How to use quick_connect method in lisa

Best Python code snippet using lisa_python

digital_lib.py

Source:digital_lib.py

...16        self.set_parameter('wg', get_kwarg(kwargs, 'wg', 150e-9))17        self.set_parameter('lg', get_kwarg(kwargs, 'lg', 20e-9))18        self.set_parameter('mfac', get_kwarg(kwargs, 'mfac', 1))19        # Connect20        mp = pch_slvt('mp', parent_cell=self, wg='wg', lg='lg', mfac='mfac').quick_connect(['b', 'd', 'g', 's'], ['vdd', 'vout', 'vin', 'vdd'])21        mn = nch_slvt('mn', parent_cell=self, wg='wg', lg='lg', mfac='mfac').quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin', 'gnd'])22class Nor(Cell):23    """24    Nor gate25    Terminals: 'vin1', 'vin2', 'vout', 'vdd', 'gnd'26    """27    def __init__(self, instance_name, parent_cell, **kwargs):28        super().__init__("Nor", instance_name, parent_cell, declare=True, **kwargs)29        self.add_multiple_terminals(['vin1', 'vin2', 'vout', 'vdd', 'gnd'])30        # Add parameters31        self.set_parameter('wg', get_kwarg(kwargs, 'wg', 150e-9))32        self.set_parameter('lg', get_kwarg(kwargs, 'lg', 20e-9))33        self.set_parameter('mfac', get_kwarg(kwargs, 'mfac', 1))34        mp1 = pch_slvt('MP1', parent_cell=self, wg='wg', lg='lg', mfac='mfac').quick_connect(['b', 'd', 'g', 's'], ['vdd', 'a', 'vin1', 'vdd'])35        mp2 = pch_slvt('MP2', parent_cell=self, wg='wg', lg='lg', mfac='mfac').quick_connect(['b', 'd', 'g', 's'], ['vdd', 'vout', 'vin2', 'a'])36        mn1 = nch_slvt('MN1', parent_cell=self, wg='wg', lg='lg', mfac='mfac').quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin1', 'gnd'])37        mn2 = nch_slvt('MN2', parent_cell=self, wg='wg', lg='lg', mfac='mfac').quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin2', 'gnd'])38class Or(Cell):39    """40    Or gate41    Terminals: 'vin1', 'vin2', 'vout', 'vdd', 'gnd'42    """43    def __init__(self, instance_name, parent_cell, **kwargs):44        super().__init__("Or", instance_name, parent_cell, declare=True, **kwargs)45        self.add_multiple_terminals(['vin1', 'vin2', 'vout', 'vdd', 'gnd'])46        n0 = Nor('N0', parent_cell=self).quick_connect(47            ['vin1', 'vin2', 'vout', 'vdd', 'gnd'], ['vin1', 'vin2', 'a', 'vdd', 'gnd'])48        n1 = Not('N1', parent_cell=self).quick_connect(49            ['vdd', 'gnd', 'vin', 'vout'], ['vdd', 'gnd', 'a', 'vout'])50class Nand(Cell):51    """52    Nand gate53    Terminals: 'vin1', 'vin2', 'vout', 'vdd', 'gnd'54    """55    def __init__(self, instance_name, parent_cell, **kwargs):56        super().__init__("Nand", instance_name, parent_cell, declare=True, **kwargs)57        self.add_multiple_terminals(['vin1', 'vin2', 'vout', 'vdd', 'gnd'])58        mp1 = pch_slvt('MP1', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['vdd', 'vout', 'vin1', 'vdd'])59        mp2 = pch_slvt('MP2', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['vdd', 'vout', 'vin2', 'vdd'])60        mn1 = nch_slvt('MN1', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin1', 'a'])61        mn2 = nch_slvt('MN2', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['gnd', 'a', 'vin2', 'gnd'])62class And(Cell):63    """64    Nand gate65    Terminals: 'vin1', 'vin2', 'vout', 'vdd', 'gnd'66    """67    def __init__(self, instance_name, parent_cell, **kwargs):68        super().__init__("And", instance_name, parent_cell, declare=True, **kwargs)69        self.add_multiple_terminals(['vin1', 'vin2', 'vout', 'vdd', 'gnd'])70        nand = Nand('N0', parent_cell=self).quick_connect(71            ['vin1', 'vin2', 'vout', 'vdd', 'gnd'], ['vin1', 'vin2', 'a', 'vdd', 'gnd'])72        n1 = Not('N1', parent_cell=self).quick_connect(73            ['vdd', 'gnd', 'vin', 'vout'], ['vdd', 'gnd', 'a', 'vout'])74class Nor3(Cell):75    """76    Nor gate with three inputs77    Terminals: 'vin1', 'vin2', 'vin3', 'vout', 'vdd', 'gnd'78    """79    def __init__(self, instance_name, parent_cell, **kwargs):80        super().