memory allocation: "nB"
delete [] tvin_nB;
// release memory allocation: "mC"
delete [] tvin_mC;
// release memory allocation: "nC"
delete [] tvin_nC;
AESL_transaction++;
tcl_file.set_num(AESL_transaction , &tcl_file.trans_num);
}
}
void pyrconstuct_top (
std::complex<ap_fixed<16, 1, (ap_q_mode) 5, (ap_o_mode)3, 0> > imgIn[512],
hls::stream<std::complex<ap_fixed<17, 6, (ap_q_mode) 0, (ap_o_mode)3, 0> > >& pyrFilOut,
const int nL)
{
fstream wrapc_switch_file_token;
wrapc_switch_file_token.open(".hls_cosim_wrapc_switch.log");
int AESL_i;
if (wrapc_switch_file_token.good())
{
static unsigned AESL_transaction_pc = 0;
string AESL_token;
string AESL_num;
static AESL_FILE_HANDLER aesl_fh;
// define output stream variables: "pyrFilOut"
std::vector<std::complex<ap_fixed<17, 6, (ap_q_mode) 0, (ap_o_mode)3, 0> > > aesl_tmp_0;
int aesl_tmp_1;
int aesl_tmp_2 = 0;
// read output stream size: "pyrFilOut"
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, AESL_token); // [[transaction]]
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, AESL_num); // transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc)
{
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, AESL_token); // pop_size
aesl_tmp_1 = atoi(AESL_token.c_str());
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, AESL_token); // [[/transaction]]
}
// output port post check: "pyrFilOut_V"
aesl_fh.read(AUTOTB_TVOUT_PC_pyrFilOut_V, AESL_token); // [[transaction]]
if (AESL_token != "[[transaction]]")
{
exit(1);
}
aesl_fh.read(AUTOTB_TVOUT_PC_pyrFilOut_V, AESL_num); // transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc)
{
aesl_fh.read(AUTOTB_TVOUT_PC_pyrFilOut_V, AESL_token); // data
std::vector<sc_bv<34> > pyrFilOut_V_pc_buffer;
int i = 0;
while (AESL_token != "[[/transaction]]")
{
bool no_x = false;
bool err = false;
// search and replace 'X' with "0" from the 1st char of token
while (!no_x)
{
size_t x_found = AESL_token.find('X');
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'pyrFilOut_V', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
no_x = false;
// search and replace 'x' with "0" from the 3rd char of token
while (!no_x)
{
size_t x_found = AESL_token.find('x', 2);
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'pyrFilOut_V', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
// push token into output port buffer
if (AESL_token != "")
{
pyrFilOut_V_pc_buffer.push_back(AESL_token.c_str());
i++;
}
aesl_fh.read(AUTOTB_TVOUT_PC_pyrFilOut_V, AESL_token); // data or [[/transaction]]
if (AESL_token == "[[[/runtime]]]" || aesl_fh.eof(AUTOTB_TVOUT_PC_pyrFilOut_V))
{
exit(1);
}
}
// correct the buffer size the current transaction
if (i != aesl_tmp_1)
{
aesl_tmp_1 = i;
}
if (aesl_tmp_1 > 0 && aesl_tmp_0.size() < aesl_tmp_1)
{
int aesl_tmp_0_size = aesl_tmp_0.size();
for (int tmp_aesl_tmp_0 = 0; tmp_aesl_tmp_0 < aesl_tmp_1 - aesl_tmp_0_size; tmp_aesl_tmp_0++)
{
std::complex<ap_fixed<17, 6, (ap_q_mode) 0, (ap_o_mode)3, 0> > tmp;
aesl_tmp_0.push_back(tmp);
}
}
// ***********************************
if (i > 0)
{
// RTL Name: pyrFilOut_V
{
// bitslice(16, 0)
// {
// celement: pyrFilOut.V._M_real.V(16, 0)
// {
sc_lv<17>* pyrFilOut_V__M_real_V_lv0_0_1519_1 = new sc_lv<17>[1520];
// }
// }
// bitslice(33, 17)
// {
// celement: pyrFilOut.V._M_imag.V(16, 0)
// {
sc_lv<17>* pyrFilOut_V__M_imag_V_lv0_0_1519_1 = new sc_lv<17>[1520];
// }
// }
// bitslice(16, 0)
{
int hls_map_index = 0;
// celement: pyrFilOut.V._M_real.V(16, 0)
{
// carray: (aesl_tmp_2) => (aesl_tmp_1 - 1) @ (1)
