def __init__(self, scfg: StructureConfig):
super().__init__(trim_blocks=True, lstrip_blocks=True)
#####################################################
# Create module interface
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name="clk_gen")
module.add_inputs(scfg.clk_i)
module.add_output(scfg.dbg_clk)
module.add_output(scfg.emu_clk_2x)
module.add_outputs(scfg.clk_independent)
module.generate_header()
#####################################################
# Instantiate clk wizard
#####################################################
self.clk_wiz_inst = SVAPI()
clk_wiz = ModuleInst(api=self.clk_wiz_inst, name='clk_wiz_0')
clk_wiz.add_inputs(scfg.clk_i, connections=scfg.clk_i)
# handled by emu clk generator
for k, port in enumerate([scfg.emu_clk_2x] + [scfg.dbg_clk] +
scfg.clk_independent):
clk_wiz.add_output(DigitalSignal(abspath=None,
width=1,
name=f'clk_out{k + 1}'),
connection=port)
clk_wiz.add_input(DigitalSignal(abspath=None, width=1, name='reset'),
connection=r"1'b0")
clk_wiz.add_output(DigitalSignal(abspath=None, width=1, name='locked'),
DigitalSignal(abspath=None, width=1, name='locked'))
clk_wiz.generate_instantiation()
#####################################################
# Create independent clks for simulation case
#####################################################
self.emu_clk = scfg.emu_clk
self.independent_clks = scfg.clk_independent
def __init__(self, scfg: StructureConfig):
super().__init__(trim_blocks=True, lstrip_blocks=True)
probes = scfg.digital_probes + scfg.analog_probes + [scfg.time_probe] + [scfg.dec_cmp]
#####################################################
# Define module ios
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name="trace_port_gen")
# Add probe signals
module.add_inputs(probes)
# Add master clk
module.add_input(scfg.emu_clk)
module.generate_header()
#####################################################
# CPU sim control section - add dump statements
#####################################################
self.probe_dumps = SVAPI()
self.probe_dumps.indent()
self.probe_dumps.writeln(f'initial begin')
self.probe_dumps.indent()
self.probe_dumps.writeln('#0;')
for probe in probes:
self.probe_dumps.writeln(f'$dumpvars(0, {probe.name});')
self.probe_dumps.dedent()
self.probe_dumps.writeln(f'end')
#####################################################
# FPGA sim control section - Instantiate ila core
#####################################################
# Instantiate ila core
self.ila_wiz_inst = SVAPI()
ila_wiz = ModuleInst(api=self.ila_wiz_inst, name="ila_0")
for k, signal in enumerate(probes): # Add probe signals
ila_wiz.add_input(DigitalSignal(name=f'probe{k}', abspath=None, width=signal.width), connection=signal)
ila_wiz.add_input(DigitalSignal(name='clk', abspath=None, width=1), connection=scfg.emu_clk) # Add master clk
ila_wiz.generate_instantiation()
def __init__(self,
ps_vlnv='xilinx.com:ip:processing_system7:5.5',
gpio_vlnv='xilinx.com:ip:axi_gpio:2.0',
design_name='zynq_gpio',
ultra_ps_vlnv='xilinx.com:ip:zynq_ultra_ps_e:3.3',
is_ultrascale=False):
# call the super constructor
super().__init__(trim_blocks=False, lstrip_blocks=False)
# save settings
self.design_name = design_name
self.ps_vlnv = ps_vlnv
self.gpio_vlnv = gpio_vlnv
self.ultra_ps_vlnv = ultra_ps_vlnv
self.is_ultrascale = is_ultrascale
# save IO that are used by the emulator
self.o_ctrl = DigitalSignal(name='o_ctrl', width=32, abspath=None)
self.o_data = DigitalSignal(name='o_data', width=32, abspath=None)
self.i_ctrl = DigitalSignal(name='i_ctrl', width=32, abspath=None)
self.i_data = DigitalSignal(name='i_data', width=32, abspath=None)
class TemplZynqGPIO(JinjaTempl):
def __init__(self,
ps_vlnv='xilinx.com:ip:processing_system7:5.5',
gpio_vlnv='xilinx.com:ip:axi_gpio:2.0',
design_name='zynq_gpio',
ultra_ps_vlnv='xilinx.com:ip:zynq_ultra_ps_e:3.3',
is_ultrascale=False):
# call the super constructor
super().__init__(trim_blocks=False, lstrip_blocks=False)
# save settings
self.design_name = design_name
self.ps_vlnv = ps_vlnv
self.gpio_vlnv = gpio_vlnv
self.ultra_ps_vlnv = ultra_ps_vlnv
self.is_ultrascale = is_ultrascale
# save IO that are used by the emulator
self.o_ctrl = DigitalSignal(name='o_ctrl', width=32, abspath=None)
self.o_data = DigitalSignal(name='o_data', width=32, abspath=None)
self.i_ctrl = DigitalSignal(name='i_ctrl', width=32, abspath=None)
self.i_data = DigitalSignal(name='i_data', width=32, abspath=None)
# generate text
TEMPLATE_TEXT = '''\
############################
# Create the block diagram #
############################
# Initialize
create_bd_design "{{subst.design_name}}"
# Instantiate IPs
{% if subst.is_ultrascale %}
create_bd_cell -type ip -vlnv {{subst.ultra_ps_vlnv}} zynq_ultra_ps_e_0
{% else %}
create_bd_cell -type ip -vlnv {{subst.ps_vlnv}} processing_system7_0
{% endif %}
create_bd_cell -type ip -vlnv {{subst.gpio_vlnv}} axi_gpio_0
create_bd_cell -type ip -vlnv {{subst.gpio_vlnv}} axi_gpio_1
# Configure IPs
set_property \\
