def writeTxt(plt_cfg, part1, part2, o_name, ymd, dict_cabr, DayOrNight, isMonthly):
'''
生成abr文件
ymd: YYYYMMDD or YYYYMM
'''
if len(ymd) == 6:
ymd = ymd + '01'
if isMonthly:
FileName = os.path.join(ABR_DIR, '%s_%s' % (part1, part2), '%s_%s_%s_%s_Monthly.txt' % (part1, part2, o_name, DayOrNight))
else:
FileName = os.path.join(ABR_DIR, '%s_%s' % (part1, part2), '%s_%s_%s_%s_%s.txt' % (part1, part2, o_name, DayOrNight, ymd[:4]))
title_line = 'YMD '
newline = ''
for chan in plt_cfg['chan']:
title_line = title_line + ' Count(%s) Slope(%s) Intercept(%s) RSquared(%s)' % (chan, chan, chan, chan)
newline = newline + ' %10d %-10.6f %-10.6f %-10.6f' % (tuple(dict_cabr[o_name][chan]))
newline = newline + '\n' # don't forget to end with \n
allLines = []
titleLines = []
DICT_TXT = {}
pb_io.make_sure_path_exists(os.path.dirname(FileName))
# 写十行头信息
titleLines.append('Sat1: %s\n' % part1)
titleLines.append('Sat2: %s\n' % part2)
if isMonthly:
titleLines.append('TimeRange: since launch\n')
titleLines.append(' Monthly\n')
else:
titleLines.append('TimeRange: %s\n' % ymd[:4])
titleLines.append(' Daily\n')
titleLines.append('Day or Night: %s\n' % DayOrNight)
titleLines.append('Calc time : %s\n' % get_local_time().strftime('%Y.%m.%d %H:%M:%S'))
titleLines.append('\n')
titleLines.append('\n')
titleLines.append(title_line + '\n')
titleLines.append('-' * len(title_line) + '\n')
#
if os.path.isfile(FileName) and os.path.getsize(FileName) != 0:
fp = open(FileName, 'r')
for i in xrange(10):
fp.readline() # 跳过头十行
Lines = fp.readlines()
fp.close()
# 使用字典特性，保证时间唯一，读取数据
for Line in Lines:
DICT_TXT[Line[:8]] = Line[8:]
# 添加或更改数据
DICT_TXT[ymd] = newline
# 按照时间排序
newLines = sorted(DICT_TXT.iteritems(), key=lambda d:d[0], reverse=False)
for i in xrange(len(newLines)):
allLines.append(str(newLines[i][0]) + str(newLines[i][1]))
else:
allLines.append(ymd + newline)
fp = open(FileName, 'w')
fp.writelines(titleLines)
fp.writelines(allLines)
fp.close()
def runLEO_LEO_SNOX(s1, s2, sat_dist, timeGap, outPath, Log, day_counts=1):
'''
极轨对极轨 交叉点计算
'''
zangle = 180 # 天顶角阈值 80改为180 2018/6/15
drew_points = []
output_list = []
for day_num in range(0, day_counts):
ymd = ymd_plus(s1.ymd, day_num)
s1.get_orbit(ymd)
if s1.error:
continue
s2.get_orbit(ymd)
if s2.error:
continue
if len(s1.orbit) == 0 or len(s2.orbit) == 0:
continue
s1.divide_by_lat0()
s2.divide_by_lat0()
day_list = [] # 输出用
for i in xrange(len(s1.divide)):
index1 = s1.divide[i]
for j in xrange(len(s2.divide)):
index2 = s2.divide[j]
timeDiff = index2 - index1
if abs(timeDiff) > timeGap * 60:
continue
dist = distance_GreatCircle(s1.orbit['Lat'][index1],
s1.orbit['Lon'][index1],
s2.orbit['Lat'][index2],
s2.orbit['Lon'][index2])
if dist > sat_dist:
continue
# TODO: 只保留太阳天顶角<80°的点（白天)
yy, mm, dd = s1.orbit['date'][index1].split(".")