for (int i_0 = aesl_tmp_2; i_0 <= aesl_tmp_1 - 1; i_0 += 1)
{
if (&(aesl_tmp_0[0].real()) != NULL) // check the null address if the c port is array or others
{
pyrFilOut_V__M_real_V_lv0_0_1519_1[hls_map_index++].range(16, 0) = sc_bv<17>(pyrFilOut_V_pc_buffer[hls_map_index].range(16, 0));
}
}
}
}
// bitslice(33, 17)
{
int hls_map_index = 0;
// celement: pyrFilOut.V._M_imag.V(16, 0)
{
// carray: (aesl_tmp_2) => (aesl_tmp_1 - 1) @ (1)
for (int i_0 = aesl_tmp_2; i_0 <= aesl_tmp_1 - 1; i_0 += 1)
{
if (&(aesl_tmp_0[0].imag()) != NULL) // check the null address if the c port is array or others
{
pyrFilOut_V__M_imag_V_lv0_0_1519_1[hls_map_index++].range(16, 0) = sc_bv<17>(pyrFilOut_V_pc_buffer[hls_map_index].range(33, 17));
}
}
}
}
// bitslice(16, 0)
{
int hls_map_index = 0;
// celement: pyrFilOut.V._M_real.V(16, 0)
{
// carray: (aesl_tmp_2) => (aesl_tmp_1 - 1) @ (1)
for (int i_0 = aesl_tmp_2; i_0 <= aesl_tmp_1 - 1; i_0 += 1)
{
// sub : i_0
// ori_name : aesl_tmp_0[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : aesl_tmp_0[0].real()
// output_left_conversion : (aesl_tmp_0[i_0].real()).range()
// output_type_conversion : (pyrFilOut_V__M_real_V_lv0_0_1519_1[hls_map_index++]).to_string(SC_BIN).c_str()
if (&(aesl_tmp_0[0].real()) != NULL) // check the null address if the c port is array or others
{
(aesl_tmp_0[i_0].real()).range() = (pyrFilOut_V__M_real_V_lv0_0_1519_1[hls_map_index++]).to_string(SC_BIN).c_str();
}
}
}
}
// bitslice(33, 17)
{
int hls_map_index = 0;
// celement: pyrFilOut.V._M_imag.V(16, 0)
{
// carray: (aesl_tmp_2) => (aesl_tmp_1 - 1) @ (1)
for (int i_0 = aesl_tmp_2; i_0 <= aesl_tmp_1 - 1; i_0 += 1)
{
// sub : i_0
// ori_name : aesl_tmp_0[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : aesl_tmp_0[0].imag()
// output_left_conversion : (aesl_tmp_0[i_0].imag()).range()
// output_type_conversion : (pyrFilOut_V__M_imag_V_lv0_0_1519_1[hls_map_index++]).to_string(SC_BIN).c_str()
if (&(aesl_tmp_0[0].imag()) != NULL) // check the null address if the c port is array or others
{
(aesl_tmp_0[i_0].imag()).range() = (pyrFilOut_V__M_imag_V_lv0_0_1519_1[hls_map_index++]).to_string(SC_BIN).c_str();
}
}
}
}
}
}
}
// push back output stream: "pyrFilOut"
for (int i = 0; i < aesl_tmp_1; i++)
{
pyrFilOut.write(aesl_tmp_0[i]);
}
AESL_transaction_pc++;
}
else
{
static unsigned AESL_transaction;
static AESL_FILE_HANDLER aesl_fh;
// "imgIn_M_real_V"
char* tvin_imgIn_M_real_V = new char[50];
aesl_fh.touch(AUTOTB_TVIN_imgIn_M_real_V);
// "imgIn_M_imag_V"
char* tvin_imgIn_M_imag_V = new char[50];
aesl_fh.touch(AUTOTB_TVIN_imgIn_M_imag_V);
// "pyrFilOut_V"
char* tvin_pyrFilOut_V = new char[50];
aesl_fh.touch(AUTOTB_TVIN_pyrFilOut_V);
char* tvout_pyrFilOut_V = new char[50];
aesl_fh.touch(AUTOTB_TVOUT_pyrFilOut_V);
char* wrapc_stream_size_out_pyrFilOut_V = new char[50];
aesl_fh.touch(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V);
char* wrapc_stream_egress_status_pyrFilOut_V = new char[50];
aesl_fh.touch(WRAPC_STREAM_EGRESS_STATUS_pyrFilOut_V);
static INTER_TCL_FILE tcl_file(INTER_TCL);
int leading_zero;
// dump stream tvin: "pyrFilOut"
std::vector<std::complex<ap_fixed<17, 6, (ap_q_mode) 0, (ap_o_mode)3, 0> > > aesl_tmp_0;
int aesl_tmp_1 = 0;
while (!pyrFilOut.empty())
{
aesl_tmp_0.push_back(pyrFilOut.read());
aesl_tmp_1++;
}
// [[transaction]]
sprintf(tvin_imgIn_M_real_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_imgIn_M_real_V, tvin_imgIn_M_real_V);
sc_bv<16>* imgIn_M_real_V_tvin_wrapc_buffer = new sc_bv<16>[512];
// RTL Name: imgIn_M_real_V
{
// bitslice(15, 0)
{