-dict [list \\
CONFIG.C_IS_DUAL {1} \\
CONFIG.C_ALL_OUTPUTS {1} \\
CONFIG.C_ALL_INPUTS_2 {1} \\
] \\
[get_bd_cells axi_gpio_0]
set_property \\
-dict [list \\
CONFIG.C_IS_DUAL {1} \\
CONFIG.C_ALL_OUTPUTS {1} \\
CONFIG.C_ALL_OUTPUTS_2 {1} \\
] \\
[get_bd_cells axi_gpio_1]
# Create ports
create_bd_port -dir O -from 31 -to 0 o_ctrl
create_bd_port -dir I -from 31 -to 0 o_data
create_bd_port -dir O -from 31 -to 0 i_ctrl
create_bd_port -dir O -from 31 -to 0 i_data
# Wire up IPs
{% if not subst.is_ultrascale %}
connect_bd_net \\
[get_bd_pins processing_system7_0/FCLK_CLK0] \\
[get_bd_pins processing_system7_0/M_AXI_GP0_ACLK]
{% endif %}
connect_bd_net \\
[get_bd_ports o_ctrl] \\
[get_bd_pins axi_gpio_0/gpio_io_o]
connect_bd_net \\
[get_bd_ports o_data] \\
[get_bd_pins axi_gpio_0/gpio2_io_i]
connect_bd_net \\
[get_bd_ports i_ctrl] \\
[get_bd_pins axi_gpio_1/gpio_io_o]
connect_bd_net \\
[get_bd_ports i_data] \\
[get_bd_pins axi_gpio_1/gpio2_io_o]
####################
# Apply automation #
####################
# processing system automation
{% if subst.is_ultrascale %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:zynq_ultra_ps_e \\
-config { \\
apply_board_preset "1" \\
} \\
[get_bd_cells zynq_ultra_ps_e_0]
{% else %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:processing_system7 \\
-config { \\
make_external "FIXED_IO, DDR" \\
apply_board_preset "1" \\
Master "Disable" \\
Slave "Disable" \\
} \\
[get_bd_cells processing_system7_0]
{% endif %}
# axi_gpio_0 automation
{% if subst.is_ultrascale %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:axi4 \\
-config { \\
Clk_master {Auto} \\
Clk_slave {Auto} \\
Clk_xbar {Auto} \\
Master {/zynq_ultra_ps_e_0/M_AXI_HPM0_FPD} \\
Slave {/axi_gpio_0/S_AXI} \\
ddr_seg {Auto} \\
intc_ip {New AXI Interconnect} \\
master_apm {0}\\
} \\
[get_bd_intf_pins axi_gpio_0/S_AXI]
{% else %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:axi4 \\
-config { \\
Clk_master {/processing_system7_0/FCLK_CLK0 (100 MHz)} \\
Clk_slave {Auto} \\
Clk_xbar {Auto} \\
Master {/processing_system7_0/M_AXI_GP0} \\
Slave {/axi_gpio_0/S_AXI} \\
intc_ip {New AXI Interconnect} \\
master_apm {0}\\
} \\
[get_bd_intf_pins axi_gpio_0/S_AXI]
{% endif %}
# axi_gpio_1 automation
{% if subst.is_ultrascale %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:axi4 \\
-config { \\
Clk_master {Auto} \\
Clk_slave {Auto} \\
Clk_xbar {Auto} \\
Master {/zynq_ultra_ps_e_0/M_AXI_HPM0_FPD} \\
Slave {/axi_gpio_1/S_AXI} \\
ddr_seg {Auto} \\
intc_ip {New AXI Interconnect} \\
master_apm {0}\\
} \\
[get_bd_intf_pins axi_gpio_1/S_AXI]
{% else %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:axi4 \\
-config { \\
Clk_master {/processing_system7_0/FCLK_CLK0 (100 MHz)} \\
Clk_slave {Auto} \\
Clk_xbar {Auto} \\
Master {/processing_system7_0/M_AXI_GP0} \\
Slave {/axi_gpio_1/S_AXI} \\
intc_ip {New AXI Interconnect} \\
master_apm {0}\\
} \\
[get_bd_intf_pins axi_gpio_1/S_AXI]
{% endif %}
# other automation
{% if subst.is_ultrascale %}
apply_bd_automation \\
-rule xilinx.com:bd_rule:axi4 \\
-config { \\
Clk_master {Auto} \\
Clk_slave {/zynq_ultra_ps_e_0/pl_clk0 (99 MHz)} \\
Clk_xbar {/zynq_ultra_ps_e_0/pl_clk0 (99 MHz)} \\
Master {/zynq_ultra_ps_e_0/M_AXI_HPM1_FPD} \\
Slave {/axi_gpio_0/S_AXI} \\
ddr_seg {Auto} \\
intc_ip {/ps8_0_axi_periph} \\
master_apm {0}\\
} \\
[get_bd_intf_pins zynq_ultra_ps_e_0/M_AXI_HPM1_FPD]
{% endif %}
validate_bd_design
'''
# save external IOs that need to be wired to the top
EXT_IOS = [
DigitalSignal(name='DDR_addr', width=15, abspath=None),
DigitalSignal(name='DDR_ba', width=3, abspath=None),
DigitalSignal(name='DDR_cas_n', width=1, abspath=None),
DigitalSignal(name='DDR_ck_n', width=1, abspath=None),
DigitalSignal(name='DDR_ck_p', width=1, abspath=None),
DigitalSignal(name='DDR_cke', width=1, abspath=None),
DigitalSignal(name='DDR_cs_n', width=1, abspath=None),
DigitalSignal(name='DDR_dm', width=4, abspath=None),
DigitalSignal(name='DDR_dq', width=32, abspath=None),
DigitalSignal(name='DDR_dqs_n', width=4, abspath=None),
DigitalSignal(name='DDR_dqs_p', width=4, abspath=None),
DigitalSignal(name='DDR_odt', width=1, abspath=None),
DigitalSignal(name='DDR_ras_n', width=1, abspath=None),
DigitalSignal(name='DDR_reset_n', width=1, abspath=None),
DigitalSignal(name='DDR_we_n', width=1, abspath=None),
DigitalSignal(name='FIXED_IO_ddr_vrn', width=1, abspath=None),
DigitalSignal(name='FIXED_IO_ddr_vrp', width=1, abspath=None),
DigitalSignal(name='FIXED_IO_mio', width=54, abspath=None),
DigitalSignal(name='FIXED_IO_ps_clk', width=1, abspath=None),
DigitalSignal(name='FIXED_IO_ps_porb', width=1, abspath=None),
DigitalSignal(name='FIXED_IO_ps_srstb', width=1, abspath=None)
]
def __init__(self, scfg: StructureConfig, pcfg: EmuConfig):
super().__init__(trim_blocks=True, lstrip_blocks=True)
gated_clks = []
#####################################################
# Create module interface
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name="gen_emu_clks")
