def plot_it(self, ui=None, res_dir=None):
"""Orchestrate output plot generation"""
print_it("plotting results")
plt_profiles(res_dir)
print_it("plotting other", PrintOpts.lvl1.value)
plt_contact(self.pin, self.disk, PltOpts.DD.value, res_dir,
SubDir.contacts.value)
plt_contact(self.pin, self.disk, PltOpts.DDD.value, res_dir,
SubDir.contacts.value)
plt_3d(self.pin.x_axis, self.pin.y_axis, self.pin.press,
self.pin.x_label, self.pin.y_label, 'pressure in MPa',
'contact_pressure_pin', res_dir, SubDir.pressures.value,
'contact_pressure')
plt_2d(self.pin.x_axis, self.pin.rel_vel, self.pin.x_label, 'rel vel',
'rel vel', res_dir, SubDir.energy.value, 'rel_vel')
plt_2d(self.pin.x_axis, self.pv, self.pin.x_label,
'pv_rel in {}'.format(Unit.pvrel.value), 'pv_rel', res_dir,
SubDir.energy.value, 'pv_rel')
plt_2d_scatt_line(self.pin.x_axis, self.e_akin, self.pin.x_axis,
self.e_akin, self.pin.x_label,
'e_akin in W $m^{-2}$', 'e_akin', res_dir,
SubDir.energy.value, 'e_akin')
plt_2d_2y_ax(self.pin.x_axis, self.e_akin, self.pin.x_axis, self.pv,
self.pin.x_label, 'e_akin vs pv_rel',
'e_akin in {}'.format(Unit.eakin.value),
'pv_rel in {}'.format(Unit.eakin.value), res_dir,
SubDir.energy.value, 'e_akin_vs_pv_rel')
plt_cum_dist(self.pin.press, 'pressure in {}'.format(Unit.press.value),
res_dir, SubDir.pressures.value,
'cumulative pressure distribution')
def plot_it(self, ui=None, res_dir=None):
"""Orchestrate output plot generation"""
print_it("plotting results")
plt_profile(self.sun, PltOpts.DD.value, res_dir, SubDir.profiles.value)
plt_profile(self.sun, PltOpts.DDD.value, res_dir, SubDir.profiles.value)
plt_profile(self.planet, PltOpts.DD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.planet, PltOpts.DDD.value, res_dir,
SubDir.profiles.value)
plt_profile_approx(res_dir, SubDir.profiles.value)
plt_contact(self.sun, self.planet, PltOpts.DD.value, res_dir,
SubDir.contacts.value)
plt_contact(self.sun, self.planet, PltOpts.DDD.value, res_dir,
SubDir.contacts.value)
plt_3d(self.sun.x_axis, self.sun.y_axis, self.sun.press,
self.sun.x_label, self.sun.y_label, 'pressure in MPa',
'contact_pressure_sun', res_dir, SubDir.pressures.value,
'contact_pressure_sun')
plt_2d_scatt_line(self.sun.x_axis, self.pv, self.sun.x_axis, self.pv,
self.sun.x_label,
'pv_rel in {}'.format(Unit.pvrel.value), 'pv_rel',
res_dir, SubDir.energy.value, 'pv_rel')
plt_2d_scatt_line(self.sun.x_axis, self.sun.e_akin, self.sun.x_axis,
self.sun.e_akin, self.sun.x_label,
'e_akin in {}'.format(Unit.eakin.value), 'e_akin',
res_dir, SubDir.energy.value, 'sun.e_akin')
plt_2d_scatt_line(self.planet.x_axis, self.planet.e_akin,
self.planet.x_axis, self.planet.e_akin,
self.planet.x_label,
'e_akin in {}'.format(Unit.eakin.value), 'e_akin',
res_dir,
SubDir.energy.value, 'planet.e_akin')
plt_energy_ring_on_ring(self, res_dir, SubDir.energy.value,
'e-akin-vs-pv-rel')
def plot_it(self, ui=None, res_dir=None):
"""Orchestrate output plot generation"""
print_it("plotting results and finishing up")