int hls_map_index = 0;
// celement: imgIn._M_real.V(15, 0)
{
// carray: (0) => (511) @ (1)
for (int i_0 = 0; i_0 <= 511; i_0 += 1)
{
// sub : i_0
// ori_name : imgIn[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : imgIn[0].real()
// regulate_c_name : imgIn__M_real_V
// input_type_conversion : (imgIn[i_0].real()).range().to_string(SC_BIN).c_str()
if (&(imgIn[0].real()) != NULL) // check the null address if the c port is array or others
{
sc_lv<16> imgIn__M_real_V_tmp_mem;
imgIn__M_real_V_tmp_mem = (imgIn[i_0].real()).range().to_string(SC_BIN).c_str();
imgIn_M_real_V_tvin_wrapc_buffer[hls_map_index++].range(15, 0) = imgIn__M_real_V_tmp_mem.range(15, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 512; i++)
{
sprintf(tvin_imgIn_M_real_V, "%s\n", (imgIn_M_real_V_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_imgIn_M_real_V, tvin_imgIn_M_real_V);
}
tcl_file.set_num(512, &tcl_file.imgIn_M_real_V_depth);
sprintf(tvin_imgIn_M_real_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_imgIn_M_real_V, tvin_imgIn_M_real_V);
// release memory allocation
delete [] imgIn_M_real_V_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_imgIn_M_imag_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_imgIn_M_imag_V, tvin_imgIn_M_imag_V);
sc_bv<16>* imgIn_M_imag_V_tvin_wrapc_buffer = new sc_bv<16>[512];
// RTL Name: imgIn_M_imag_V
{
// bitslice(15, 0)
{
int hls_map_index = 0;
// celement: imgIn._M_imag.V(15, 0)
{
// carray: (0) => (511) @ (1)
for (int i_0 = 0; i_0 <= 511; i_0 += 1)
{
// sub : i_0
// ori_name : imgIn[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : imgIn[0].imag()
// regulate_c_name : imgIn__M_imag_V
// input_type_conversion : (imgIn[i_0].imag()).range().to_string(SC_BIN).c_str()
if (&(imgIn[0].imag()) != NULL) // check the null address if the c port is array or others
{
sc_lv<16> imgIn__M_imag_V_tmp_mem;
imgIn__M_imag_V_tmp_mem = (imgIn[i_0].imag()).range().to_string(SC_BIN).c_str();
imgIn_M_imag_V_tvin_wrapc_buffer[hls_map_index++].range(15, 0) = imgIn__M_imag_V_tmp_mem.range(15, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 512; i++)
{
sprintf(tvin_imgIn_M_imag_V, "%s\n", (imgIn_M_imag_V_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_imgIn_M_imag_V, tvin_imgIn_M_imag_V);
}
tcl_file.set_num(512, &tcl_file.imgIn_M_imag_V_depth);
sprintf(tvin_imgIn_M_imag_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_imgIn_M_imag_V, tvin_imgIn_M_imag_V);
// release memory allocation
delete [] imgIn_M_imag_V_tvin_wrapc_buffer;
// push back input stream: "pyrFilOut"
for (int i = 0; i < aesl_tmp_1; i++)
{
pyrFilOut.write(aesl_tmp_0[i]);
}
// [call_c_dut] ---------->
AESL_ORIG_DUT_pyrconstuct_top(imgIn, pyrFilOut, nL);
// pop output stream: "pyrFilOut"
int aesl_tmp_2 = aesl_tmp_1;
aesl_tmp_1 = 0;
aesl_tmp_0.clear();
while (!pyrFilOut.empty())
{
aesl_tmp_0.push_back(pyrFilOut.read());
aesl_tmp_1++;
}
// [[transaction]]
sprintf(tvout_pyrFilOut_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVOUT_pyrFilOut_V, tvout_pyrFilOut_V);
sc_bv<34>* pyrFilOut_V_tvout_wrapc_buffer = new sc_bv<34>[1520];
// RTL Name: pyrFilOut_V
{
// bitslice(16, 0)
{
int hls_map_index = 0;
// celement: pyrFilOut.V._M_real.V(16, 0)
{
// carray: (aesl_tmp_2) => (aesl_tmp_1 - 1) @ (1)
for (int i_0 = aesl_tmp_2; i_0 <= aesl_tmp_1 - 1; i_0 += 1)
{
// sub : i_0
// ori_name : aesl_tmp_0[i_0].real()
// sub_1st_elem : 0
// ori_name_1st_elem : aesl_tmp_0[0].real()
// regulate_c_name : pyrFilOut_V__M_real_V
// input_type_conversion : (aesl_tmp_0[i_0].real()).range().to_string(SC_BIN).c_str()