module.add_input(scfg.emu_clk_2x)
module.add_output(scfg.emu_clk)
for derived_clk in scfg.clk_derived:
if derived_clk.abspath_gated_clk is not None:
gated_clks.append(derived_clk.name)
# add IOs for default oscillator if used
self.use_default_oscillator = scfg.use_default_oscillator
if scfg.use_default_oscillator:
module.add_input(
DigitalSignal(name=f'clk_val_default_osc', width=1,
abspath=''))
module.add_output(
DigitalSignal(name=f'clk_default_osc', width=1, abspath=''))
for gated_clk in gated_clks:
module.add_input(
DigitalSignal(name=f'clk_val_{gated_clk}', width=1,
abspath=''))
module.add_output(
DigitalSignal(name=f'clk_{gated_clk}', width=1, abspath=''))
module.generate_header()
#####################################################
# Generate other clks
#####################################################
self.generated_clks = SVAPI()
if gated_clks:
for gated_clk in gated_clks:
self.generated_clks.gen_signal(DigitalSignal(
name=f'clk_unbuf_{gated_clk}', width=1, abspath=''),
default_value=0)
self.generated_clks.writeln(f'always @(posedge emu_clk_2x) begin')
self.generated_clks.indent()
for gated_clk in gated_clks:
self.generated_clks.writeln(
f"if (emu_clk_unbuf == 1'b0) begin")
self.generated_clks.indent()
self.generated_clks.writeln(
f'clk_unbuf_{gated_clk} <= clk_val_{gated_clk};')
self.generated_clks.dedent()
self.generated_clks.writeln(f'end else begin')
self.generated_clks.indent()
self.generated_clks.writeln(
f"clk_unbuf_{gated_clk} <= clk_unbuf_{gated_clk};")
self.generated_clks.dedent()
self.generated_clks.writeln(f'end')
self.generated_clks.dedent()
self.generated_clks.writeln(f'end')
self.generated_clks.writeln(f'')
self.generated_clks.writeln(f'`ifndef SIMULATION_MODE_MSDSL')
self.generated_clks.indent()
for k, gated_clk in enumerate(gated_clks):
self.generated_clks.writeln(
f'BUFG buf_{k} (.I(clk_unbuf_{gated_clk}), .O(clk_{gated_clk}));'
)
self.generated_clks.dedent()
self.generated_clks.writeln(f'`else')
self.generated_clks.indent()
for gated_clk in gated_clks:
self.generated_clks.writeln(
f'assign clk_{gated_clk} = clk_unbuf_{gated_clk};')
self.generated_clks.dedent()
self.generated_clks.writeln(f'`endif')
def _read_simctrlfile(self):
"""
Read all lines from simulation control file simctrl.yaml and store in structure config attributes.
"""
if os.path.isfile(self._simctrl_file_path):
try:
sigs = yaml.safe_load(open(self._simctrl_file_path, "r"))
except yaml.YAMLError as exc:
raise Exception(exc)
else:
print('No simctrl.yaml file existing, no additional probes will be available for this simulation.')
return
if sigs is None:
print('No signals specified in simctrl.yaml.')
return
# Add analog probes to structure config
if 'analog_probes' in sigs:
print(f'Analog Probes: {list(sigs["analog_probes"].keys())}')
for name, analog_probe in sigs['analog_probes'].items():
self.analog_probes.append(AnalogProbe.from_dict(name, analog_probe))
else:
print(f'No Analog Probes provided.')
# Add digital probes to structure config
if 'digital_probes' in sigs:
print(f'Digital Probes: {list(sigs["digital_probes"].keys())}')
for name, digital_probe in sigs['digital_probes'].items():
self.digital_probes.append(DigitalSignal.from_dict(name, digital_probe))
else:
print(f'No Digital Probes provided.')
# Add digital ctrl inputs to structure config
if sigs.get('digital_ctrl_inputs', None) is not None:
print(f'Digital Ctrl Inputs: {list(sigs["digital_ctrl_inputs"].keys())}')
for name, d_ctrl_in in sigs['digital_ctrl_inputs'].items():
d_ctrl_i = DigitalCtrlInput.from_dict(name, d_ctrl_in)
d_ctrl_i.i_addr = self._assign_i_addr()
self.digital_ctrl_inputs.append(d_ctrl_i)
else:
print(f'No Digital Ctrl Input provided.')
# Add digital ctrl outputs to structure config
if sigs.get('digital_ctrl_outputs', None) is not None:
print(f'Digital Ctrl Outputs: {list(sigs["digital_ctrl_outputs"].keys())}')
for name, d_ctrl_out in sigs['digital_ctrl_outputs'].items():
d_ctrl_o = DigitalCtrlOutput.from_dict(name, d_ctrl_out)
d_ctrl_o.o_addr = self._assign_o_addr()
self.digital_ctrl_outputs.append(d_ctrl_o)
else:
print(f'No Digital Ctrl Outputs provided.')
# Add analog ctrl inputs to structure config
if sigs.get('analog_ctrl_inputs', None) is not None:
print(f'Analog Ctrl Inputs: {list(sigs["analog_ctrl_inputs"].keys())}')
for name, a_ctrl_in in sigs['analog_ctrl_inputs'].items():
a_ctrl_i = AnalogCtrlInput.from_dict(name, a_ctrl_in)
a_ctrl_i.i_addr = self._assign_i_addr()
self.analog_ctrl_inputs.append(a_ctrl_i)
else:
print(f'No Analog Ctrl Input provided.')
# Add analog ctrl outputs to structure config
if sigs.get('analog_ctrl_outputs', None) is not None:
print(f'Analog Ctrl Outputs: {list(sigs["analog_ctrl_outputs"].keys())}')
for name, a_ctrl_out in sigs['analog_ctrl_outputs'].items():
a_ctrl_o = AnalogCtrlOutput.from_dict(name, a_ctrl_out)
a_ctrl_o.o_addr = self._assign_o_addr()
self.analog_ctrl_outputs.append(a_ctrl_o)
else:
print(f'No Analog Ctrl Outputs provided.')