plt_profile(self.ball, PltOpts.DD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.ball, PltOpts.DDD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.plate, PltOpts.DD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.plate, PltOpts.DDD.value, res_dir,
SubDir.profiles.value)
plt_profile_approx(res_dir, SubDir.profiles.value)
plt_contact(self.ball, self.plate, PltOpts.DD.value, res_dir,
SubDir.contacts.value)
plt_contact(self.ball, self.plate, PltOpts.DDD.value, res_dir,
SubDir.contacts.value)
plt_3d(self.ball.x_axis, self.ball.y_axis, self.ball.press,
self.ball.x_label, self.ball.y_label, 'pressure in MPa',
'contact pressure', res_dir, SubDir.pressures.value,
'contact-pressure')
plt_2d(self.ball.x_axis, self.pv, self.ball.x_label,
'pv_rel in {}'.format(Unit.pvrel.value), 'pv_rel', res_dir,
SubDir.energy.value, 'pv_rel')
plt_2d_scatt_line(self.ball.x_axis, self.e_akin, self.ball.x_axis,
self.e_akin, self.ball.x_label,
'e_akin in {}'.format(Unit.eakin.value), 'e_akin',
res_dir, SubDir.energy.value, 'e_akin')
plt_2d_2y_ax(self.ball.x_axis, self.e_akin, self.ball.x_axis, self.pv,
self.ball.x_label, 'e_akin vs pv_rel',
'e_akin in {}'.format(Unit.eakin.value),
'pv_rel in {}'.format(Unit.pvrel.value), res_dir,
SubDir.energy.value, 'e_akin_vs_pv_rel')
def plt_eakin(self, res_dir):
"""Plot kinetic friction energy accumulation"""
print_it("plotting energy figures", PrintOpts.lvl1.value)
# e_a,kin
plt_ax_pol = np.linspace(-math.pi,
math.pi - 2 * math.pi / self.res_pol,
int(self.res_pol))
if self.rot_vel1 == 0:
plot_data = np.concatenate(
(self.ring1.e_akin.transpose()[round(self.res_pol / 2) -
1:-1, :],
self.ring1.e_akin.transpose()[0:round(self.res_pol / 2), :]),
axis=0)
plt_3d(plt_ax_pol, self.roller.x_axis, plot_data,
'polar ring coordinate', 'roller length in mm',
'e_a,kin in {}'.format(Unit.eakin.value),
'e_a,kin inner ring', res_dir, SubDir.energy.value,
'e-a-kin-inner-ring', None, PltOpts.azim.value)
polplt_line(plt_ax_pol,
plot_data[:, round(self.roller.res_x / 2) - 1],
'e_a,kin_rel max in {}'.format(Unit.eakin.value),
'e_a,kin max inner ring', res_dir, SubDir.energy.value,
'max-e-a-kin-inner-ring')
else:
plt_2d_scatt_line(self.roller.x_axis, self.ring1.e_akin,
self.roller.x_axis, self.ring1.e_akin,
self.roller.x_label,
'average e_a,kin in {}'.format(Unit.eakin.value),
'average e_a,kin inner ring', res_dir,
SubDir.energy.value,
'average-e-a-kin-inner-ring')
if self.rot_vel2 == 0:
plot_data = np.concatenate(
(self.ring2.e_akin.transpose()[round(self.res_pol / 2) -
1:-1, :],
self.ring2.e_akin.transpose()[0:round(self.res_pol / 2), :]),
axis=0)
plt_3d(plt_ax_pol, self.roller.x_axis, plot_data,
'polar ring coordinate', 'roller length in mm',
'e_a,kin in {}'.format(Unit.eakin.value),
'e_a,kin outer ring', res_dir, SubDir.energy.value,
'e-a-kin-outer-ring', None, PltOpts.azim.value)
polplt_line(plt_ax_pol,
plot_data[:, round(self.roller.res_x / 2) - 1],
'e_a,kin_rel max in {}'.format(Unit.eakin.value),