__init__("Nor3", instance_name, parent_cell, declare=True, **kwargs)81        self.add_multiple_terminals(['vin1', 'vin2', 'vin3', 'vout', 'vdd', 'gnd'])82        mp1 = pch_slvt('MP1', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['vdd', 'a', 'vin1', 'vdd'])83        mp2 = pch_slvt('MP2', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['vdd', 'b', 'vin2', 'a'])84        mp3 = pch_slvt('MP3', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['vdd', 'vout', 'vin3', 'b'])85        mn1 = nch_slvt('MN1', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin1', 'gnd'])86        mn2 = nch_slvt('MN2', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin2', 'gnd'])87        mn3 = nch_slvt('MN3', parent_cell=self, wg=150e-9, lg=20e-9, mfac=1).quick_connect(['b', 'd', 'g', 's'], ['gnd', 'vout', 'vin3', 'gnd'])88class vdigcode(Cell):89    """90    Voltage source, providing digital code stimulus91    Terminals: p, n92    Arguments:93        code: str94            0s and 1s that should be used as stimuli. Example: '1101001'95        period: float96            The period of the signals (inverse of frequency)97        v_high: str98            The voltage for each bit that is 199        v_low: str100            The voltage for each bit that is 0101        rise_time: str102            The rise time for the signal103        fall_time: str104            The fall time for the signal105        delay: str106            The delay before the code generation starts.107            The first voltage is given by the first bit in the code108    """109    # TODO: Support string period, rise_time and fall_time110    def __init__(self, instance_name, parent_cell, code, period, v_high, v_low=0, rise_time=1e-12, fall_time=1e-12, delay=None):111        # Call super init112        super().__init__('vsource', instance_name, parent_cell, declare=False, library_name="digital_lib")113        # Add terminals114        self.add_terminal("p")115        self.add_terminal("n")116        # Generate wave based on code117        wave = self.generate_wave(code, period, v_high, v_low, rise_time, fall_time)118        self.parameters = {'type': 'pwl', 'wave': wave}119        # Add optional properties120        if delay is not None:121            self.parameters['delay'] = num2string(delay)122    def generate_wave(self, code, period, v_high, v_low, rise_time, fall_time):123        wave = '[ '124        if(code[0]) == '1':125            volt = v_high126        else:127            volt = v_low128        for i, bit in enumerate(code):129            time = i*period130            if(bit == '1'):131                volt = v_high132                delayed_time = time+rise_time133            else:134                volt = v_low135                delayed_time = time+fall_time136            wave += num2string(time) + ' '137            wave += num2string(volt) + ' '138            wave += num2string(delayed_time) + ' '139            wave += num2string(volt) + ' '140            wave += num2string(time + period - 1e-12) + ' '141            wave += num2string(volt) + ' '142        wave += ']'143        return wave144class vdigcode_multiple(Cell):145    """146    Instansiates a multiple vdigcode cells, given multiple codes. Allows for single cell to drive multiple pins147    Terminals: p_{x}, n, where x is the positive148    Arguments:149        codes: [str]150            0s and 1s that should be used as stimuli. Example: ['1101001', '0010110', 0100101']151        period: float152            The period of the signals (inverse of frequency)153        v_high: str154            The voltage for each bit that is 1155        v_low: str156            The voltage for each bit that is 0157        rise_time: str158            The rise time for the signal159        fall_time: str160            The fall time for the signal161        delay: str162            The delay before the code generation starts.163            The first voltage is given by the first bit in the code164    """165    def __init__(self, instance_name, parent_cell, codes, period, v_high, v_low=0, rise_time=1e-12, fall_time=1e-12, delay=None, declare=True):166        # Call super init167        super().__init__('v1', instance_name, parent_cell, library_name="digital_lib")168        # Add terminals and subcells169        self.add_terminal("n")170        for i, code in enumerate(codes):171            self.add_terminal(f'p_{i}')172            subcell = vdigcode(f'{instance_name}_{i}', parent_cell, code, period, v_high, v_low=v_low, rise_time=rise_time, fall_time=fall_time, delay=delay, parent_cell=self)...