def __init__(self, prj_cfg: EmuConfig, simctrl_path, can_use_default_oscillator=True):
# Internal variables
self.i_addr_counter = 0
self.o_addr_counter = 0
# Path to clks.yaml file
self._clks_file_path = os.path.join(prj_cfg.root, 'clks.yaml')
# Path to simctrl.yaml file
self._simctrl_file_path = simctrl_path
self.cfg = Config(prj_cfg=prj_cfg)
self.cfg.update_config()
#########################################################
# Manage clks
#########################################################
self.emu_clk = ClkIndependent(name='emu_clk', freq=float(prj_cfg.cfg.emu_clk_freq))
self.emu_clk_2x = ClkIndependent(name='emu_clk_2x', freq=float(prj_cfg.cfg.emu_clk_freq) * 2) # multiplied by two, as emu_clk_2x is twice as fast as emu_clk
self.dbg_clk = ClkIndependent(name='dbg_hub_clk', freq=float(prj_cfg.board.dbg_hub_clk_freq))
# add clk_in
self.clk_i_num = len(prj_cfg.board.clk_pin)
# clk_in names cannot be changed
if self.clk_i_num == 2:
self.clk_i = [DigitalSignal(abspath=None, width=1, name='clk_in1_p'), DigitalSignal(abspath=None, width=1, name='clk_in1_n')]
elif self.clk_i_num == 1:
self.clk_i = [DigitalSignal(abspath=None, width=1, name='clk_in1')]
else:
raise ValueError(
f"Wrong number of pins for boards param 'clk_pin', expecting 1 or 2, provided:{self.clk_i_num}")
# Add independent clks, that will be implemented via clk_wiz IP core for FPGA
self.clk_independent = []
""" type : [ClkIndependent]"""
# Add derived clks; those are aligned with emu_clk
self.clk_derived = []
""" type : [ClkDerived]"""
# Number of gated clks
self.num_gated_clks = 0
# Number of dt requests
self.num_dt_reqs = 0
self._read_clksfile()
# add a default derived clock if needed
if (self.num_dt_reqs == 0) and can_use_default_oscillator:
self.use_default_oscillator = True
else:
self.use_default_oscillator = False
# make note of whether this is an UltraScale board
self.is_ultrascale = prj_cfg.board.is_ultrascale
#########################################################
# Simulation control interfaces
#########################################################
# CtrlIOs
self.digital_ctrl_inputs = []
self.digital_ctrl_outputs = []
self.analog_ctrl_inputs = []
self.analog_ctrl_outputs = []
self.analog_probes = []
self.digital_probes = []
# annotate special control signals that should not
# be routed to sim_ctrl
self.special_ctrl_ios = set()
# Add time signal representing current simulated time
self.time_probe = DigitalSignal(
name='emu_time',
width=prj_cfg.cfg.time_width,
abspath=''
)
# Add DigitalCtrlInput for reset
self.reset_ctrl = DigitalCtrlInput(
abspath=None,
name='emu_rst',
width=1)
self.reset_ctrl.i_addr = self._assign_i_addr()
self.digital_ctrl_inputs += [self.reset_ctrl]
self.special_ctrl_ios.add(self.reset_ctrl.name)
# Add DigitalCtrlInput for control signal 'emu_dec_thr' to manage decimation
# ratio for capturing probe samples
self.dec_thr_ctrl = DigitalCtrlInput(
abspath=None,
name='emu_dec_thr',
width=int(prj_cfg.cfg.dec_bits)
)
self.dec_thr_ctrl.i_addr = self._assign_i_addr()
self.digital_ctrl_inputs += [self.dec_thr_ctrl]
self.special_ctrl_ios.add(self.dec_thr_ctrl.name)
# Add DigitalCtrlInput for control signal 'emu_time_tgt' to run for
# a specific amount of time
self.emu_ctrl_data = DigitalCtrlInput(
name='emu_ctrl_data',
width=int(prj_cfg.cfg.time_width),
abspath = None
)
self.emu_ctrl_data.i_addr = self._assign_i_addr()
self.digital_ctrl_inputs += [self.emu_ctrl_data]
self.special_ctrl_ios.add(self.emu_ctrl_data.name)
# Add DigitalCtrlInput for control signal 'emu_ctrl_mode' to run for
# a specific amount of time
self.emu_ctrl_mode = DigitalCtrlInput(
name='emu_ctrl_mode',
width=2,
abspath = None
)
self.emu_ctrl_mode.i_addr = self._assign_i_addr()
self.digital_ctrl_inputs += [self.emu_ctrl_mode]
self.special_ctrl_ios.add(self.emu_ctrl_mode.name)
# Add DigitalCtrlOutput for reading the emulation time
self.emu_time_vio = DigitalCtrlOutput(
name='emu_time_vio',
width=prj_cfg.cfg.time_width,
abspath = 'emu_time'
)
self.emu_time_vio.i_addr = self._assign_o_addr()
self.digital_ctrl_outputs += [self.emu_time_vio]
self.special_ctrl_ios.add(self.emu_time_vio.name)
# Add DigitalSignal for control of signal 'emu_dec_cmp' to trigger sampling
# for the ila depending on 'emu_dec_thr'
self.dec_cmp = DigitalSignal(
name='emu_dec_cmp',
abspath='emu_dec_cmp_probe',
width=1
)
self._read_simctrlfile()
def __init__(self, scfg: StructureConfig, pcfg: EmuConfig,
plugin_includes: list):
super().__init__(trim_blocks=True, lstrip_blocks=True)
self.num_dt_reqs = scfg.num_dt_reqs
self.dt_value = pcfg.cfg.dt
#####################################################
# Add plugin specific includes
#####################################################
self.plugin_includes = SVAPI()
for plugin in plugin_includes:
for include_statement in plugin.include_statements:
self.plugin_includes.writeln(f'{include_statement}')
#####################################################
# Create module interface
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name="gen_time_manager")
module.add_input(scfg.emu_clk)
module.add_input(scfg.reset_ctrl)
module.add_output(scfg.time_probe)
module.add_output(
DigitalSignal(name=f'emu_dt',
abspath='',
width=pcfg.cfg.dt_width,
signed=False))
# add inputs for external timestep requests
dt_reqs = []
for derived_clk in scfg.clk_derived:
if derived_clk.abspath_dt_req is not None:
dt_req = DigitalSignal(name=f'dt_req_{derived_clk.name}',
abspath='',
width=pcfg.cfg.dt_width,
signed=False)
module.add_input(dt_req)
dt_reqs.append(dt_req)
# add input for anasymod control dt request signal
dt_req = DigitalSignal(name=f'dt_req_stall',
abspath='',
width=pcfg.cfg.dt_width,
signed=False)
module.add_input(dt_req)
dt_reqs.append(dt_req)
# add input for dt request signal, in case a default oscillator is used
if scfg.use_default_oscillator:
dt_req = DigitalSignal(name=f'dt_req_default_osc',
abspath='',
width=pcfg.cfg.dt_width,
signed=False)
module.add_input(dt_req)
dt_reqs.append(dt_req)
module.generate_header()