hh = int(s1.orbit['time'][index1][0:2])
sz = solar_zen(yy, mm, dd, hh, s1.orbit['Lon'][index1],
s1.orbit['Lat'][index1])
if sz > zangle:
continue
day_list.append([
s1.orbit['date'][index1].replace('.', ''),
s1.orbit['time'][index1][0:8], s1.orbit['Lat'][index1],
s1.orbit['Lon'][index1], s2.orbit['time'][index2][0:8],
s2.orbit['Lat'][index2], s2.orbit['Lon'][index2], dist,
timeDiff
])
# 画图所需信息
st = max(index1 - 240, 0)
et = min(index1 + 80, len(s1.orbit['Lon']))
trails1 = [s1.orbit['Lon'][st:et], s1.orbit['Lat'][st:et]]
st = max(index2 - 240, 0)
et = min(index2 + 80, len(s2.orbit['Lon']))
trails2 = [s2.orbit['Lon'][st:et], s2.orbit['Lat'][st:et]]
drew_points.append(
(s1.orbit['Lon'][index1], s1.orbit['Lat'][index1],
s2.orbit['Lon'][index2], s2.orbit['Lat'][index2], trails1,
trails2))
output_list.extend(day_list)
# -----------------------
if len(output_list) == 0:
Log.info('No SNOX!')
return
wout_fig_file = outPath.replace('.txt', '_worldmap.png')
ymd_s = ymd2y_m_d(s1.ymd)
# 画交叉点图像
if len(drew_points) > 0:
draw_world(s1.sat, s2.sat, ymd_s, ymd2y_m_d(ymd), drew_points,
wout_fig_file)
folder = os.path.dirname(outPath)
if not os.path.isdir(folder):
os.makedirs(folder)
# 输出交叉点文件
fid_Result = open(outPath, 'w')
# 写十行信息
fid_Result.write('Sat1: %s \n' % (s1.sat))
fid_Result.write('Sat2: %s \n' % (s2.sat))
if ymd_s == ymd:
fid_Result.write('Time: %s \n' % ymd_s)
else:
fid_Result.write('Time: %s-%s \n' % (ymd_s, ymd))
fid_Result.write('Time Gap MAX = %d min\n' % timeGap)
fid_Result.write('Dist MAX = %d (km)\n' % sat_dist)
fid_Result.write('Solar Zenith MAX = %s (deg)\n' % str(zangle))
fid_Result.write('Calc time : %s \n' %
get_local_time().strftime('%Y.%m.%d %H:%M:%S'))
fid_Result.write('\n')
title_line = 'YMD HMS(%s) Lat,Lon(%s) HMS(%s) Lat,Lon(%s) Distance(km) Time_Diff(sec)\n' % \
(s1.sat, s1.sat, s2.sat, s2.sat)
fid_Result.write(title_line)
fid_Result.write('-' * len(title_line) + '\n')
for eachline in output_list:
fid_Result.write(
'%s %s %6.2f %-7.2f %s %6.2f %-7.2f %7.2f %4d\n'
% tuple(eachline))
fid_Result.close()
s1.clear()
Log.info('Success')
def runGEO_LEO(s1, s2, sat_dist, outPath, Log):
'''
# 和过区域算法一样
s1 : Sat_Orbit的实例 LEO
s2 : Sat_Orbit的实例 GEO
latlonInfo: list,区域上下左右4个经纬度
outPath： 输出全路径
'''
s1.get_orbit(s1.ymd) # 只计算一天
if s1.error:
return
s2.get_orbit(s1.ymd)
if s2.error:
return
lat0 = s2.orbit['Lat'][0]
lon0 = s2.orbit['Lon'][0]
latlonInfo = [
lat0 + sat_dist, lat0 - sat_dist, lon0 - sat_dist, lon0 + sat_dist
]
s1.setArea(latlonInfo)
if s1.error:
return
s1.divide_by_lat_lon() # 轨迹分段
index_list = []
index_pair = []
for j in s1.divide:
if j <= 5:
continue
if j >= len(s1.orbit['Lon']) - 6:
continue
j1 = j - 5
j2 = j + 5
# 入区域
if (s1.lonW <= s1.orbit['Lon'][j2] <= s1.lonE
and s1.latS <= s1.orbit['Lat'][j2] <= s1.latN and
(s1.lonE < s1.orbit['Lon'][j1] or s1.orbit['Lon'][j1] < s1.lonW or
s1.latN < s1.orbit['Lat'][j1] or s1.orbit['Lat'][j1] < s1.latN)):
index_pair = []
index_pair.append(j)
# 出区域
elif (s1.lonW <= s1.orbit['Lon'][j1] <= s1.lonE
and s1.latS <= s1.orbit['Lat'][j1] <= s1.latN and
(s1.lonE < s1.orbit['Lon'][j2] or s1.orbit['Lon'][j2] < s1.lonW
or s1.latN < s1.orbit['Lat'][j2]
or s1.orbit['Lat'][j2] < s1.latN)):
index_pair.append(j)
if len(index_pair) == 2:
index_list.append(index_pair)
index_pair = []
if len(index_list) == 0:
Log.info('Not Passing Area!')
