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import os
import pvlib
import pandas as pd
from matplotlib import pyplot as plt
import seaborn as sns
sns.set()
plt.ion()

INVERTERS = pvlib.pvsystem.retrieve_sam('CECInverter')
INVERTER_10K = INVERTERS['SMA_America__SB10000TL_US__240V_']

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#! /usr/bin/env python

from Tkinter import *
from ttk import *

root = Tk() # create a top-level window

master = Frame(root, name='master') # create Frame in "root"
master.pack(fill=BOTH) # fill both sides of the parent

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"""
An open PV system specification
"""

import json
import pathlib
import yaml


def get_pv_spec(pv_spec_pathlib_file_or_buffer):

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{
    "key": "<your-netflix-key>",
    "secret": "<your-netflix-secret>"
}

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function [fx,fy] = polyDer2D(p,x,y,n,m)
%POLYDER2D Evaluate derivatives of 2-D polynomial using Horner's method.
%   F = POLYDER2D(P,X,Y,N,M) evaluates the derivatives of 2-D polynomial P at
%   the points specified by X and Y, which must have the same dimensions. The
%   outputs FX and FY will have the same dimensions as X and Y. N and M specify
%   the order of X and Y respectively. Polynomial coefficients are in the
%   following order.
%
%   F(X,Y) = P_1 * X^N * Y^M + P_2 * X^{N-1} * Y^M + ... + P_{N+1} * Y^M + ...
%            P_{N+2} * X^N * Y^{M-1} + P_{N+3} * X^{N-1} * Y^{M-1} + ... + P_{2*(N+1)} * Y^{M-1} + ...

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%% initialize workspace
close('all'),clear('all'),clc
rmdir('keys','s') % delete old keys
%% test encryption
PANGRAM = 'The quick brown fox jumped over the lazy dog.';
EncryptionUtil.testJschSECSH(PANGRAM) % run test
%% make SSH keys in workspace
keyFactory = java.security.KeyFactory.getInstance('RSA'); % make a key factory
% read public OpenSSH key
[keyln, totlines] = EncryptionUtil.readJschKeyFile('keys/publicJschSECSH.key',7);