if (&(aesl_tmp_0[0].real()) != NULL) // check the null address if the c port is array or others
{
sc_lv<17> pyrFilOut_V__M_real_V_tmp_mem;
pyrFilOut_V__M_real_V_tmp_mem = (aesl_tmp_0[i_0].real()).range().to_string(SC_BIN).c_str();
pyrFilOut_V_tvout_wrapc_buffer[hls_map_index++].range(16, 0) = pyrFilOut_V__M_real_V_tmp_mem.range(16, 0);
}
}
}
}
// bitslice(33, 17)
{
int hls_map_index = 0;
// celement: pyrFilOut.V._M_imag.V(16, 0)
{
// carray: (aesl_tmp_2) => (aesl_tmp_1 - 1) @ (1)
for (int i_0 = aesl_tmp_2; i_0 <= aesl_tmp_1 - 1; i_0 += 1)
{
// sub : i_0
// ori_name : aesl_tmp_0[i_0].imag()
// sub_1st_elem : 0
// ori_name_1st_elem : aesl_tmp_0[0].imag()
// regulate_c_name : pyrFilOut_V__M_imag_V
// input_type_conversion : (aesl_tmp_0[i_0].imag()).range().to_string(SC_BIN).c_str()
if (&(aesl_tmp_0[0].imag()) != NULL) // check the null address if the c port is array or others
{
sc_lv<17> pyrFilOut_V__M_imag_V_tmp_mem;
pyrFilOut_V__M_imag_V_tmp_mem = (aesl_tmp_0[i_0].imag()).range().to_string(SC_BIN).c_str();
pyrFilOut_V_tvout_wrapc_buffer[hls_map_index++].range(33, 17) = pyrFilOut_V__M_imag_V_tmp_mem.range(16, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < aesl_tmp_1 - aesl_tmp_2; i++)
{
sprintf(tvout_pyrFilOut_V, "%s\n", (pyrFilOut_V_tvout_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVOUT_pyrFilOut_V, tvout_pyrFilOut_V);
}
tcl_file.set_num(aesl_tmp_1 - aesl_tmp_2, &tcl_file.pyrFilOut_V_depth);
sprintf(tvout_pyrFilOut_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVOUT_pyrFilOut_V, tvout_pyrFilOut_V);
// release memory allocation
delete [] pyrFilOut_V_tvout_wrapc_buffer;
// dump stream size
sprintf(wrapc_stream_size_out_pyrFilOut_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, wrapc_stream_size_out_pyrFilOut_V);
sprintf(wrapc_stream_size_out_pyrFilOut_V, "%d\n", aesl_tmp_1 - aesl_tmp_2);
aesl_fh.write(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, wrapc_stream_size_out_pyrFilOut_V);
sprintf(wrapc_stream_size_out_pyrFilOut_V, "[[/transaction]] \n");
aesl_fh.write(WRAPC_STREAM_SIZE_OUT_pyrFilOut_V, wrapc_stream_size_out_pyrFilOut_V);
// push back output stream: "pyrFilOut"
for (int i = 0; i < aesl_tmp_1; i++)
{
pyrFilOut.write(aesl_tmp_0[i]);
}
// release memory allocation: "imgIn_M_real_V"
delete [] tvin_imgIn_M_real_V;
// release memory allocation: "imgIn_M_imag_V"
delete [] tvin_imgIn_M_imag_V;
// release memory allocation: "pyrFilOut_V"
delete [] tvout_pyrFilOut_V;
delete [] tvin_pyrFilOut_V;
delete [] wrapc_stream_size_out_pyrFilOut_V;
AESL_transaction++;
tcl_file.set_num(AESL_transaction , &tcl_file.trans_num);
}
}
void hls_cropping_strm ( hls::stream< ap_int<8> > & src, hls::stream< ap_int<16> > & dst) {
fstream wrapc_switch_file_token;
wrapc_switch_file_token.open(".hls_cosim_wrapc_switch.log");
int AESL_i;
if (wrapc_switch_file_token.good()) {
static unsigned AESL_transaction_pc;
string AESL_token;
string AESL_num;
static AESL_FILE_HANDLER aesl_fh;
aesl_fh.read(WRAPC_STREAM_SIZE_IN_src_V_V, AESL_token); //[[transaction]]
aesl_fh.read(WRAPC_STREAM_SIZE_IN_src_V_V, AESL_num); //transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc ) {
aesl_fh.read(WRAPC_STREAM_SIZE_IN_src_V_V, AESL_token); //pop_size
int aesl_tmp_1 = atoi(AESL_token.c_str());
for (int i = 0 ; i < aesl_tmp_1 ; i++) {
src.read();
}
aesl_fh.read(WRAPC_STREAM_SIZE_IN_src_V_V, AESL_token); //[[/transaction]]
}
int aesl_tmp_4;
int aesl_tmp_5 = 0;
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_dst_V_V, AESL_token); //[[transaction]]