'e_a,kin max outer ring', res_dir, SubDir.energy.value,
'max-e-a-kin-outer-ring')
else:
plt_2d_scatt_line(self.roller.x_axis, self.ring2.e_akin,
self.roller.x_axis, self.ring2.e_akin,
self.roller.x_label,
'average e_a,kin in {}'.format(Unit.eakin.value),
'average e_a,kin outer ring', res_dir,
SubDir.energy.value,
'average-e-a-kin-outer-ring')
def generate_latex_figures(self, ui=None, res_dir=None):
"""Generate calculation-specific figures for LaTeX report"""
plt_contact(self.sun, self.planet, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact1')
plt_profile_approx(res_dir, SubDir.tex_figs.value)
plt_3d(self.sun.x_axis, self.sun.y_axis, self.sun.press,
self.sun.x_label, self.sun.y_label, 'pressure in MPa',
'contact_pressure_sun', res_dir, SubDir.tex_figs.value,
'pressure1')
plt_energy_ring_on_ring(self, res_dir, SubDir.tex_figs.value, 'energy1')
def generate_latex_figures(self, ui=None, res_dir=None):
"""Generate calculation-specific figures for LaTeX report"""
plt_profile_approx(res_dir, SubDir.tex_figs.value)
plt_contact(self.ball, self.plate, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact1')
plt_3d(self.ball.x_axis, self.ball.y_axis, self.ball.press,
self.ball.x_label, self.ball.y_label, 'pressure in MPa',
'contact pressure', res_dir, SubDir.tex_figs.value, 'pressure1')
plt_2d_2y_ax(self.ball.x_axis, self.e_akin, self.ball.x_axis, self.pv,
self.ball.x_label, 'e_akin vs pv_rel',
'e_akin in {}'.format(UnitTex.eakin.value),
'pv_rel in {}'.format(UnitTex.pvrel.value), res_dir,
SubDir.tex_figs.value, 'energy1')
def generate_latex_figures(self, ui=None, res_dir=None):
"""Generate calculation-specific figures for LaTeX report"""
plt_contact(self.pin, self.disk, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact1')
plt_profile_approx(res_dir, SubDir.tex_figs.value)
plt_3d(self.pin.x_axis, self.pin.y_axis, self.pin.press,
self.pin.x_label, self.pin.y_label, 'pressure in MPa',
'contact_pressure_pin', res_dir, SubDir.tex_figs.value,
'pressure1')
plt_2d_2y_ax(self.pin.x_axis, self.e_akin, self.pin.x_axis, self.pv,
self.pin.x_label, 'e_akin vs pv_rel',
'e_akin in W $\mathregular{m^{-2}}$',
'pv_rel in W $\mathregular{m^{-2}}$', res_dir,
SubDir.tex_figs.value, 'energy1')
def generate_latex_figures(self, ui=None, res_dir=None):
"""Generate calculation-specific figures for LaTeX report"""
plt_profile_approx(res_dir, SubDir.tex_figs.value)
plt_contact(self.roller, self.ring1, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact1')
plt_3d(self.roller.x_axis, self.roller.y_axis, self.ring1.press[:, :],
self.roller.x_label, self.roller.y_label,
'pressure in MPa', 'pressure at highest normal force', res_dir,
SubDir.tex_figs.value, 'pressure1')
plt_2d_scatt_line(self.roller.x_axis, self.roller.slip,
self.roller.x_axis, self.roller.slip,
self.roller.x_label, "roller slip in percent (0-1)",
"roller slip", res_dir,
SubDir.tex_figs.value, "slip1")
plt_2d_2y_ax(self.roller.x_axis, self.e_akin, self.roller.x_axis,