return
# 画图 sat2(GEO) 在前
out_fig = outPath.replace('.txt', '_worldmap.png')
drew_points = []
for i1, i2 in index_list:
trails1 = [s1.orbit['Lon'][i1:i2], s1.orbit['Lat'][i1:i2]]
trails2 = [None, None]
drew_points.append((None, None, None, None, trails2, trails1))
if len(drew_points) > 0:
drew_points.append((lon0, lat0, None, None, [None, None], [None,
None]))
if len(drew_points) > 0:
draw_china(s2.sat, s1.sat, ymd2y_m_d(s1.ymd), ymd2y_m_d(s1.ymd),
drew_points, out_fig)
folder = os.path.dirname(outPath)
if not os.path.isdir(folder):
os.makedirs(folder)
fp = open(outPath, 'w')
# 写十行信息
fp.write(u'GEO: %s (星下点 lat = %.2f, lon = %.2f)\n' %
(s2.sat, lat0, lon0))
fp.write('LEO: %s\n' % s1.sat)
fp.write('Time: %s\n' % ymd2y_m_d(s1.ymd))
fp.write('latlonInfo: Square side 1/2 = %s (degree)\n' % sat_dist)
fp.write(' lat N: %.4f lat S: %.4f\n' % (s1.latN, s1.latS))
fp.write(' lon W: %.4f lon E: %.4f\n' % (s1.lonW, s1.lonE))
fp.write('Calc time : %s \n' %
get_local_time().strftime('%Y.%m.%d %H:%M:%S'))
fp.write('\n')
title_line = 'YMD HMS(start) HMS(end) Lat,Lon(start) Lat,Lon(end)\n'
fp.write(title_line)
fp.write('-' * len(title_line) + '\n')
#
for eachPair in index_list:
i1, i2 = eachPair
fp.write('%s %s %s %6.2f %-7.2f %6.2f %-7.2f\n' %
(s1.ymd, s1.orbit['time'][i1][0:8], s1.orbit['time'][i2][0:8],
s1.orbit['Lat'][i1], s1.orbit['Lon'][i1],
s1.orbit['Lat'][i2], s1.orbit['Lon'][i2]))
fp.close()
# clean
s1.clear()
Log.info('Success')
def runLEO_LEO(s1,
s2,
sat_dist,
timeGap_high,
timeGap_low,
outPath,
Log,
day_counts=1):
'''
极轨对极轨 交叉点计算
'''
drew_points = []
output_list = []
for day_num in range(0, day_counts):
ymd = ymd_plus(s1.ymd, day_num)
s1.get_orbit(ymd)
if s1.error:
continue
s2.get_orbit(ymd)
if s2.error:
continue
if len(s1.orbit) == 0 or len(s2.orbit) == 0:
continue
s1.divide_orbit()
s2.divide_orbit()
day_list = [] # 输出用
# day_points = [] # 画图用
for i in xrange(len(s1.divide)):
if i == 0:
continue
ii_s = s1.divide[i - 1]
ii_e = s1.divide[i]
if abs(ii_e - ii_s) < 2:
continue
line1 = LineString(
zip(s1.orbit['Lon'][ii_s:ii_e], s1.orbit['Lat'][ii_s:ii_e]))
for j in xrange(len(s2.divide)):
if j == 0:
continue
jj_s = s2.divide[j - 1]
jj_e = s2.divide[j]
if abs(jj_e - jj_s) < 2:
continue
if abs(ii_s + ii_e - jj_s -
jj_e) > timeGap_low * 60 * 2 * 4: # 中间点4倍时间范围粗筛
continue
line2 = LineString(
zip(s2.orbit['Lon'][jj_s:jj_e],
s2.orbit['Lat'][jj_s:jj_e]))
inters = line1.intersection(line2)
if inters.geom_type == 'Point':
pass
elif inters.geom_type == 'MultiPoint':
inters = np.array(inters)
if (np.abs(np.diff(inters[:, 0])) < 1.).all() and \
(np.abs(np.diff(inters[:, 1])) < 1.).all():
inters = [np.mean(inters[:, 0]), np.mean(inters[:, 1])]
else:
continue
else:
continue
inters = np.array(inters) # 转成array
if len(inters) > 0:
index1 = ii_s + \
getIndex(s1.orbit['Lon'][ii_s:ii_e], inters[0])
index2 = jj_s + \
getIndex(s2.orbit['Lon'][jj_s:jj_e], inters[0])
timeDiff = index2 - index1
if abs(timeDiff) <= timeGap_low * 60:
# 60度以上高纬 timeGap过滤
if abs(s1.orbit['Lat'][index1]) > 60. and \
abs(timeDiff) > timeGap_high * 60:
continue
dd = distance_GreatCircle(s1.orbit['Lat'][index1],