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_dst_V_V, AESL_num); //transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc ) {
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_dst_V_V, AESL_token); //pop_size
aesl_tmp_4 = atoi(AESL_token.c_str());
aesl_fh.read(WRAPC_STREAM_SIZE_OUT_dst_V_V, AESL_token); //[[/transaction]]
}
std::vector<ap_int<16> > aesl_tmp_3;
aesl_fh.read(AUTOTB_TVOUT_PC_dst_V_V, AESL_token); //[[transaction]]
if ( AESL_token != "[[transaction]]") {
exit(1);
}
aesl_fh.read(AUTOTB_TVOUT_PC_dst_V_V, AESL_num); //transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc ) {
aesl_fh.read(AUTOTB_TVOUT_PC_dst_V_V, AESL_token); //data
std::vector < sc_bv<16> > dst_V_V_pc_buffer;
int i = 0;
while (AESL_token != "[[/transaction]]") {
bool no_x = false;
bool err = false;
while (!no_x) {
size_t x_found = AESL_token.find('X');
if (x_found != string::npos) {
if (!err) {
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'dst_V_V', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
} else {
no_x = true;
}
}
no_x = false;
while (!no_x) {
size_t x_found = AESL_token.find('x', 2);
if (x_found != string::npos) {
if (!err) {
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'dst_V_V', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
} else {
no_x = true;
}
}
if (AESL_token != "") {
dst_V_V_pc_buffer.push_back( AESL_token.c_str() );
i++;
}
aesl_fh.read(AUTOTB_TVOUT_PC_dst_V_V, AESL_token); //data or [[/transaction]]
if (AESL_token == "[[[/runtime]]]" || aesl_fh.eof(AUTOTB_TVOUT_PC_dst_V_V)) {
exit(1);
}
}
if (i != aesl_tmp_4) {
aesl_tmp_4 = i;
}
if (aesl_tmp_4 > 0 && aesl_tmp_3.size() < aesl_tmp_4) {
int aesl_tmp_3_size = aesl_tmp_3.size();
for (int tmp_aesl_tmp_3 = 0 ; tmp_aesl_tmp_3 < aesl_tmp_4 - aesl_tmp_3_size ; tmp_aesl_tmp_3 ++ ) {
ap_int<16> tmp;
aesl_tmp_3.push_back(tmp);
}
}
if (i > 0) {
sc_lv<16> *dst_V_V_lv0_0_0_1 = new sc_lv<16>[aesl_tmp_4 - aesl_tmp_5];
AESL_i = 0; //subscript for rtl array
for (int i_0 = 0; i_0 <= aesl_tmp_4 - aesl_tmp_5 - 1 ; i_0+= 1) {
if(&(aesl_tmp_3[0]) != 0) {
dst_V_V_lv0_0_0_1[0 + AESL_i].range(15, 0) = sc_bv<16>(dst_V_V_pc_buffer[0 + AESL_i].range(15, 0));
}
AESL_i++;
}
AESL_i = 0; //subscript for rtl array
for (int i_0 = 0; i_0 <= aesl_tmp_4 - aesl_tmp_5 - 1 ; i_0+= 1) {
if(&(aesl_tmp_3[0]) != 0) {
aesl_tmp_3[i_0] = (dst_V_V_lv0_0_0_1[0 + AESL_i]).to_string(SC_BIN).c_str();
}
AESL_i++;
}
}
}
for (int i = 0; i < aesl_tmp_4; i++) {
dst.write(aesl_tmp_3[i]);
}
AESL_transaction_pc ++ ;
} else {
static unsigned AESL_transaction;
static AESL_FILE_HANDLER aesl_fh;
char* tvin_src_V_V = new char[50];
char* wrapc_stream_size_in_src_V_V = new char[50];
char* tvout_dst_V_V = new char[50];
char* tvin_dst_V_V = new char[50];
aesl_fh.touch(AUTOTB_TVIN_dst_V_V);
char* wrapc_stream_size_out_dst_V_V = new char[50];
static INTER_TCL_FILE tcl_file(INTER_TCL);
int leading_zero;
std::vector<ap_int<8> > aesl_tmp_0;
int aesl_tmp_1 = 0;
while (!src.empty()) {
aesl_tmp_0.push_back(src.read());
aesl_tmp_1 ++;
}
std::vector<ap_int<16> > aesl_tmp_3;
int aesl_tmp_4 = 0;
while (!dst.empty()) {
aesl_tmp_3.push_back(dst.read());
aesl_tmp_4 ++;
}
for (int i = 0; i < aesl_tmp_1; i++) {
src.write(aesl_tmp_0[i]);
}
AESL_ORIG_DUT_hls_cropping_strm(src,dst);
int aesl_tmp_2 = src.size();
int aesl_tmp_5 = aesl_tmp_4;
while (!dst.empty()) {
aesl_tmp_3.push_back(dst.read());
aesl_tmp_4 ++;
}
sprintf(tvin_src_V_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_src_V_V, tvin_src_V_V);
sc_bv<8> *src_V_V_tvin_wrapc_buffer = new sc_bv<8>[aesl_tmp_1 - aesl_tmp_2];
