Beispiel #1
0
def makeLinePlots(base_name, y_labels, scaling_factors, y_bounds_list,
                  legend_locations, var_name_lists, set_label_lists,
                  block_names):

    n_blocks = len(block_names)

    # load data
    data = list()
    for i, block_name in enumerate(block_names):
        data.append(dict())
        for var_name_list in var_name_lists:
            for var_name in var_name_list:
                file_name = base_name + "_" + var_name + "_" + block_name + ".csv"
                block_data = readCSVFile(file_name)
                data[i]["x"] = block_data["x"]
                data[i][var_name] = block_data[var_name]

    # make plots
    def makeLinePlot(y_label, var_name_list, set_label_list, scaling, y_bounds,
                     leg_loc):
        plotter = Plotter("$x$", y_label)
        for i in xrange(n_blocks):
            x = data[i]["x"]
            for j, var_name in enumerate(var_name_list):
                plotter.addSet(x,
                               data[i][var_name],
                               set_label_list[j] + ", Mesh " + str(i + 1),
                               color=i + 1,
                               linetype=j,
                               marker=i + 1,
                               scale=scaling)
        if y_bounds:
            plotter.setYRange(y_bounds[0], y_bounds[1])
        plotter.setLegendLocation(leg_loc)
        plotter.save(base_name + "_" + var_name_list[0] + ".pdf")

    for y_label, var_name_list, set_label_list, scaling, y_bounds, leg_loc in \
        zip(y_labels, var_name_lists, set_label_lists, scaling_factors, y_bounds_list, legend_locations):
        makeLinePlot(y_label, var_name_list, set_label_list, scaling, y_bounds,
                     leg_loc)
Beispiel #2
0
    def testReadCSVData(self):
        input_file = "testing/tests/file_utilities/gold/test_data.csv"
        data = readCSVFile(input_file)

        self.assertTrue(data["header2"][1] == 5)
Beispiel #3
0
# USAGE: python plot.py <var>
#   <var>  Variable to plot
#

import argparse

from file_utilities import readCSVFile
from error_utilities import raiseException
from PlotterLine import PlotterLine

parser = argparse.ArgumentParser(description='Plots solutions')
parser.add_argument('variable', help='Variable to plot')
parsed = parser.parse_args()
variable = parsed.variable

data = readCSVFile("output.csv")

data_names = {
    "A": ("Area", "A"),
    "r": ("Density", "\\rho"),
    "u": ("Velocity", "u"),
    "p": ("Pressure", "p"),
    "T": ("Temperature", "T"),
    "a_liq": ("Liquid Volume Fraction", "\\alpha_\\ell"),
    "a_vap": ("Vapor Volume Fraction", "\\alpha_v"),
    "r_liq": ("Liquid Density", "\\rho_\\ell"),
    "r_vap": ("Vapor Density", "\\rho_v"),
    "u_liq": ("Liquid Velocity", "u_\\ell"),
    "u_vap": ("Vapor Velocity", "u_v"),
    "p_liq": ("Liquid Pressure", "p_\\ell"),
    "p_vap": ("Vapor Pressure", "p_v"),
Beispiel #4
0
#!/usr/bin/python

from file_utilities import readCSVFile
from PlotterLine import PlotterLine

solution = readCSVFile("output.csv")

u_plotter = PlotterLine("Position", "Velocity [m/s]")
u_plotter.addSet(solution["x"],
                 solution["u_liq"],
                 "$u_\\ell$",
                 color=4,
                 linetype=2)
u_plotter.addSet(solution["x"],
                 solution["u_vap"],
                 "$u_v$",
                 color=1,
                 linetype=2)
u_plotter.save("velocity.png")

p_plotter = PlotterLine("Position", "Pressure [MPa]")
p_plotter.addSet(solution["x"],
                 solution["p_liq"],
                 "$p_\\ell$",
                 color=4,
                 linetype=2,
                 scale=1e-6)
p_plotter.addSet(solution["x"],
                 solution["p_vap"],
                 "$p_v$",
                 color=1,
Beispiel #5
0
#!/usr/bin/python

import numpy as np

from file_utilities import readCSVFile
from PlotterLine import PlotterLine

exact = readCSVFile("exact.csv")
solution = readCSVFile("output.csv")

r_plotter = PlotterLine("Position", "Density")
r_plotter.addSet(exact["x"],
                 exact["r"],
                 "$\\rho_\\ell$, Exact",
                 color=4,
                 linetype=1)
r_plotter.addSet(exact["x"],
                 np.flip(exact["r"]),
                 "$\\rho_v$, Exact",
                 color=1,
                 linetype=1)
r_plotter.addSet(solution["x"],
                 solution["r_liq"],
                 "$\\rho_\\ell$, Computed",
                 color=4,
                 linetype=2)
r_plotter.addSet(solution["x"],
                 solution["r_vap"],
                 "$\\rho_v$, Computed",
                 color=1,
                 linetype=2)