// SB_MAC16 Input Interface
SigSpec A = st.sigA;
- A.extend_u0(16, st.mul->parameters.at(ID::A_SIGNED, State::S0).as_bool());
+ A.extend_u0(16, st.mul->getParam(ID::A_SIGNED).as_bool());
log_assert(GetSize(A) == 16);
SigSpec B = st.sigB;
- B.extend_u0(16, st.mul->parameters.at(ID::B_SIGNED, State::S0).as_bool());
+ B.extend_u0(16, st.mul->getParam(ID::B_SIGNED).as_bool());
log_assert(GetSize(B) == 16);
SigSpec CD = st.sigCD;
cell->setParam(ID(BOTADDSUB_CARRYSELECT), Const(0, 2));
cell->setParam(ID(MODE_8x8), State::S0);
- cell->setParam(ID::A_SIGNED, st.mul->parameters.at(ID::A_SIGNED, State::S0).as_bool());
- cell->setParam(ID::B_SIGNED, st.mul->parameters.at(ID::B_SIGNED, State::S0).as_bool());
+ cell->setParam(ID::A_SIGNED, st.mul->getParam(ID::A_SIGNED).as_bool());
+ cell->setParam(ID::B_SIGNED, st.mul->getParam(ID::B_SIGNED).as_bool());
if (st.ffO) {
if (st.o_lo)
endcode
code argQ ffA ffAholdmux ffArstmux ffAholdpol ffArstpol sigA clock clock_pol
- if (mul->type != \SB_MAC16 || !param(mul, \A_REG, State::S0).as_bool()) {
+ if (mul->type != \SB_MAC16 || !param(mul, \A_REG).as_bool()) {
argQ = sigA;
subpattern(in_dffe);
if (dff) {
endcode
code argQ ffB ffBholdmux ffBrstmux ffBholdpol ffBrstpol sigB clock clock_pol
- if (mul->type != \SB_MAC16 || !param(mul, \B_REG, State::S0).as_bool()) {
+ if (mul->type != \SB_MAC16 || !param(mul, \B_REG).as_bool()) {
argQ = sigB;
subpattern(in_dffe);
if (dff) {
code argD ffFJKG sigH clock clock_pol
if (nusers(sigH) == 2 &&
(mul->type != \SB_MAC16 ||
- (!param(mul, \TOP_8x8_MULT_REG, State::S0).as_bool() && !param(mul, \BOT_8x8_MULT_REG, State::S0).as_bool() && !param(mul, \PIPELINE_16x16_MULT_REG1, State::S0).as_bool() && !param(mul, \PIPELINE_16x16_MULT_REG1, State::S0).as_bool()))) {
+ (!param(mul, \TOP_8x8_MULT_REG).as_bool() && !param(mul, \BOT_8x8_MULT_REG).as_bool() && !param(mul, \PIPELINE_16x16_MULT_REG1).as_bool() && !param(mul, \PIPELINE_16x16_MULT_REG1).as_bool()))) {
argD = sigH;
subpattern(out_dffe);
if (dff) {
code argD ffH sigH sigO clock clock_pol
if (ffFJKG && nusers(sigH) == 2 &&
- (mul->type != \SB_MAC16 || !param(mul, \PIPELINE_16x16_MULT_REG2, State::S0).as_bool())) {
+ (mul->type != \SB_MAC16 || !param(mul, \PIPELINE_16x16_MULT_REG2).as_bool())) {
argD = sigH;
subpattern(out_dffe);
if (dff) {
endcode
match add
- if mul->type != \SB_MAC16 || (param(mul, \TOPOUTPUT_SELECT, State::S0).as_int() == 3 && param(mul, \BOTOUTPUT_SELECT, State::S0).as_int() == 3)
+ if mul->type != \SB_MAC16 || (param(mul, \TOPOUTPUT_SELECT).as_int() == 3 && param(mul, \BOTOUTPUT_SELECT).as_int() == 3)
select add->type.in($add)
choice <IdString> AB {\A, \B}
if ((actual_acc_width > actual_mul_width) && (natural_mul_width > actual_mul_width))
reject;
// If accumulator, check adder width and signedness
- if (sigCD == sigH && (actual_acc_width != actual_mul_width) && (param(mul, \A_SIGNED, State::S0).as_bool() != param(add, \A_SIGNED).as_bool()))
+ if (sigCD == sigH && (actual_acc_width != actual_mul_width) && (param(mul, \A_SIGNED).as_bool() != param(add, \A_SIGNED).as_bool()))
reject;
sigO = port(add, \Y);
code argD ffO ffOholdmux ffOrstmux ffOholdpol ffOrstpol sigO sigCD clock clock_pol cd_signed o_lo