AESL_i = 0; //subscript for rtl array
for (int i_0 = 0; i_0 <= aesl_tmp_1 - aesl_tmp_2 - 1 ; i_0+= 1) {
sc_lv<8> src_V_V_tmp_mem;
if(&(aesl_tmp_0[0]) != 0) {
src_V_V_tmp_mem = (aesl_tmp_0[i_0]).to_string(2).c_str();
src_V_V_tvin_wrapc_buffer[0 + AESL_i].range(7, 0) = src_V_V_tmp_mem.range(7, 0 ) ;
}
AESL_i++;
}
for (int i = 0; i < aesl_tmp_1 - aesl_tmp_2 ; i++) {
sprintf(tvin_src_V_V, "%s\n", (src_V_V_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_src_V_V, tvin_src_V_V);
}
tcl_file.set_num(aesl_tmp_1 - aesl_tmp_2,&tcl_file.src_V_V_depth);
sprintf(tvin_src_V_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_src_V_V, tvin_src_V_V);
delete [] src_V_V_tvin_wrapc_buffer;
sprintf(wrapc_stream_size_in_src_V_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(WRAPC_STREAM_SIZE_IN_src_V_V, wrapc_stream_size_in_src_V_V);
sprintf(wrapc_stream_size_in_src_V_V, "%d\n", aesl_tmp_1 - aesl_tmp_2);
aesl_fh.write(WRAPC_STREAM_SIZE_IN_src_V_V, wrapc_stream_size_in_src_V_V);
sprintf(wrapc_stream_size_in_src_V_V, "[[/transaction]] \n");
aesl_fh.write(WRAPC_STREAM_SIZE_IN_src_V_V, wrapc_stream_size_in_src_V_V);
sprintf(tvout_dst_V_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVOUT_dst_V_V, tvout_dst_V_V);
sc_bv<16> *dst_V_V_tvout_wrapc_buffer = new sc_bv<16>[aesl_tmp_4 - aesl_tmp_5];
AESL_i = 0; //subscript for rtl array
for (int i_0 = 0; i_0 <= aesl_tmp_4 - aesl_tmp_5 - 1 ; i_0+= 1) {
sc_lv<16> dst_V_V_tmp_mem;
if(&(aesl_tmp_3[0]) != 0) {
dst_V_V_tmp_mem = (aesl_tmp_3[i_0]).to_string(2).c_str();
dst_V_V_tvout_wrapc_buffer[0 + AESL_i].range(15, 0) = dst_V_V_tmp_mem.range(15, 0 ) ;
}
AESL_i++;
}
for (int i = 0; i < aesl_tmp_4 - aesl_tmp_5 ; i++) {
sprintf(tvout_dst_V_V, "%s\n", (dst_V_V_tvout_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVOUT_dst_V_V, tvout_dst_V_V);
}
tcl_file.set_num(aesl_tmp_4 - aesl_tmp_5,&tcl_file.dst_V_V_depth);
sprintf(tvout_dst_V_V, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVOUT_dst_V_V, tvout_dst_V_V);
delete [] dst_V_V_tvout_wrapc_buffer;
sprintf(wrapc_stream_size_out_dst_V_V, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(WRAPC_STREAM_SIZE_OUT_dst_V_V, wrapc_stream_size_out_dst_V_V);
sprintf(wrapc_stream_size_out_dst_V_V, "%d\n", aesl_tmp_4 - aesl_tmp_5);
aesl_fh.write(WRAPC_STREAM_SIZE_OUT_dst_V_V, wrapc_stream_size_out_dst_V_V);
sprintf(wrapc_stream_size_out_dst_V_V, "[[/transaction]] \n");
aesl_fh.write(WRAPC_STREAM_SIZE_OUT_dst_V_V, wrapc_stream_size_out_dst_V_V);
for (int i = 0; i < aesl_tmp_4; i++) {
dst.write(aesl_tmp_3[i]);
}
delete [] tvin_src_V_V;
delete [] wrapc_stream_size_in_src_V_V;
delete [] tvout_dst_V_V;
delete [] tvin_dst_V_V;
delete [] wrapc_stream_size_out_dst_V_V;
AESL_transaction++;
tcl_file.set_num(AESL_transaction , &tcl_file.trans_num);
}
}
uint64 needlemanWunsch ( uint2 read[100], uint2 ref_genome[1000000])
{
fstream wrapc_switch_file_token;
wrapc_switch_file_token.open(".hls_cosim_wrapc_switch.log");
int AESL_i;
if (wrapc_switch_file_token.good())
{
static unsigned AESL_transaction_pc = 0;
string AESL_token;
string AESL_num;
static AESL_FILE_HANDLER aesl_fh;
uint64 AESL_return;
// output port post check: "ap_return"
aesl_fh.read(AUTOTB_TVOUT_PC_ap_return, AESL_token); // [[transaction]]
if (AESL_token != "[[transaction]]")
{
exit(1);
}
aesl_fh.read(AUTOTB_TVOUT_PC_ap_return, AESL_num); // transaction number
if (atoi(AESL_num.c_str()) == AESL_transaction_pc)
{
aesl_fh.read(AUTOTB_TVOUT_PC_ap_return, AESL_token); // data
sc_bv<64> ap_return_pc_buffer;
int i = 0;