self.pv, self.roller.x_label, 'e_akin vs pv_rel',
'e_akin in {}'.format(Unit.eakin.value),
'pv_rel in {}'.format(Unit.pvrel.value), res_dir,
SubDir.tex_figs.value, 'energy1')
def generate_latex_figures(self, ui=None, res_dir=None):
"""Generate calculation-specific part of the LaTeX output file"""
plt_profile_approx(res_dir, SubDir.tex_figs.value)
plt_contact(self.ball, self.disk, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact1')
plt_3d(self.ball.x_axis, self.ball.y_axis, self.ball.press,
self.ball.x_label, self.ball.y_label,
'pressure in {}'.format(UnitTex.pressure.value),
'contact_pressure_ball', res_dir, SubDir.tex_figs.value,
'pressure1')
plt_2d_2y_ax(self.ball.x_axis, self.ball.e_akin, self.ball.x_axis,
self.pv, self.ball.x_label, 'e_akin vs pv_rel',
'e_akin in {}'.format(UnitTex.eakin.value),
'pv_rel in {}'.format(UnitTex.pvrel.value), res_dir,
SubDir.tex_figs.value, 'energy1')
plt_2d_2y_ax(self.disk.x_axis, self.disk.e_akin, self.disk.x_axis,
self.pv, self.disk.x_label, 'e_akin vs pv_rel',
'e_akin in {}'.format(UnitTex.eakin.value),
'pv_rel in {}'.format(UnitTex.pvrel.value), res_dir,
SubDir.tex_figs.value, 'energy2')
def plt_pv(self, res_dir):
"""Plot pv"""
plt_ax_pol = np.linspace(-math.pi,
math.pi - 2 * math.pi / self.res_pol,
int(self.res_pol))
plot_data_ring1 = np.concatenate(
(self.ring1.pv[round(self.res_pol / 2) - 1:-1, :],
self.ring2.pv[0:round(self.res_pol / 2), :]),
axis=0)
plot_data_ring2 = np.concatenate(
(self.ring2.pv[round(self.res_pol / 2) - 1:-1, :],
self.ring2.pv[0:round(self.res_pol / 2), :]),
axis=0)
plt_3d(plt_ax_pol, self.roller.x_axis, plot_data_ring1,
'polar ring coordinate', 'roller length in mm',
'pv in {}'.format(Unit.pvrel.value), 'pv inner ring', res_dir,
SubDir.energy.value, 'max_pv_inner_ring', None,
PltOpts.azim.value)
plt_3d(plt_ax_pol, self.roller.x_axis, plot_data_ring2,
'polar ring coordinate', 'roller length in mm',
'pv in {}'.format(Unit.pvrel.value), 'pv outer ring', res_dir,
SubDir.energy.value, 'pv_outer_ring', None, PltOpts.azim.value)
polplt_line_line(
plt_ax_pol, plot_data_ring1[:, round(self.roller.res_x / 2) - 1],
plt_ax_pol, plot_data_ring2[:, round(self.roller.res_x / 2) - 1],
'pv in {}'.format(Unit.pvrel.value),
'pv_rel inner (max) and outer ring', 'inner ring (max)',
'outer ring', res_dir, SubDir.energy.value, 'pv-rel-max')
scipy.io.savemat(
res_dir + '{}{}{}pv_rel_ring2.mat'.format(
os.sep, SubDir.matlab.value, os.sep),
dict(plot_axis_pol=plt_ax_pol,
plot_axis_x=self.roller.x_axis,
plot_data_pv_rel_ir_3d=plot_data_ring1,
plot_data_pv_rel_ir_2d=np.amax(plot_data_ring1, axis=1),
plot_data_pv_rel_or_3d=plot_data_ring2,
plot_data_pv_rel_or_2d=np.amax(plot_data_ring2, axis=1),
axis_pol=self.pol_ax,
axis_x=self.roller.x_axis,
data_pv_rel_or=self.ring2.pv))
def plt_pres(self, res_dir):
"""Generate contact pressure plots"""
print_it("plotting pressure distributions", PrintOpts.lvl1.value)
press_count = 0
z_limit = np.amax(