# generate a bit of code to take the minimum of the timestep requests
self.codegen = SVAPI()
self.codegen.indent()
# take minimum of the timestep requests
if len(dt_reqs) == 0:
# Convert dt value to integer considering dt_scale
dt_as_int = int(float(pcfg.cfg.dt) / float(pcfg.cfg.dt_scale))
# Represent as binary and expand to dt_width
dt_as_bin = bin(dt_as_int).replace('b',
'').zfill(pcfg.cfg.dt_width)
# assign to the emulator timestep output
self.codegen.writeln(
f"assign emu_dt = {pcfg.cfg.dt_width}'b{dt_as_bin};")
else:
prev_min = None
for k, curr_sig in enumerate(dt_reqs):
if k == 0:
prev_min = curr_sig.name
else:
# create a signal to hold temporary min result
curr_min = f'__dt_req_min_{k - 1}'
self.codegen.writeln(
f'(* dont_touch = "true" *) logic [((`DT_WIDTH)-1):0] {curr_min};'
)
# take the minimum of the previous minimum and the current signal
curr_min_val = self.vlog_min(curr_sig.name, prev_min)
self.codegen.writeln(
f'assign {curr_min} = {curr_min_val};')
# mark the current minimum as the previous minimum for the next
# iteration of the loop
prev_min = curr_min
# assign to the emulator timestep output
self.codegen.writeln(f'assign emu_dt = {prev_min};')
def __init__(self, scfg: StructureConfig, plugin_includes: list):
super().__init__(trim_blocks=True, lstrip_blocks=True)
ctrl_inputs = scfg.analog_ctrl_inputs + scfg.digital_ctrl_inputs
ctrl_outputs = scfg.analog_ctrl_outputs + scfg.digital_ctrl_outputs
#####################################################
# Add plugin specific includes
#####################################################
self.plugin_includes = SVAPI()
for plugin in plugin_includes:
for include_statement in plugin.include_statements:
self.plugin_includes.writeln(f'{include_statement}')
#####################################################
# Define module ios
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name="sim_ctrl_gen")
module.add_inputs(ctrl_outputs)
module.add_outputs(ctrl_inputs)
module.add_input(scfg.emu_clk)
module.generate_header()
#####################################################
# PC sim control section
#####################################################
## Custom control IOs for pc sim control module
self.pc_sim_crtl_ifc = SVAPI()
# Only generate instantiation if there is any ctrl signal available, that is not a special control signal
has_custom_ctrl_signal = False
for ctrl_signal in (ctrl_outputs + ctrl_inputs):
if ctrl_signal.name not in scfg.special_ctrl_ios:
has_custom_ctrl_signal = True
break
if has_custom_ctrl_signal:
sim_ctrl_module = ModuleInst(api=self.pc_sim_crtl_ifc,
name="sim_ctrl")
for ctrl_output in ctrl_outputs:
if ctrl_output.name not in scfg.special_ctrl_ios:
sim_ctrl_module.add_input(ctrl_output,
connection=ctrl_output)
for ctrl_input in ctrl_inputs:
if ctrl_input.name not in scfg.special_ctrl_ios:
sim_ctrl_module.add_output(ctrl_input,
connection=ctrl_input)
sim_ctrl_module.generate_instantiation()
# set number of clk cycles for initial reset
self.rst_clkcycles = scfg.cfg.rst_clkcycles
#####################################################
# FPGA sim control section - Instantiate vio wizard
#####################################################
self.vio_wiz_inst = SVAPI()
vio_wiz = ModuleInst(api=self.vio_wiz_inst, name="vio_0")
for k, input in enumerate(ctrl_outputs):
if isinstance(input, AnalogCtrlOutput):
width = '`LONG_WIDTH_REAL'
elif isinstance(input, DigitalCtrlOutput):
width = input.width
else:
raise Exception(
f"Provided signal type:{type(input)} is not supported!")
vio_i = DigitalSignal(name=f'probe_in{k}',
width=width,
abspath=None)
vio_wiz.add_input(io_obj=vio_i, connection=input)
for k, output in enumerate(ctrl_inputs):
if isinstance(output, AnalogCtrlInput):
width = '`LONG_WIDTH_REAL'
elif isinstance(output, DigitalCtrlInput):
width = output.width
else:
raise Exception(
f"Provided signal type:{type(output)} is not supported!")
vio_o = DigitalSignal(name=f'probe_out{k}',
width=width,
abspath=None)
vio_wiz.add_output(io_obj=vio_o, connection=output)
vio_wiz.add_input(io_obj=DigitalSignal(name='clk',
width=1,
abspath=None),
connection=scfg.emu_clk)
vio_wiz.generate_instantiation()
def __init__(self, scfg):
super().__init__(trim_blocks=True, lstrip_blocks=True)
crtl_inputs = scfg.analog_ctrl_inputs + scfg.digital_ctrl_inputs
ctrl_outputs = scfg.analog_ctrl_outputs + scfg.digital_ctrl_outputs
#####################################################
# Define module ios
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name="reg_map")
# Add clock
clk = DigitalSignal(name='clk', width=1, abspath=None)
module.add_input(io_obj=clk)
o_ctrl = DigitalSignal(name='o_ctrl', width=32, abspath=None)
module.add_input(io_obj=o_ctrl)
o_data = DigitalSignal(name='o_data', width=32, abspath=None)
module.add_output(io_obj=o_data)
i_ctrl = DigitalSignal(name='i_ctrl', width=32, abspath=None)
module.add_input(io_obj=i_ctrl)
i_data = DigitalSignal(name='i_data', width=32, abspath=None)
module.add_input(io_obj=i_data)
# Add I/Os to Design (probes and Conrol Parameters)
module.add_outputs(io_objs=crtl_inputs, connections=crtl_inputs)
module.add_inputs(io_objs=ctrl_outputs, connections=ctrl_outputs)
module.generate_header()
#####################################################
# Initialize Default Values for ControlInfrastructure Parameters
#####################################################
self.init_ctrlios = SVAPI()
for parameter in crtl_inputs:
default_signal = deepcopy(parameter)
default_signal.name = str(default_signal.name) + '_def'
self.init_ctrlios.gen_signal(io_obj=default_signal)
self.init_ctrlios.assign_to(io_obj=default_signal, exp=default_signal.init_value)
#####################################################
# Combo mux for Probes section
#####################################################
# instantiation of register map module
self.probes_combomux_cases = SVAPI()
self.probes_combomux_cases.indent(quantity=3)
for probe in ctrl_outputs:
if probe.o_addr is not None:
self.probes_combomux_cases.writeln(f"'d{probe.o_addr}: o_data_reg = {probe.name};")
