gamma_dot_vec = xvec[K + K_star:2 * K + K_star]
return gamma_vec, gamma_star_vec, gamma_dot_vec
################################################################################
if __name__ == '__main__':
import timeit
import read
import matplotlib.pyplot as plt
# # # select test case
fname = '../test/h5input/goland_mod_Nsurf02_M003_N004_a040.aero_state.h5'
haero = read.h5file(fname)
tsdata = haero.ts00000
# Static solver
Sta = Static(tsdata)
Sta.assemble_profiling()
Sta.assemble()
Sta.get_total_forces_gain()
# random input
Sta.u_ext = 1.0 + 0.30 * np.random.rand(3 * Sta.Kzeta)
Sta.zeta_dot = 0.2 + 0.10 * np.random.rand(3 * Sta.Kzeta)
Sta.zeta = 0.05 * (np.random.rand(3 * Sta.Kzeta) - 1.0)
Sta.solve()
Sta.reshape()
#savefold='./figs_plunge/k05/' # #filename='./res_plunge/k01/M16wk20cyc10' #savefold='./figs_plunge/k01/' # #ktarget=0.1*np.float(filename[14:16]) ##### Lift comparison #filename='./res_plunge/k02/M16wk20cyc10' #ktarget=0.25 filename = './res_plunge/k05/M40wk20cyc12' #### HF ktarget = 0.5 #filename='./res_plunge/k07/M16wk20cyc10' ####<----- HF launched #ktarget=0.75 S = read.h5file(filename).solver ################################################################################ # ### Analytical solution # ##### w0 = ktarget * S.Uabs / S.b H = .5 * np.max(S.THZeta[:, :, 1]) # Garrik - induced drag Cdv_an = an.garrick_drag_plunge(w0, H, S.chord, S.rho, S.Uabs, S.time) hv_an = -H * np.cos(w0 * S.time) dhv = w0 * H * np.sin(w0 * S.time) aeffv_an = np.arctan(-dhv / S.Uabs)
# stiffening factors
self.Kss = Kss
self.Krs = Krs
self.Csr = Csr
self.Crs = Crs
self.Crr = Crr
if __name__ == '__main__':
import read
import configobj
# select test case
fname = '/home/sm6110/git/uvlm3d/test/h5input/smith_Nsurf01M04N12wk10_a040.state.h5'
fname = '/home/sm6110/git/uvlm3d/test/h5input/smith_Nsurf02M04N12wk10_a040.state.h5'
hd = read.h5file(fname)
# read some setting
file_settings = fname[:-8] + 'solver.txt'
dict_config = configobj.ConfigObj(file_settings)
# add settings for linear solver
M, cref = 4., 1.
Uinf = 25.
dict_config['LinearUvlm'] = {
'dt': cref / M / Uinf,
'integr_order': 2,
'Uref': 1.
}
Sol = AeroElaDyn(tsaero=hd.tsaero00000,
string='something',
complex=2. + 3.j,
array_real=np.random.rand(3, 2, 4),
array_complex=np.random.rand(2, 3, 4) + 1.j * np.random.rand(2, 3, 4),
liststr=['a', 'list', 'of', 'strings'],
listnums=[1, 2, 3, 4.],
listcomplex=[1., 3, 2. + 3.j],
listmix=[2., 4, 'lala', 3. + 1.j],
listmix_sub=[2., 3, ['lala', 2], 3.j],
listmat=[[1, 200], [1.j, 3]],
listnotmat=[1, [1, 3]] # not supported
)
Set.Sub.drop(float=3.4,
integer=1,
string='something',
complex=2. + 3.j,
liststr=['a', 'list', 'of', 'strings'],
ndarray=np.random.rand(3, 2, 4))
print('saving...')
h5file('.', 'testfile.h5', *(Set, ))
# adding to h5 file
Set = Output('mainset')
Set.drop(newitem=3, newitem2=[2, 4, 6])
h5file('.', 'testfile.h5', *(Set, ))
import read
h = read.h5file('./testfile.h5')
embed()
