uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/LogicUnit.vwf

/*<simulation_settings>
<ftestbench_cmd>quartus_eda --gen_testbench --tool=modelsim_oem --format=vhdl --write_settings_files=off LogicDemo -c LogicTop --vector_source="/home/tiagorg/repos/uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/LogicUnit.vwf" --testbench_file="/home/tiagorg/repos/uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/simulation/qsim/LogicUnit.vwf.vht"</ftestbench_cmd>
<ttestbench_cmd>quartus_eda --gen_testbench --tool=modelsim_oem --format=vhdl --write_settings_files=off LogicDemo -c LogicTop --vector_source="/home/tiagorg/repos/uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/LogicUnit.vwf" --testbench_file="/home/tiagorg/repos/uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/simulation/qsim/LogicUnit.vwf.vht"</ttestbench_cmd>
<fnetlist_cmd>quartus_eda --write_settings_files=off --simulation --functional=on --flatten_buses=off --tool=modelsim_oem --format=vhdl --output_directory="/home/tiagorg/repos/uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/simulation/qsim/" LogicDemo -c LogicTop</fnetlist_cmd>
<tnetlist_cmd>quartus_eda --write_settings_files=off --simulation --functional=off --flatten_buses=off --timescale=1ps --tool=modelsim_oem --format=vhdl --output_directory="/home/tiagorg/repos/uaveiro-leci/1ano/2semestre/lsd/pratica01/part3/simulation/qsim/" LogicDemo -c LogicTop</tnetlist_cmd>
<modelsim_script>onerror {exit -code 1}
vlib work
vcom -work work LogicTop.vho
vcom -work work LogicUnit.vwf.vht
vsim -c -t 1ps -L cycloneive -L altera -L altera_mf -L 220model -L sgate -L altera_lnsim work.LogicTop_vhd_vec_tst
vcd file -direction LogicDemo.msim.vcd
vcd add -internal LogicTop_vhd_vec_tst/*
vcd add -internal LogicTop_vhd_vec_tst/i1/*
proc simTimestamp {} {
    echo "Simulation time: $::now ps"
    if { [string equal running [runStatus]] } {
        after 2500 simTimestamp
    }
}
after 2500 simTimestamp
run -all
quit -f
</modelsim_script>
<modelsim_script_timing>onerror {exit -code 1}
vlib work
vcom -work work LogicTop.vho
vcom -work work LogicUnit.vwf.vht
vsim -novopt -c -t 1ps -sdfmax LogicTop_vhd_vec_tst/i1=LogicTop_vhd.sdo -L cycloneive -L altera -L altera_mf -L 220model -L sgate -L altera_lnsim work.LogicTop_vhd_vec_tst
vcd file -direction LogicDemo.msim.vcd
vcd add -internal LogicTop_vhd_vec_tst/*
vcd add -internal LogicTop_vhd_vec_tst/i1/*
proc simTimestamp {} {
    echo "Simulation time: $::now ps"
    if { [string equal running [runStatus]] } {
        after 2500 simTimestamp
    }
}
after 2500 simTimestamp
run -all
quit -f
</modelsim_script_timing>
<hdl_lang>vhdl</hdl_lang>
</simulation_settings>*/
/*
WARNING: Do NOT edit the input and output ports in this file in a text
editor if you plan to continue editing the block that represents it in
the Block Editor! File corruption is VERY likely to occur.
*/

/*
Copyright (C) 2020  Intel Corporation. All rights reserved.
Your use of Intel Corporation's design tools, logic functions 
and other software and tools, and any partner logic 
functions, and any output files from any of the foregoing 
(including device programming or simulation files), and any 
associated documentation or information are expressly subject 
to the terms and conditions of the Intel Program License 
Subscription Agreement, the Intel Quartus Prime License Agreement,
the Intel FPGA IP License Agreement, or other applicable license
agreement, including, without limitation, that your use is for
the sole purpose of programming logic devices manufactured by
Intel and sold by Intel or its authorized distributors.  Please
refer to the applicable agreement for further details, at
https://fpgasoftware.intel.com/eula.
*/

HEADER
{
	VERSION = 1;
	TIME_UNIT = ns;
	DATA_OFFSET = 0.0;
	DATA_DURATION = 1000.0;
	SIMULATION_TIME = 0.0;
	GRID_PHASE = 0.0;
	GRID_PERIOD = 10.0;
	GRID_DUTY_CYCLE = 50;
}