self.ring1.uniq_press[:, :, self.uniq_norm_forces.shape[0] - 1])
for uniq_norm_force in range(self.uniq_norm_forces.shape[0] - 1, -1,
-1):
plt_3d(self.roller.x_axis, self.roller.y_axis,
self.ring1.uniq_press[:, :, uniq_norm_force],
self.roller.x_label, self.roller.y_label, 'pressure in MPa',
('contact_pressure_ir_' + str(int(press_count))), res_dir,
SubDir.pressures.value,
('contact_pressure_ir_' + str(int(press_count))),
[0, z_limit])
plt_3d(self.roller.x_axis, self.roller.y_axis,
self.ring2.uniq_press[:, :, uniq_norm_force],
self.roller.x_label, self.roller.y_label, 'pressure in MPa',
('contact_pressure_or_' + str(int(press_count))), res_dir,
SubDir.pressures.value,
('contact_pressure_or_' + str(int(press_count))),
[0, z_limit])
press_count = print_progress(press_count,
self.uniq_norm_forces.shape[0])
def plot_it(self, ui=None, res_dir=None):
"""Orchestrate output plot generation"""
print_it("plotting results and finishing up")
plt_profile(self.rot_ball, PltOpts.DD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.rot_ball, PltOpts.DDD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.stat_ball, PltOpts.DD.value, res_dir,
SubDir.profiles.value)
plt_profile(self.stat_ball, PltOpts.DDD.value, res_dir,
SubDir.profiles.value)
plt_profile_approx(res_dir, SubDir.profiles.value)
plt_contact(self.rot_ball, self.stat_ball, PltOpts.DD.value, res_dir,
SubDir.contacts.value)
plt_contact(self.rot_ball, self.stat_ball, PltOpts.DDD.value, res_dir,
SubDir.contacts.value)
plt_3d(self.rot_ball.x_axis, self.rot_ball.y_axis, self.rot_ball.press,
self.rot_ball.x_label,
self.rot_ball.y_label, 'pressure in MPa', 'contact_pressure',
res_dir, SubDir.pressures.value,
'contact-pressure')
plt_2d_scatt_line(self.rot_ball.x_axis, self.pv, self.rot_ball.x_axis,
self.pv, self.rot_ball.x_label,
'pv_rel in W $\mathregular{m^{-2}}$', 'pv_rel',
res_dir, SubDir.energy.value,
'pv_rel')
plt_2d_scatt_line(self.stat_ball.x_axis, self.e_akin,
self.stat_ball.x_axis, self.e_akin,
self.stat_ball.x_label, 'a_akin in W $m^{-2}$',
'e_akin', res_dir,
SubDir.energy.value, 'e_akin')
plt_2d_2y_ax(self.stat_ball.x_axis, self.e_akin, self.stat_ball.x_axis,
self.pv, self.stat_ball.x_label,
'e_akin vs pv_rel', 'e_akin in W $\mathregular{m^{-2}}$',
'pv_rel in W $\mathregular{m^{-2}}$',
res_dir, SubDir.energy.value, 'e_akin_vs_pv_rel')
def generate_latex_figures(self, ui=None, res_dir=None):
"""Append system-specific output data to latex file"""
max_press_field_ring1 = self.ring1.press[:, :, 0, 0]
max_press_field_ring2 = self.ring2.press[:, :, 0, 0]
plt_profile_approx(res_dir, SubDir.tex_figs.value)
plt_contact(self.roller, self.ring1, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact1')
plt_contact(self.roller, self.ring2, PltOpts.DDD.value, res_dir,
SubDir.tex_figs.value, 'contact2')
polplt_scatt_line(self.pol_coords_slip, self.slip_data, self.pol_ax,
self.roller.slip, 'roller slip', 'roller slip',
res_dir, SubDir.tex_figs.value, 'slip1')