if (mul->type != \SB_MAC16 ||
// Ensure that register is not already used
- ((param(mul, \TOPOUTPUT_SELECT, 0).as_int() != 1 && param(mul, \BOTOUTPUT_SELECT, 0).as_int() != 1) &&
+ ((param(mul, \TOPOUTPUT_SELECT).as_int() != 1 && param(mul, \BOTOUTPUT_SELECT).as_int() != 1) &&
// Ensure that OLOADTOP/OLOADBOT is unused or zero
(port(mul, \OLOADTOP, State::S0).is_fully_zero() && port(mul, \OLOADBOT, State::S0).is_fully_zero()))) {
code argQ ffCD ffCDholdmux ffCDholdpol ffCDrstpol sigCD clock clock_pol
if (!sigCD.empty() && sigCD != sigO &&
- (mul->type != \SB_MAC16 || (!param(mul, \C_REG, State::S0).as_bool() && !param(mul, \D_REG, State::S0).as_bool()))) {
+ (mul->type != \SB_MAC16 || (!param(mul, \C_REG).as_bool() && !param(mul, \D_REG).as_bool()))) {
argQ = sigCD;
subpattern(in_dffe);
if (dff) {
match ff
select ff->type.in($dff)
- // DSP48E1 does not support clock inversion
+ // SB_MAC16 does not support clock inversion
select param(ff, \CLK_POLARITY).as_bool()
slice offset GetSize(port(ff, \D))
sigD = port(dsp, \D, SigSpec());
SigSpec P = port(dsp, \P);
- if (param(dsp, \USE_MULT, Const("MULTIPLY")).decode_string() == "MULTIPLY") {
+ if (param(dsp, \USE_MULT).decode_string() == "MULTIPLY") {
// Only care about those bits that are used
int i;
for (i = GetSize(P)-1; i >= 0; i--)
// reset functionality, using a subpattern discussed above)
// If matched, treat 'A' input as input of ADREG
code argQ ffAD ffADcemux ffADrstmux ffADcepol ffADrstpol sigA clock
- if (param(dsp, \ADREG, 1).as_int() == 0) {
+ if (param(dsp, \ADREG).as_int() == 0) {
argQ = sigA;
subpattern(in_dffe);
if (dff) {
match preAdd
if sigD.empty() || sigD.is_fully_zero()
// Ensure that preAdder not already used
- if param(dsp, \USE_DPORT, Const("FALSE")).decode_string() == "FALSE"
+ if param(dsp, \USE_DPORT).decode_string() == "FALSE"
if port(dsp, \INMODE, Const(0, 5)).is_fully_zero()
select preAdd->type.in($add)
// Only search for ffA2 if there was a pre-adder
// (otherwise ffA2 would have been matched as ffAD)
if (preAdd) {
- if (param(dsp, \AREG, 1).as_int() == 0) {
+ if (param(dsp, \AREG).as_int() == 0) {
argQ = sigA;
subpattern(in_dffe);
if (dff) {
// (5) Match 'B' input for B2REG
// If B2REG, then match 'B' input for B1REG
code argQ ffB2 ffB2cemux ffB2rstmux ffB2cepol ffBrstpol sigB clock ffB1 ffB1cemux ffB1rstmux ffB1cepol
- if (param(dsp, \BREG, 1).as_int() == 0) {
+ if (param(dsp, \BREG).as_int() == 0) {
argQ = sigB;
subpattern(in_dffe);
if (dff) {
// (6) Match 'D' input for DREG
code argQ ffD ffDcemux ffDrstmux ffDcepol ffDrstpol sigD clock
- if (param(dsp, \DREG, 1).as_int() == 0) {
+ if (param(dsp, \DREG).as_int() == 0) {
argQ = sigD;
subpattern(in_dffe);
if (dff) {
// (7) Match 'P' output that exclusively drives an MREG
code argD ffM ffMcemux ffMrstmux ffMcepol ffMrstpol sigM sigP clock
- if (param(dsp, \MREG, 1).as_int() == 0 && nusers(sigM) == 2) {
+ if (param(dsp, \MREG).as_int() == 0 && nusers(sigM) == 2) {
argD = sigM;
subpattern(out_dffe);
if (dff) {
// (9) Match 'P' output that exclusively drives a PREG
code argD ffP ffPcemux ffPrstmux ffPcepol ffPrstpol sigP clock
- if (param(dsp, \PREG, 1).as_int() == 0) {
+ if (param(dsp, \PREG).as_int() == 0) {