#####################################################
# Combo mux for Probes section
#####################################################
# instantiation of register map module
self.params_regmap = SVAPI()
for param in crtl_inputs:
# create a reg signal
reg_signal = deepcopy(param)
reg_signal.name = f'{param.name}_reg'
self.params_regmap.gen_signal(reg_signal)
# assign to the reg signal
self.params_regmap.writeln(f'assign {param.name} = {param.name}_reg;')
# update the reg signal
self.params_regmap.writeln(f'''\
always @(posedge clk) begin
if (i_rst == 'b1) begin
{param.name}_reg <= {param.name}_def; // use VIO defaults
end else if ((i_valid == 1'b1) && (i_addr == 'd{param.i_addr})) begin
{param.name}_reg <= i_data;
end else begin
{param.name}_reg <= {param.name}_reg;
end
end''')
def __init__(self, target):
super().__init__(trim_blocks=True, lstrip_blocks=True)
scfg = target.str_cfg
""" :type: StructureConfig """
pcfg = target.prj_cfg
""" :type: EmuConfig """
self.result_path_raw = back2fwd(target.result_path_raw)
#####################################################
# Add plugin specific includes
#####################################################
self.plugin_includes = SVAPI()
for plugin in target.plugins:
for include_statement in plugin.include_statements:
self.plugin_includes.writeln(f'{include_statement}')
#####################################################
# Create module interface
#####################################################
self.module_ifc = SVAPI()
module = ModuleInst(api=self.module_ifc, name='top')
module.add_inputs(scfg.clk_i)
if ((target.cfg.fpga_sim_ctrl is not None)
and (target.cfg.fpga_sim_ctrl == FPGASimCtrl.UART_ZYNQ)
and (not pcfg.board.is_ultrascale)):
module.add_inouts(TemplZynqGPIO.EXT_IOS)
module.generate_header()
#####################################################
# Manage clks
#####################################################
# Add clk in signals for simulation case
self.clk_in_sim_sigs = SVAPI()
for clk_i in scfg.clk_i:
self.clk_in_sim_sigs.gen_signal(io_obj=clk_i)
# Add dbg clk signals
self.dbg_clk_sigs = SVAPI()
self.dbg_clk_sigs.gen_signal(io_obj=scfg.dbg_clk)
# Instantiation of clk_gen wrapper
self.clk_gen_ifc = SVAPI()
clk_gen = ModuleInst(api=self.clk_gen_ifc, name='clk_gen')
clk_gen.add_inputs(scfg.clk_i, connections=scfg.clk_i)
clk_gen.add_output(scfg.emu_clk_2x, connection=scfg.emu_clk_2x)
clk_gen.add_output(scfg.dbg_clk, connection=scfg.dbg_clk)
clk_gen.add_outputs(scfg.clk_independent,
connections=scfg.clk_independent)
clk_gen.generate_instantiation()
# Absolute path assignments for derived clks
self.derived_clk_assigns = SVAPI()
for k, clk in enumerate(scfg.clk_derived):
self.derived_clk_assigns.writeln(f'// derived clock: {clk.name}')
if clk.abspath_emu_dt is not None:
self.derived_clk_assigns.writeln(
f'assign {clk.abspath_emu_dt} = emu_dt;')
if clk.abspath_emu_clk is not None:
self.derived_clk_assigns.writeln(
f'assign {clk.abspath_emu_clk} = emu_clk;')
if clk.abspath_emu_rst is not None:
self.derived_clk_assigns.writeln(
f'assign {clk.abspath_emu_rst} = emu_rst;')
if clk.abspath_dt_req is not None:
self.derived_clk_assigns.writeln(
f'assign dt_req_{clk.name} = {clk.abspath_dt_req};')
if clk.abspath_gated_clk is not None:
self.derived_clk_assigns.writeln(
f'assign clk_val_{clk.name} = {clk.abspath_gated_clk_req};'
)
self.derived_clk_assigns.writeln(
f'assign {clk.abspath_gated_clk} = clk_{clk.name};')
self.num_dt_reqs = scfg.num_dt_reqs
self.num_gated_clks = scfg.num_gated_clks
#####################################################
# Manage Ctrl Module
#####################################################
# provide information if default oscillator was used for template evaluation
self.use_default_oscillator = scfg.use_default_oscillator
ctrl_ios = scfg.analog_ctrl_inputs + scfg.analog_ctrl_outputs + scfg.digital_ctrl_inputs + \
scfg.digital_ctrl_outputs
## Instantiate all ctrl signals
self.inst_itl_ctlsigs = SVAPI()
for ctrl_io in ctrl_ios:
self.inst_itl_ctlsigs.gen_signal(io_obj=ctrl_io)
## Instantiate ctrl module
self.sim_ctrl_inst_ifc = SVAPI()
sim_ctrl_inst = ModuleInst(api=self.sim_ctrl_inst_ifc,
name='sim_ctrl_gen')
sim_ctrl_inst.add_inputs(
scfg.analog_ctrl_outputs + scfg.digital_ctrl_outputs,
connections=scfg.analog_ctrl_outputs + scfg.digital_ctrl_outputs)
sim_ctrl_inst.add_outputs(
scfg.analog_ctrl_inputs + scfg.digital_ctrl_inputs,
connections=scfg.analog_ctrl_inputs + scfg.digital_ctrl_inputs)
## Wire through Zynq connections if needed
if ((target.cfg.fpga_sim_ctrl is not None)
and (target.cfg.fpga_sim_ctrl == FPGASimCtrl.UART_ZYNQ)
and (not pcfg.board.is_ultrascale)):
sim_ctrl_inst.add_inouts(TemplZynqGPIO.EXT_IOS,
connections=TemplZynqGPIO.EXT_IOS)
# add master clk to ctrl module
emu_clk_sig = DigitalSignal(name='emu_clk', width=1, abspath=None)
sim_ctrl_inst.add_input(emu_clk_sig, emu_clk_sig)
sim_ctrl_inst.generate_instantiation()
## Assign custom ctrl signals via abs paths into design
self.assign_custom_ctlsigs = SVAPI()
for ctrl_input in scfg.digital_ctrl_inputs + scfg.analog_ctrl_inputs:
if ctrl_input.abs_path is not None:
self.assign_custom_ctlsigs.assign_to(
io_obj=ctrl_input.abs_path, exp=ctrl_input.name)
for ctrl_output in scfg.digital_ctrl_outputs + scfg.analog_ctrl_outputs:
self.assign_custom_ctlsigs.assign_to(io_obj=ctrl_output.name,
exp=ctrl_output.abs_path)
######################################################
# Manage trace port Module
######################################################
probes = scfg.digital_probes + scfg.analog_probes + [
scfg.time_probe
] + [scfg.dec_cmp]
## Instantiate all probe signals
self.inst_probesigs = SVAPI()
for probe in probes:
self.inst_probesigs.gen_signal(probe)
## Instantiate traceport module
self.num_probes = len(probes)
self.trap_inst_ifc = SVAPI()
trap_inst = ModuleInst(api=self.trap_inst_ifc, name='trace_port_gen')
trap_inst.add_inputs(probes, connections=probes)
trap_inst.add_input(scfg.emu_clk, connection=scfg.emu_clk)
trap_inst.generate_instantiation()