while (AESL_token != "[[/transaction]]")
{
bool no_x = false;
bool err = false;
// search and replace 'X' with "0" from the 1st char of token
while (!no_x)
{
size_t x_found = AESL_token.find('X');
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'ap_return', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
no_x = false;
// search and replace 'x' with "0" from the 3rd char of token
while (!no_x)
{
size_t x_found = AESL_token.find('x', 2);
if (x_found != string::npos)
{
if (!err)
{
cerr << "@W [SIM-201] RTL produces unknown value 'X' on port 'ap_return', possible cause: There are uninitialized variables in the C design." << endl;
err = true;
}
AESL_token.replace(x_found, 1, "0");
}
else
{
no_x = true;
}
}
// push token into output port buffer
if (AESL_token != "")
{
ap_return_pc_buffer = AESL_token.c_str();
i++;
}
aesl_fh.read(AUTOTB_TVOUT_PC_ap_return, AESL_token); // data or [[/transaction]]
if (AESL_token == "[[[/runtime]]]" || aesl_fh.eof(AUTOTB_TVOUT_PC_ap_return))
{
exit(1);
}
}
// ***********************************
if (i > 0)
{
// RTL Name: ap_return
{
// bitslice(63, 0)
// {
// celement: return(63, 0)
// {
sc_lv<64> return_lv0_0_1_0;
// }
// }
// bitslice(63, 0)
{
// celement: return(63, 0)
{
// carray: (0) => (1) @ (0)
{
if (&(AESL_return) != NULL) // check the null address if the c port is array or others
{
return_lv0_0_1_0.range(63, 0) = sc_bv<64>(ap_return_pc_buffer.range(63, 0));
}
}
}
}
// bitslice(63, 0)
{
// celement: return(63, 0)
{
// carray: (0) => (1) @ (0)
{
if (&(AESL_return) != NULL) // check the null address if the c port is array or others
{
AESL_return = (return_lv0_0_1_0).to_uint64();
}
}
}
}
}
}
}
AESL_transaction_pc++;
return AESL_return;
}
else
{
static unsigned AESL_transaction;
static AESL_FILE_HANDLER aesl_fh;
// "read_r"
char* tvin_read_r = new char[50];
aesl_fh.touch(AUTOTB_TVIN_read_r);
// "ref_genome"
char* tvin_ref_genome = new char[50];
aesl_fh.touch(AUTOTB_TVIN_ref_genome);
// "ap_return"
char* tvout_ap_return = new char[50];
aesl_fh.touch(AUTOTB_TVOUT_ap_return);
static INTER_TCL_FILE tcl_file(INTER_TCL);
int leading_zero;
// [[transaction]]
sprintf(tvin_read_r, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_read_r, tvin_read_r);
sc_bv<16>* read_r_tvin_wrapc_buffer = new sc_bv<16>[13];
// RTL Name: read_r
{
// bitslice(1, 0)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (0) => (96) @ (8)
for (int i_0 = 0; i_0 <= 96; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(1, 0) = read_tmp_mem.range(1, 0);
}
}
}
}
// bitslice(3, 2)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (1) => (97) @ (8)
for (int i_0 = 1; i_0 <= 97; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(3, 2) = read_tmp_mem.range(1, 0);
}
}
}
}
// bitslice(5, 4)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (2) => (98) @ (8)
for (int i_0 = 2; i_0 <= 98; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(5, 4) = read_tmp_mem.range(1, 0);
}
}
}
}
// bitslice(7, 6)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (3) => (99) @ (8)
for (int i_0 = 3; i_0 <= 99; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(7, 6) = read_tmp_mem.range(1, 0);
}
}
}
}
// bitslice(9, 8)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (4) => (99) @ (8)
for (int i_0 = 4; i_0 <= 99; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(9, 8) = read_tmp_mem.range(1, 0);
}
}
}
// dummy celement: (1, 0)
{
hls_map_index += 1;
}
}
// bitslice(11, 10)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (5) => (99) @ (8)