int users = 2;
// If ffMcemux and no postAdd new-value net must have three users: ffMcemux, ffM and ffPcemux
if (ffMcemux && !postAdd) users++;
// to implement this function
match overflow
if ffP
- if param(dsp, \USE_PATTERN_DETECT, Const("NO_PATDET")).decode_string() == "NO_PATDET"
+ if param(dsp, \USE_PATTERN_DETECT).decode_string() == "NO_PATDET"
select overflow->type.in($ge)
select GetSize(port(overflow, \Y)) <= 48
select port(overflow, \B).is_fully_const()
// and (b) uses the 'C' port
match dsp
select dsp->type.in(\DSP48A, \DSP48A1, \DSP48E1)
- select param(dsp, \CREG, 1).as_int() == 0
+ select param(dsp, \CREG).as_int() == 0
select nusers(port(dsp, \C, SigSpec())) > 1
endmatch
SigSpec P = port(dsp, \P);
if (!dsp->type.in(\DSP48E1) ||
- param(dsp, \USE_MULT, Const("MULTIPLY")).decode_string() == "MULTIPLY") {
+ param(dsp, \USE_MULT).decode_string() == "MULTIPLY") {
// Only care about those bits that are used
int i;
for (i = GetSize(P)-1; i >= 0; i--)
// driven by the 'P' output of the previous DSP cell, and (c) has its
// 'PCIN' port unused
match nextP
- select !param(nextP, \CREG, State::S1).as_bool()
+ select !param(nextP, \CREG).as_bool()
select (nextP->type.in(\DSP48A, \DSP48A1) && port(nextP, \OPMODE, Const(0, 8)).extract(2,2) == Const::from_string("11")) || (nextP->type.in(\DSP48E1) && port(nextP, \OPMODE, Const(0, 7)).extract(4,3) == Const::from_string("011"))
select nusers(port(nextP, \C, SigSpec())) > 1
select nusers(port(nextP, \PCIN, SigSpec())) == 0
match nextP_shift17
if !nextP
select nextP_shift17->type.in(\DSP48E1)
- select !param(nextP_shift17, \CREG, State::S1).as_bool()
+ select !param(nextP_shift17, \CREG).as_bool()
select port(nextP_shift17, \OPMODE, Const(0, 7)).extract(4,3) == Const::from_string("011")
select nusers(port(nextP_shift17, \C, SigSpec())) > 1
select nusers(port(nextP_shift17, \PCIN, SigSpec())) == 0
if (next && next->type.in(\DSP48E1)) {
Cell *prev = std::get<0>(chain.back());
- if (param(next, \A_INPUT, Const("DIRECT")).decode_string() == "DIRECT" &&
+ if (param(next, \A_INPUT).decode_string() == "DIRECT" &&
port(next, \ACIN, SigSpec()).is_fully_zero() &&
nusers(port(prev, \ACOUT, SigSpec())) <= 1) {
- if (param(prev, \AREG, 2) == 0) {
+ if (param(prev, \AREG) == 0) {
if (port(prev, \A) == port(next, \A))
AREG = 0;
}
if (dffrstmux && port(dffrstmux, \S) != port(prev, \RSTA, State::S0))
goto reject_AREG;
IdString CEA;
- if (param(prev, \AREG, 2) == 1)
+ if (param(prev, \AREG) == 1)
CEA = \CEA2;
- else if (param(prev, \AREG, 2) == 2)
+ else if (param(prev, \AREG) == 2)
CEA = \CEA1;
else log_abort();
if (!dffcemux && port(prev, CEA, State::S0) != State::S1)
BREG = -1;
if (next) {
Cell *prev = std::get<0>(chain.back());
- if (param(next, \B_INPUT, Const("DIRECT")).decode_string() == "DIRECT" &&
+ if ((next->type != \DSP48E1 || param(next, \B_INPUT).decode_string() == "DIRECT") &&
port(next, \BCIN, SigSpec()).is_fully_zero() &&
nusers(port(prev, \BCOUT, SigSpec())) <= 1) {
- if ((next->type.in(\DSP48A, \DSP48A1) && param(prev, \B0REG, 0) == 0 && param(prev, \B1REG, 1) == 0) ||
- (next->type.in(\DSP48E1) && param(prev, \BREG, 2) == 0)) {
