def test_translate_results_to_query():
"""Make sure that conversion of HEK results to VSO queries is accurate"""
h = hek.HEKClient()
h2v = hek2vso.H2VClient()
hek_query = h.query(hekTime, hekEvent)
vso_query = hek2vso.translate_results_to_query(hek_query)
if isinstance(hek_query, list):
# Comparing length of two lists
assert len(hek_query) == len(vso_query)
#Comparing types of both queries
assert type(hek_query) == type(vso_query)
def test_vso_attribute_parse():
"""Make sure that Parsing of VSO attributes from HEK queries is accurate"""
h = hek.HEKClient()
h2v = hek2vso.H2VClient()
hek_query = h.query(hekTime, hekEvent)
vso_query = hek2vso.vso_attribute_parse(hek_query[0])
# Cheking Time
# TODO
# Checking Observatory
assert vso_query[1].value == hek_query[0]['obs_observatory']
# Checking Instrument
assert vso_query[2].value == hek_query[0]['obs_instrument']
# Checking Wavelength
assert vso_query[3].min == hek2vso.wave_unit_catcher(
hek_query[0]['obs_meanwavel'], hek_query[0]['obs_wavelunit'])
assert vso_query[3].max == hek2vso.wave_unit_catcher(
hek_query[0]['obs_meanwavel'], hek_query[0]['obs_wavelunit'])
assert vso_query[3].unit == 'Angstrom'
from sunpy.net import hek2vso h2v = hek2vso.H2VClient() vso_results = h2v.translate_and_query(result[0]) h2v.vso_client.get(vso_results[0]).wait()
def h2v_client():
return hek2vso.H2VClient()