plt_3d(self.roller.x_axis, self.roller.y_axis, max_press_field_ring1,
self.roller.x_label, self.roller.y_label, 'Pressure in MPa',
'pressure at highest normal force', res_dir,
SubDir.tex_figs.value, 'pressure1')
plt_3d(self.roller.x_axis, self.roller.y_axis, max_press_field_ring2,
self.roller.x_label, self.roller.y_label, 'Pressure in MPa',
'pressure at highest normal force', res_dir,
SubDir.tex_figs.value, 'pressure2')
polplt_scatt_line(
np.append(self.phi_mat[0, :], self.phi_mat[0, 0]),
np.append(self.roller_norm_forces[0, :],
self.roller_norm_forces[0, 0]),
np.append(self.phi_mat[0, :], self.phi_mat[0, 0]),
np.append(self.roller_norm_forces[0, :],
self.roller_norm_forces[0, 0]), 'normal force in N',
'load distribution', res_dir, SubDir.tex_figs.value, 'load1')
plot_axis_pol = np.linspace(-math.pi,
math.pi - 2 * math.pi / self.res_pol,
int(self.res_pol))
plot_data_ring1 = np.concatenate(
(self.ring1.pv[round(self.res_pol / 2) - 1:-1, :],
self.ring2.pv[0:round(self.res_pol / 2), :]),
axis=0)
plot_data_ring2 = np.concatenate(
(self.ring2.pv[round(self.res_pol / 2) - 1:-1, :],
self.ring2.pv[0:round(self.res_pol / 2), :]),
axis=0)
polplt_line_line(
plot_axis_pol, plot_data_ring1[:,
round(self.roller.res_x / 2) - 1],
plot_axis_pol, plot_data_ring2[:,
round(self.roller.res_x / 2) - 1],
'pv in {}'.format(Unit.pvrel.value),
'pv_rel inner (max) and outer ring', 'inner ring (max)',
'outer ring', res_dir, SubDir.tex_figs.value, 'energy1')
if self.rot_vel1 == 0:
plot_data = np.concatenate(
(self.ring1.e_akin.transpose()[round(self.res_pol / 2) -
1:-1, :],
self.ring1.e_akin.transpose()[0:round(self.res_pol / 2), :]),
axis=0)
polplt_line(plot_axis_pol,
plot_data[:, round(self.roller.res_x / 2) - 1],
'e_a,kin_rel max in {}'.format(Unit.eakin.value),
'e_a,kin max inner ring', res_dir,
SubDir.tex_figs.value, 'energy2')
else:
plt_2d_scatt_line(self.roller.x_axis, self.ring1.e_akin,
self.roller.x_axis, self.ring1.e_akin,
self.roller.x_label,
'average e_a,kin in {}'.format(Unit.eakin.value),
'average e_a,kin inner ring', res_dir,
SubDir.tex_figs.value, 'energy2')
if self.rot_vel2 == 0:
plot_data = np.concatenate(
(self.ring2.e_akin.transpose()[round(self.res_pol / 2) -
1:-1, :],
self.ring2.e_akin.transpose()[0:round(self.res_pol / 2), :]),
axis=0)
polplt_line(plot_axis_pol,
plot_data[:, round(self.roller.res_x / 2) - 1],
'e_a,kin_rel max in {}'.format(Unit.eakin.value),
'e_a,kin max outer ring', res_dir,
SubDir.tex_figs.value, 'energy3')
else:
plt_2d_scatt_line(self.roller.x_axis, self.ring2.e_akin,
self.roller.x_axis, self.ring2.e_akin,
self.roller.x_label,
'average e_a,kin in {}'.format(Unit.eakin.value),
'average e_a,kin outer ring', res_dir,
SubDir.tex_figs.value, 'energy3')
def plt_pres(self, res_dir):
"""Plot contact pressure distribution"""
plt_3d(self.roller.x_axis, self.roller.y_axis, self.ring1.press,
self.roller.x_label, self.roller.y_label, 'pressure in MPa',
'contact pressure', res_dir, SubDir.pressures.value,
'contact-pressure')