+ if ((next->type.in(\DSP48A, \DSP48A1) && param(prev, \B0REG) == 0 && param(prev, \B1REG) == 0) ||
+ (next->type.in(\DSP48E1) && param(prev, \BREG) == 0)) {
if (port(prev, \B) == port(next, \B))
BREG = 0;
}
if (next->type.in(\DSP48A, \DSP48A1))
CEB = \CEB;
else if (next->type.in(\DSP48E1)) {
- if (param(prev, \BREG, 2) == 1)
+ if (param(prev, \BREG) == 1)
CEB = \CEB2;
- else if (param(prev, \BREG, 2) == 2)
+ else if (param(prev, \BREG) == 2)
CEB = \CEB1;
else log_abort();
}
if (dffcemux && port(dffcemux, \S) != port(prev, CEB, State::S0))
goto reject_BREG;
if (dffD == unextend(port(prev, \B))) {
- if (next->type.in(\DSP48A, \DSP48A1) && param(prev, \B0REG, 0) != 0)
+ if (next->type.in(\DSP48A, \DSP48A1) && param(prev, \B0REG) != 0)
goto reject_BREG;
BREG = 1;
}
initval.append(State::Sx);
}
else if (cell->type.in(ID(FDRE), ID(FDRE_1))) {
- if (cell->parameters.at(ID::INIT, State::S0).as_bool())
+ if (cell->getParam(ID::INIT).as_bool())
initval.append(State::S1);
else
initval.append(State::S0);
else if (first_cell->type.in(ID($_DFF_N_), ID($_DFFE_NN_), ID($_DFFE_NP_), ID(FDRE_1)))
c->setParam(ID(CLKPOL), 0);
else if (first_cell->type.in(ID(FDRE))) {
- if (!first_cell->parameters.at(ID(IS_C_INVERTED), State::S0).as_bool())
+ if (!first_cell->getParam(ID(IS_C_INVERTED)).as_bool())
c->setParam(ID(CLKPOL), 1);
else
c->setParam(ID(CLKPOL), 0);
match first
select first->type.in($_DFF_N_, $_DFF_P_, $_DFFE_NN_, $_DFFE_NP_, $_DFFE_PN_, $_DFFE_PP_, \FDRE, \FDRE_1)
select !first->has_keep_attr()
- select !first->type.in(\FDRE) || !param(first, \IS_R_INVERTED, State::S0).as_bool()
- select !first->type.in(\FDRE) || !param(first, \IS_D_INVERTED, State::S0).as_bool()
+ select !first->type.in(\FDRE) || !param(first, \IS_R_INVERTED).as_bool()
+ select !first->type.in(\FDRE) || !param(first, \IS_D_INVERTED).as_bool()
select !first->type.in(\FDRE, \FDRE_1) || port(first, \R, State::S0).is_fully_zero()
filter !non_first_cells.count(first)
generate
match first
select first->type.in($_DFF_N_, $_DFF_P_, $_DFFE_NN_, $_DFFE_NP_, $_DFFE_PN_, $_DFFE_PP_, \FDRE, \FDRE_1)
select !first->has_keep_attr()
- select !first->type.in(\FDRE) || !param(first, \IS_R_INVERTED, State::S0).as_bool()
- select !first->type.in(\FDRE) || !param(first, \IS_D_INVERTED, State::S0).as_bool()
+ select !first->type.in(\FDRE) || !param(first, \IS_R_INVERTED).as_bool()
+ select !first->type.in(\FDRE) || !param(first, \IS_D_INVERTED).as_bool()
select !first->type.in(\FDRE, \FDRE_1) || port(first, \R, State::S0).is_fully_zero()
endmatch
index <SigBit> port(next, \Q) === port(first, \D)
filter port(next, clk_port) == port(first, clk_port)
filter en_port == IdString() || port(next, en_port) == port(first, en_port)
- filter !first->type.in(\FDRE) || param(next, \IS_C_INVERTED, State::S0).as_bool() == param(first, \IS_C_INVERTED, State::S0).as_bool()
- filter !first->type.in(\FDRE) || param(next, \IS_D_INVERTED, State::S0).as_bool() == param(first, \IS_D_INVERTED, State::S0).as_bool()
- filter !first->type.in(\FDRE) || param(next, \IS_R_INVERTED, State::S0).as_bool() == param(first, \IS_R_INVERTED, State::S0).as_bool()
+ filter !first->type.in(\FDRE) || param(next, \IS_C_INVERTED).as_bool() == param(first, \IS_C_INVERTED).as_bool()