Item.py

Source:Item.py

1import sqlite32import pandas as pd3import os4from os.path import exists567class Item:8    LATEST_ID = 0910    def __init__(self, label, count, image):11        self._id = str(Item.LATEST_ID)12        self._label = label13        self._count = count14        self._image = image15    @property16    def id(self):17        return self._id18    @property19    def label(self):20        return self._label21    @property22    def count(self):23        return self._count24    @property25    def image(self):26        return self._image27    @label.setter28    def label(self, label):29        self._label = label30    @count.setter31    def count(self, count):32        if count < 0:33            self._count = count3435    def create_item(self):36        quick_connect = sqlite3.connect("inventory.db")37        with quick_connect:38            quick_connect.cursor().execute(39                "INSERT INTO inventory VALUES (:id, :label, :count, :image)",40                {'id': self.id, 'label': self.label, 'count': self.count,41                 'image': self.image}42            )4344    def update_item(self, db_id):45        quick_connect = sqlite3.connect("inventory.db")46        with quick_connect:47            quick_connect.cursor().execute(48                "UPDATE inventory SET label = (:label), count = (:count),"49                " image = (:image) WHERE id = (:id)",50                {'label': self.label, 'count': self.count, 'image': self.image,51                 'id': db_id}52            )5354    @staticmethod55    def create_DB():56        if not exists("inventory.db"):57            quick_connect = sqlite3.connect("inventory.db")58            quick_connect.cursor().execute(59                """CREATE TABLE inventory (60                                id text,61                                label text,62                                count integer,63                                image text64                                )"""65            )66            quick_connect.close()67    @staticmethod68    def delete_DB():69        if exists("inventory.db"):70            os.remove("inventory.db")7172    @staticmethod73    def delete_item(db_id):74        quick_connect = sqlite3.connect("inventory.db")75        with quick_connect:76            quick_connect.cursor().execute(77                "DELETE FROM inventory WHERE id = (:id)", {'id': db_id}78            )798081    @staticmethod82    def get_all():83        quick_connect = sqlite3.connect("inventory.db")84        with quick_connect:85            return quick_connect.cursor(). \86                execute("SELECT * FROM inventory").fetchall()8788    @staticmethod89    def get_csv():90        quick_connect = sqlite3.connect("inventory.db")91        with quick_connect:92            df = pd.read_sql_query("SELECT * FROM inventory", quick_connect)93            df.to_csv("inventory.csv", index=False)9495    @staticmethod96    def card_html():97        return """98        <div id={id} style='width:400px; height:500px; border: solid white;'>99            <div>100                <img src='{image}' alt='NO IMG' width=395px height=400px>101            </div>102            <div style='text-align:center'>{label}</div>103            <div style='text-align:center'>Inventory Count: {count}</div>104            <div style='text-align:center'>Item ID: {visible_id}</div>
...

tb_amplifier.py

Source:tb_amplifier.py

...21    # The wire_up() method is called by the super constructor. A bit confusing, will probably change this.22    # Instantiate supply, stimuli, load and DUT inside this method.23    def wire_up(self):24        # SUPPLY25        vsupply = vdc('VDD', self, self.vdd).quick_connect(['p', 'n'], ['vdd', '0'])26        # STIMULI27        vin = vsin('VIN', self, 0, self.vi, self.fi).quick_connect(['p', 'n'], ['vi', '0'])28        # DUT29        ammplifier = amp('A0', self, gain=1000).quick_connect(30            ['vdd', 'vss',  'vin',  'vip',  'vop',  'von'],31            ['vdd', '0',    '0',    'vx',   'vo',   '0'] )32        # Inverting amplifier with resistive feedback33        r1 = res('R1', self, self.R1).quick_connect(['p', 'n'], ['vi', 'vx'])34        r2 = res('R2', self, self.R2).quick_connect(['p', 'n'], ['vx', 'vo'])35        # LOAD...

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