## Assign probe signals via abs paths into design except for time probe
self.assign_probesigs = SVAPI()
for probe in scfg.digital_probes + scfg.analog_probes:
self.assign_probesigs.assign_to(io_obj=probe, exp=probe.abs_path)
######################################################
# Manage emulation clks Module
######################################################
## Instantiate all emulation clk signals
self.inst_emu_clk_sigs = SVAPI()
clk_io_pairs = []
for derived_clk in scfg.clk_derived:
if derived_clk.abspath_gated_clk is None:
continue
clk_val = digsig(f'clk_val_{derived_clk.name}')
clk = digsig(f'clk_{derived_clk.name}')
self.inst_emu_clk_sigs.gen_signal(clk_val)
self.inst_emu_clk_sigs.gen_signal(clk)
clk_io_pairs.append((clk_val, clk))
# add default oscillator signals, in case default oscillator was used
if self.use_default_oscillator:
clk_val = digsig(f'clk_val_default_osc')
clk = digsig(f'clk_default_osc')
self.inst_emu_clk_sigs.gen_signal(clk_val)
self.inst_emu_clk_sigs.gen_signal(clk)
clk_io_pairs.append((clk_val, clk))
## Instantiate gen emulation clk module
self.emu_clks_inst_ifc = SVAPI()
emu_clks_inst = ModuleInst(api=self.emu_clks_inst_ifc,
name="gen_emu_clks")
emu_clks_inst.add_input(scfg.emu_clk_2x, connection=scfg.emu_clk_2x)
emu_clks_inst.add_output(scfg.emu_clk, connection=scfg.emu_clk)
for clk_val, clk in clk_io_pairs:
emu_clks_inst.add_input(clk_val, connection=clk_val)
emu_clks_inst.add_output(clk, connection=clk)
emu_clks_inst.generate_instantiation()
######################################################
# Manage default oscillator module
######################################################
emu_dt = digsig('emu_dt', width=pcfg.cfg.dt_width)
dt_req_default_osc = DigitalSignal(name=f'dt_req_default_osc',
abspath='',
width=pcfg.cfg.dt_width,
signed=False)
if scfg.use_default_oscillator:
# instantiate API
self.def_osc_api = SVAPI()
# generate clock and reset signals
# instantiate the default oscillator
def_osc_inst = ModuleInst(api=self.def_osc_api,
name='osc_model_anasymod',
inst_name='def_osc_i')
emu_dt_req = digsig('emu_dt_req', width=pcfg.cfg.dt_width)
def_osc_inst.add_output(scfg.emu_clk, connection=scfg.emu_clk)
def_osc_inst.add_output(scfg.reset_ctrl,
connection=scfg.reset_ctrl)
def_osc_inst.add_output(emu_dt, connection=emu_dt)
def_osc_inst.add_output(emu_dt_req, connection=dt_req_default_osc)
def_osc_inst.add_output(digsig('cke'),
connection=digsig('clk_val_default_osc'))
def_osc_inst.generate_instantiation()
else:
self.def_osc_api = None
######################################################
# Manage time manager Module
######################################################
## Instantiate all time manager signals
self.inst_timemanager_sigs = SVAPI()
self.inst_timemanager_sigs.gen_signal(emu_dt)
dt_reqs = []
for derived_clk in scfg.clk_derived:
if derived_clk.abspath_dt_req is None:
continue
dt_req_sig = digsig(f'dt_req_{derived_clk.name}',
width=pcfg.cfg.dt_width)
self.inst_timemanager_sigs.gen_signal(dt_req_sig)
dt_reqs.append(dt_req_sig)
# add input for anasymod control dt request signal
dt_req_stall = DigitalSignal(name=f'dt_req_stall',
abspath='',
width=pcfg.cfg.dt_width,
signed=False)
dt_reqs.append(dt_req_stall)
# add input for dt request signal, in case a default oscillator is used
if scfg.use_default_oscillator:
dt_reqs.append(dt_req_default_osc)
## Instantiate time manager module
self.time_manager_inst_ifc = SVAPI()
time_manager_inst = ModuleInst(api=self.time_manager_inst_ifc,
name='gen_time_manager')
time_manager_inst.add_input(scfg.emu_clk, connection=scfg.emu_clk)
time_manager_inst.add_input(scfg.reset_ctrl,
connection=scfg.reset_ctrl)
time_manager_inst.add_output(scfg.time_probe, scfg.time_probe)
time_manager_inst.add_output(emu_dt, emu_dt)
for dt_req_sig in dt_reqs:
time_manager_inst.add_input(dt_req_sig, connection=dt_req_sig)
time_manager_inst.generate_instantiation()
######################################################
# Control module
######################################################
self.ctrl_anasymod_inst_ifc = SVAPI()
ctrl_anasymod_inst = ModuleInst(api=self.ctrl_anasymod_inst_ifc,
name='ctrl_anasymod',
inst_name='ctrl_anasymod_i')
ctrl_anasymod_inst.add_input(scfg.emu_ctrl_data,
connection=scfg.emu_ctrl_data)
ctrl_anasymod_inst.add_input(scfg.emu_ctrl_mode,
connection=scfg.emu_ctrl_mode)
ctrl_anasymod_inst.add_input(scfg.time_probe,
connection=scfg.time_probe)
ctrl_anasymod_inst.add_input(scfg.dec_thr_ctrl,
connection=scfg.dec_thr_ctrl)
ctrl_anasymod_inst.add_input(scfg.emu_clk, connection=scfg.emu_clk)
ctrl_anasymod_inst.add_input(scfg.reset_ctrl,
connection=scfg.reset_ctrl)
ctrl_anasymod_inst.add_output(scfg.dec_cmp, connection=scfg.dec_cmp)
ctrl_anasymod_inst.add_output(dt_req_stall, connection=dt_req_stall)
ctrl_anasymod_inst.generate_instantiation()
# indicate whether TSTOP_MSDSL should be used
self.use_tstop = target.cfg.tstop is not None
#####################################################
# Instantiate testbench
#####################################################
self.tb_inst_ifc = SVAPI()
tb_inst = ModuleInst(api=self.tb_inst_ifc, name='tb')
tb_inst.add_inputs(scfg.clk_independent,
connections=scfg.clk_independent)
tb_inst.generate_instantiation()
#####################################################
# CPU debug mode
#####################################################
self.dump_debug_signals = SVAPI()
if pcfg.cfg.cpu_debug_mode:
dbg_mods_list = pcfg.cfg.cpu_debug_hierarchies
if isinstance(dbg_mods_list, list):
for dbg_module in dbg_mods_list:
if isinstance(dbg_module, list):
self.dump_debug_signals.writeln(
f'$dumpvars({dbg_module[0]}, {dbg_module[1]});')
elif isinstance(dbg_module, int) and len(
dbg_mods_list
) == 2: # only one single debug module was provided
self.dump_debug_signals.writeln(
f'$dumpvars({dbg_mods_list[0]}, {dbg_mods_list[1]});'
)
break
else:
raise Exception(
f'ERROR: unexpected format for cpu_debug_hierarchies attribute of '
f'project_config: {dbg_mods_list}, expecting a list including <depth>, '
f'<path_to_module> or a lists of such a list.')
