General/MagnaSim.py

#! /usr/bin/env python3

import math
import numpy as np
import pandas as pd

class Populations:
    """
    This class is made of a pd.Series of the clients and the operation that 
    can be made on the population.
    """
    def __init__(self, carac):
        """
        Population constructor, initialises the client population with
        the caracterictic given to it.
        """
        self.population = pd.Series()
        self.nmbr = carac
        self.add_client(self.nmbr)
        """
        We have to define more caracteristics. We will start with a
        simple serie of inds and their number
        """
        return

    def add_client(self, nb):#Need to add an arg "habits"
        """
        Add 'nb' clients to the population.
        """
        start = len(self.population)
        end = start + nb
        inds = []
        for i in range(nb):
            inds.append(Individu())
        self.population = self.population.append(pd.Series(inds, index=range(start, end)))
        self.nmbr += nb
        return

class Individu: #tout OK
    """
    This class define the clients, it's caracteristics being :
        - User habits :
            - The habits with the Magna Wallet and the 3 tokens :
                -self.magna_wallet_btc
                -self.magna_wallet_eth
                -self.magna_wallet_mgn
            They containe statisctical law of the user habits.
    The methods of this class operate on only one client.
    """

    def __init__(self):#OK
        """
        Constructeur d'une instance 'individu'.
        Ce constructeur fait appel aux fonction especes et aleatoire
        pour initialisé les variables d'un individu aux valeurs propres
        à son espèce.
        """
        # Those 3 caracteristic are the users habits concerning the client
        # use of Magna Wallet
        self.magna_wallet_btc = (
            np.random.normal(
                loc=0.00001, scale=0.002),
            abs(np.random.normal(
                loc=0.002, scale=0.01))
        )
        self.magna_wallet_eth = (
            np.random.normal(
                loc=0.01, scale=0.9),
            abs(np.random.normal(
                loc=0.5, scale=5))
        )
        self.magna_wallet_mgn = (
            np.random.normal(
                loc=1, scale=10),
            abs(np.random.normal(
                loc=10, scale=50))
        )
        return

class Transaction:
    """
    This class keeps track of the transactions
    """
    def __init__(self):
        self.btc=0
        self.etg=0
        self.mgn=0
        return

def fees_btc(nbr_transaction_btc):
    """
    Cette fonction calcule une version simplifié des frais de transaction
    """
    # Dans un premier temps je vais prendre pour valeur pour valeur de transfere :
    # 20sat/byte
    # On simplifie aussi en considerant qu'on a 1 input et 1 output
    fees_btc = (nbr_transaction_btc*180 + 40 + nbr_transaction_btc)*20
    return fees_btc

def fees_eth(nbr_transaction_eth):
    """
    Cette fonction est destinee a calculer les frais de transaction en ETH
    La premiere approximation faire est de considerer toutes les transactions
    comme de simple transfere.
    On fixe donc la valeur d'un transfert simple 21 000 gas et 20Gwei/gas
    """
    gwei_per_gas = 20
    gas = 21000*nbr_transaction_eth
    fees_eth = gas*20
    return fees_eth

def fees_mgn(nbr_transaction_mgn):
    """
    Cette fonction calcule le cout de transfère des tokens magna 
    basés sur Stellar.
    There are two special values used to calculate fees:
        The base fee (currently 100 stroops) is used in transaction fees.
        The base reserve (currently 0.5 XLM) is used in minimum account balances.
    100 stroops (0.00001 XLM)
    """
    fees_mgn = nbr_transaction_mgn*100
    return fees_mgn