SIGNAL("LEDR")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = BUS;
	WIDTH = 6;
	LSB_INDEX = 0;
	DIRECTION = OUTPUT;
	PARENT = "";
}

SIGNAL("LEDR[5]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = OUTPUT;
	PARENT = "LEDR";
}

SIGNAL("LEDR[4]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = OUTPUT;
	PARENT = "LEDR";
}

SIGNAL("LEDR[3]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = OUTPUT;
	PARENT = "LEDR";
}

SIGNAL("LEDR[2]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = OUTPUT;
	PARENT = "LEDR";
}

SIGNAL("LEDR[1]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = OUTPUT;
	PARENT = "LEDR";
}

SIGNAL("LEDR[0]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = OUTPUT;
	PARENT = "LEDR";
}

SIGNAL("SW")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = BUS;
	WIDTH = 2;
	LSB_INDEX = 0;
	DIRECTION = INPUT;
	PARENT = "";
}

SIGNAL("SW[1]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = INPUT;
	PARENT = "SW";
}

SIGNAL("SW[0]")
{
	VALUE_TYPE = NINE_LEVEL_BIT;
	SIGNAL_TYPE = SINGLE_BIT;
	WIDTH = 1;
	LSB_INDEX = -1;
	DIRECTION = INPUT;
	PARENT = "SW";
}

TRANSITION_LIST("LEDR[5]")
{
	NODE
	{
		REPEAT = 1;
		LEVEL X FOR 1000.0;
	}
}

TRANSITION_LIST("LEDR[4]")
{
	NODE
	{
		REPEAT = 1;
		LEVEL X FOR 1000.0;
	}
}

TRANSITION_LIST("LEDR[3]")
{
	NODE
	{
		REPEAT = 1;
		LEVEL X FOR 1000.0;
	}
}

TRANSITION_LIST("LEDR[2]")
{
	NODE
	{
		REPEAT = 1;
		LEVEL X FOR 1000.0;
	}
}

TRANSITION_LIST("LEDR[1]")
{
	NODE
	{
		REPEAT = 1;
		LEVEL X FOR 1000.0;
	}
}

TRANSITION_LIST("LEDR[0]")
{
	NODE
	{
		REPEAT = 1;
		LEVEL X FOR 1000.0;
	}
}

TRANSITION_LIST("SW[1]")
{
	NODE
	{
		REPEAT = 1;
		NODE
		{
			REPEAT = 1;
			LEVEL 0 FOR 400.0;
			LEVEL 1 FOR 400.0;
		}
		LEVEL 0 FOR 200.0;
	}
}

TRANSITION_LIST("SW[0]")
{
	NODE
	{
		REPEAT = 1;
		NODE
		{
			REPEAT = 2;
			LEVEL 0 FOR 200.0;
			LEVEL 1 FOR 200.0;
		}
		LEVEL 0 FOR 200.0;
	}
}

DISPLAY_LINE
{
	CHANNEL = "SW";
	EXPAND_STATUS = EXPANDED;
	RADIX = Binary;
	TREE_INDEX = 0;
	TREE_LEVEL = 0;
	CHILDREN = 1, 2;
}

DISPLAY_LINE
{
	CHANNEL = "SW[1]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 1;
	TREE_LEVEL = 1;
	PARENT = 0;
}

DISPLAY_LINE
{
	CHANNEL = "SW[0]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 2;
	TREE_LEVEL = 1;
	PARENT = 0;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR";
	EXPAND_STATUS = EXPANDED;
	RADIX = Binary;
	TREE_INDEX = 3;
	TREE_LEVEL = 0;
	CHILDREN = 4, 5, 6, 7, 8, 9;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR[5]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 4;
	TREE_LEVEL = 1;
	PARENT = 3;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR[4]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 5;
	TREE_LEVEL = 1;
	PARENT = 3;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR[3]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 6;
	TREE_LEVEL = 1;
	PARENT = 3;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR[2]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 7;
	TREE_LEVEL = 1;
	PARENT = 3;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR[1]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 8;
	TREE_LEVEL = 1;
	PARENT = 3;
}

DISPLAY_LINE
{
	CHANNEL = "LEDR[0]";
	EXPAND_STATUS = COLLAPSED;
	RADIX = Binary;
	TREE_INDEX = 9;
	TREE_LEVEL = 1;
	PARENT = 3;
}

TIME_BAR
{
	TIME = 0;
	MASTER = TRUE;
}
;