for (int i_0 = 5; i_0 <= 99; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(11, 10) = read_tmp_mem.range(1, 0);
}
}
}
// dummy celement: (1, 0)
{
hls_map_index += 1;
}
}
// bitslice(13, 12)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (6) => (99) @ (8)
for (int i_0 = 6; i_0 <= 99; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(13, 12) = read_tmp_mem.range(1, 0);
}
}
}
// dummy celement: (1, 0)
{
hls_map_index += 1;
}
}
// bitslice(15, 14)
{
int hls_map_index = 0;
// celement: read(1, 0)
{
// carray: (7) => (99) @ (8)
for (int i_0 = 7; i_0 <= 99; i_0 += 8)
{
if (&(read[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> read_tmp_mem;
read_tmp_mem = read[i_0];
read_r_tvin_wrapc_buffer[hls_map_index++].range(15, 14) = read_tmp_mem.range(1, 0);
}
}
}
// dummy celement: (1, 0)
{
hls_map_index += 1;
}
}
}
// dump tv to file
for (int i = 0; i < 13; i++)
{
sprintf(tvin_read_r, "%s\n", (read_r_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_read_r, tvin_read_r);
}
tcl_file.set_num(13, &tcl_file.read_r_depth);
sprintf(tvin_read_r, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_read_r, tvin_read_r);
// release memory allocation
delete [] read_r_tvin_wrapc_buffer;
// [[transaction]]
sprintf(tvin_ref_genome, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVIN_ref_genome, tvin_ref_genome);
sc_bv<8>* ref_genome_tvin_wrapc_buffer = new sc_bv<8>[1000000];
// RTL Name: ref_genome
{
// bitslice(1, 0)
{
int hls_map_index = 0;
// celement: ref_genome(1, 0)
{
// carray: (0) => (999999) @ (1)
for (int i_0 = 0; i_0 <= 999999; i_0 += 1)
{
if (&(ref_genome[0]) != NULL) // check the null address if the c port is array or others
{
sc_lv<2> ref_genome_tmp_mem;
ref_genome_tmp_mem = ref_genome[i_0];
ref_genome_tvin_wrapc_buffer[hls_map_index++].range(1, 0) = ref_genome_tmp_mem.range(1, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1000000; i++)
{
sprintf(tvin_ref_genome, "%s\n", (ref_genome_tvin_wrapc_buffer[i]).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVIN_ref_genome, tvin_ref_genome);
}
tcl_file.set_num(1000000, &tcl_file.ref_genome_depth);
sprintf(tvin_ref_genome, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVIN_ref_genome, tvin_ref_genome);
// release memory allocation
delete [] ref_genome_tvin_wrapc_buffer;
// [call_c_dut] ---------->
uint64 AESL_return = AESL_ORIG_DUT_needlemanWunsch(read, ref_genome);
// [[transaction]]
sprintf(tvout_ap_return, "[[transaction]] %d\n", AESL_transaction);
aesl_fh.write(AUTOTB_TVOUT_ap_return, tvout_ap_return);
sc_bv<64> ap_return_tvout_wrapc_buffer;
// RTL Name: ap_return
{
// bitslice(63, 0)
{
// celement: return(63, 0)
{
// carray: (0) => (1) @ (0)
{
if (&(AESL_return) != NULL) // check the null address if the c port is array or others
{
sc_lv<64> return_tmp_mem;
return_tmp_mem = AESL_return;
ap_return_tvout_wrapc_buffer.range(63, 0) = return_tmp_mem.range(63, 0);
}
}
}
}
}
// dump tv to file
for (int i = 0; i < 1; i++)
{
sprintf(tvout_ap_return, "%s\n", (ap_return_tvout_wrapc_buffer).to_string(SC_HEX).c_str());
aesl_fh.write(AUTOTB_TVOUT_ap_return, tvout_ap_return);
}
tcl_file.set_num(1, &tcl_file.ap_return_depth);
sprintf(tvout_ap_return, "[[/transaction]] \n");
aesl_fh.write(AUTOTB_TVOUT_ap_return, tvout_ap_return);
// release memory allocation: "read_r"
delete [] tvin_read_r;
// release memory allocation: "ref_genome"
delete [] tvin_ref_genome;
// release memory allocation: "ap_return"
delete [] tvout_ap_return;
AESL_transaction++;
tcl_file.set_num(AESL_transaction , &tcl_file.trans_num);
return AESL_return;
}
}