+ filter !first->type.in(\FDRE) || param(next, \IS_D_INVERTED).as_bool() == param(first, \IS_D_INVERTED).as_bool()
+ filter !first->type.in(\FDRE) || param(next, \IS_R_INVERTED).as_bool() == param(first, \IS_R_INVERTED).as_bool()
filter !first->type.in(\FDRE, \FDRE_1) || port(next, \R, State::S0).is_fully_zero()
endmatch
index <SigBit> port(next, \Q) === port(chain.back(), \D)
filter port(next, clk_port) == port(first, clk_port)
filter en_port == IdString() || port(next, en_port) == port(first, en_port)
- filter !first->type.in(\FDRE) || param(next, \IS_C_INVERTED, State::S0).as_bool() == param(first, \IS_C_INVERTED, State::S0).as_bool()
- filter !first->type.in(\FDRE) || param(next, \IS_D_INVERTED, State::S0).as_bool() == param(first, \IS_D_INVERTED, State::S0).as_bool()
- filter !first->type.in(\FDRE) || param(next, \IS_R_INVERTED, State::S0).as_bool() == param(first, \IS_R_INVERTED, State::S0).as_bool()
+ filter !first->type.in(\FDRE) || param(next, \IS_C_INVERTED).as_bool() == param(first, \IS_C_INVERTED).as_bool()
+ filter !first->type.in(\FDRE) || param(next, \IS_D_INVERTED).as_bool() == param(first, \IS_D_INVERTED).as_bool()
+ filter !first->type.in(\FDRE) || param(next, \IS_R_INVERTED).as_bool() == param(first, \IS_R_INVERTED).as_bool()
filter !first->type.in(\FDRE, \FDRE_1) || port(next, \R, State::S0).is_fully_zero()
generate
Cell *cell = module->addCell(NEW_ID, chain.back()->type);
SigBit bit_d = sigmap(sig_d[0]);
SigBit bit_q = sigmap(sig_q[0]);
- std::string regset = "RESET";
- if (cell->hasParam(ID(REGSET)))
- regset = cell->getParam(ID(REGSET)).decode_string();
+ std::string regset = cell->getParam(ID(REGSET)).decode_string();
State resetState;
if (regset == "SET")
resetState = State::S1;
}
if (GetSize(sig_lsr) >= 1 && sig_lsr[0] != State::S0) {
- std::string srmode = "LSR_OVER_CE";
- if (cell->hasParam(ID(SRMODE)))
- srmode = cell->getParam(ID(SRMODE)).decode_string();
+ std::string srmode = cell->getParam(ID(SRMODE)).decode_string();
if (srmode == "ASYNC") {
log("Async reset value %c for FF cell %s inconsistent with init value %c.\n",
resetState != State::S0 ? '1' : '0', log_id(cell), val != State::S0 ? '1' : '0');
cell->setPort(ID(LSR), State::S0);
if(cell->hasPort(ID(CE))) {
- std::string cemux = "CE";
- if (cell->hasParam(ID(CEMUX)))
- cemux = cell->getParam(ID(CEMUX)).decode_string();
+ std::string cemux = cell->getParam(ID(CEMUX)).decode_string();
SigSpec sig_ce = cell->getPort(ID(CE));
if (GetSize(sig_ce) >= 1) {
SigBit bit_ce = sigmap(sig_ce[0]);
for (auto cell : module->selected_cells())
{
- if (!cell->hasParam(ID(GSR)) || cell->getParam(ID(GSR)).decode_string() != "AUTO")
+ if (cell->getParam(ID(GSR)).decode_string() != "AUTO")
continue;
bool gsren = found_gsr;
{
if (cell->type != ID(TRELLIS_FF))
continue;
- if (!cell->hasParam(ID(GSR)) || cell->getParam(ID(GSR)).decode_string() != "ENABLED")
+ if (cell->getParam(ID(GSR)).decode_string() != "ENABLED")
continue;
- if (!cell->hasParam(ID(SRMODE)) || cell->getParam(ID(SRMODE)).decode_string() != "ASYNC")
+ if (cell->getParam(ID(SRMODE)).decode_string() != "ASYNC")
continue;
SigSpec sig_lsr = cell->getPort(ID(LSR));
if (GetSize(sig_lsr) < 1)