elif not dbg_mods_list:
self.dump_debug_signals.writeln(f'$dumpvars(0, top.tb_i);')
else:
raise Exception(
f'ERROR: unexpected format for cpu_debug_hierarchies attribute of '
f'project_config: {dbg_mods_list}, expecting tuple, list or None'
)
def digsig(name, width=1, signed=False):
# convenience function to return a digital signal
return DigitalSignal(name=f'{name}',
width=width,
signed=signed,
abspath='')
def __init__(self, scfg: StructureConfig):
super().__init__(trim_blocks=True, lstrip_blocks=True)
ctrl_inputs = scfg.analog_ctrl_inputs + scfg.digital_ctrl_inputs
ctrl_outputs = scfg.analog_ctrl_outputs + scfg.digital_ctrl_outputs
#####################################################
# Define module ios
#####################################################
self.module_ifc = SVAPI()
self.zynq_gpio = TemplZynqGPIO()
module = ModuleInst(api=self.module_ifc, name="sim_ctrl_gen")
module.add_inputs(ctrl_outputs)
module.add_outputs(ctrl_inputs)
module.add_input(scfg.emu_clk)
if not scfg.is_ultrascale:
module.add_inouts(TemplZynqGPIO.EXT_IOS)
module.generate_header()
ctrl_inputs = scfg.analog_ctrl_inputs + scfg.digital_ctrl_inputs
ctrl_outputs = scfg.analog_ctrl_outputs + scfg.digital_ctrl_outputs
#####################################################
# PC sim control section
#####################################################
## Custom control IOs for pc sim control module
self.pc_sim_crtl_ifc = SVAPI()
# Only generate instantiation if there is any custom ctrl signal available
ctrl_signals = ctrl_outputs + ctrl_inputs
custom_ctrl_signals = []
for ctrl_signal in ctrl_signals:
if not ctrl_signal.name in scfg.special_ctrl_ios:
custom_ctrl_signals.append(ctrl_signal)
if len(custom_ctrl_signals) != 0:
sim_ctrl_module = ModuleInst(api=self.pc_sim_crtl_ifc,
name="sim_ctrl")
for ctrl_output in ctrl_outputs:
if ctrl_output.name not in scfg.special_ctrl_ios:
sim_ctrl_module.add_input(ctrl_output,
connection=ctrl_output)
for ctrl_input in ctrl_inputs:
if ctrl_input.name not in scfg.special_ctrl_ios:
sim_ctrl_module.add_output(ctrl_input,
connection=ctrl_input)
sim_ctrl_module.generate_instantiation()
# set number of clk cycles for initial reset
self.rst_clkcycles = scfg.cfg.rst_clkcycles
#####################################################
# FPGA sim control section
#####################################################
# instantiation of register map module
self.reg_map_inst = SVAPI()
reg_map = ModuleInst(api=self.reg_map_inst, name="reg_map")
reg_map.add_input(io_obj=DigitalSignal(name='clk',
width=1,
abspath=None),
connection=DigitalSignal(name='emu_clk',
width=1,
abspath=None))
reg_map.add_input(io_obj=self.zynq_gpio.o_ctrl,
connection=self.zynq_gpio.o_ctrl)
reg_map.add_output(io_obj=self.zynq_gpio.o_data,
connection=self.zynq_gpio.o_data)
reg_map.add_input(io_obj=self.zynq_gpio.i_ctrl,
connection=self.zynq_gpio.i_ctrl)
reg_map.add_input(io_obj=self.zynq_gpio.i_data,
connection=self.zynq_gpio.i_data)
reg_map.add_outputs(io_objs=ctrl_inputs, connections=ctrl_inputs)
reg_map.add_inputs(io_objs=ctrl_outputs, connections=ctrl_outputs)
reg_map.generate_instantiation()
# instantiation of bd
self.bd_inst = SVAPI()
bd = ModuleInst(api=self.bd_inst, name=self.zynq_gpio.design_name)
bd.add_output(io_obj=self.zynq_gpio.o_ctrl,
connection=self.zynq_gpio.o_ctrl)
bd.add_input(io_obj=self.zynq_gpio.o_data,
connection=self.zynq_gpio.o_data)
bd.add_output(io_obj=self.zynq_gpio.i_ctrl,
connection=self.zynq_gpio.i_ctrl)
bd.add_output(io_obj=self.zynq_gpio.i_data,
connection=self.zynq_gpio.i_data)
if not scfg.is_ultrascale:
bd.add_inouts(io_objs=TemplZynqGPIO.EXT_IOS,
connections=TemplZynqGPIO.EXT_IOS)
bd.generate_instantiation()