s1.orbit['Lon'][index1],
s2.orbit['Lat'][index2],
s2.orbit['Lon'][index2])
if dd > sat_dist:
continue
day_list.append([
s1.orbit['date'][index1].replace('.', ''),
s1.orbit['time'][index1][0:8],
s1.orbit['Lat'][index1], s1.orbit['Lon'][index1],
s2.orbit['time'][index2][0:8],
s2.orbit['Lat'][index2], s2.orbit['Lon'][index2],
dd, timeDiff
])
# 画图所需信息
st = max(index1 - 240, 0)
et = min(index1 + 80, len(s1.orbit['Lon']))
trails1 = [
s1.orbit['Lon'][st:et], s1.orbit['Lat'][st:et]
]
st = max(index2 - 240, 0)
et = min(index2 + 80, len(s2.orbit['Lon']))
trails2 = [
s2.orbit['Lon'][st:et], s2.orbit['Lat'][st:et]
]
drew_points.append(
(s1.orbit['Lon'][index1], s1.orbit['Lat'][index1],
s2.orbit['Lon'][index2], s2.orbit['Lat'][index2],
trails1, trails2))
# ------- 交叉点多 隔3个 取一个 --------
output_list.extend(day_list[::3])
# drew_points.extend(day_points[::3])
# -----------------------
if len(output_list) == 0:
# 20160708 黄叶建huangyj modify
Log.info('No SNO!')
return
pout_fig_file = outPath.replace('.txt', '_polarmap.png')
wout_fig_file = outPath.replace('.txt', '_worldmap.png')
ymd_s = ymd2y_m_d(s1.ymd)
# 画交叉点图像
if len(drew_points) > 0:
draw_polar(s1.sat, s2.sat, ymd_s, ymd2y_m_d(ymd), drew_points,
pout_fig_file)
draw_world(s1.sat, s2.sat, ymd_s, ymd2y_m_d(ymd), drew_points,
wout_fig_file)
folder = os.path.dirname(outPath)
if not os.path.isdir(folder):
os.makedirs(folder)
# 输出交叉点文件
fid_Result = open(outPath, 'w')
fid_Result.write('Sat1: %s \n' % (s1.sat))
fid_Result.write('Sat2: %s \n' % (s2.sat))
if ymd_s == ymd:
fid_Result.write('Time: %s \n' % ymd_s)
else:
fid_Result.write('Time: %s-%s \n' % (ymd_s, ymd))
fid_Result.write('When |lat|<=60: Time Gap MAX = %d min\n' % timeGap_low)
fid_Result.write('When |lat|>60: Time Gap MAX = %d min\n' % timeGap_high)
fid_Result.write('Dist MAX = %d (km)\n' % sat_dist)
fid_Result.write('Calc time : %s \n' %
get_local_time().strftime('%Y.%m.%d %H:%M:%S'))
fid_Result.write('\n')
title_line = 'YMD HMS(%s) Lat,Lon(%s) HMS(%s) Lat,Lon(%s) Distance(km) Time_Diff(sec)\n' % \
(s1.sat, s1.sat, s2.sat, s2.sat)
fid_Result.write(title_line)
fid_Result.write('-' * len(title_line) + '\n')
for eachline in output_list:
fid_Result.write(
'%s %s %6.2f %-7.2f %s %6.2f %-7.2f %7.2f %4d\n'
% tuple(eachline))
fid_Result.close()
s1.clear()
Log.info('Success')
def runSatPassingFixedPoint(s1,
fix_list,
fix_dist,
outPath,
FIX_DICT,
Log,
day_counts=1):
'''
s1 : Sat_Orbit的实例
fix_list: 固定点组名list
fix_dist: 距离阈值
outPath： 输出txt全路径
day_counts： 算几天
'''
out_fig = outPath.replace('.txt', '.png')
fixDict = {}
drew_points = []
output_list = []
# 去重
for fix_group in fix_list: # 循环不同组
for fix_point in FIX_DICT[fix_group].keys(): # 循环每个组中的键
if fix_point not in fixDict.keys(): # 如果键不存在字典中，则将该键和键值进行存入
fixDict[fix_point] = FIX_DICT[fix_group][fix_point]
for fix_point in fixDict.keys():
fixed_lon, fixed_lat = [float(e)
for e in fixDict[fix_point]] # 提取站点的经度和维度
# log.debug('%s and %s of %s' % (fixed_point[0], sat2, date))
for day_num in range(0, day_counts):
ymd = ymd_plus(s1.ymd, day_num) # 将进行进行进行往后推
s1.get_orbit(ymd)
if s1.error:
continue
if len(s1.orbit) == 0:
continue
l = len(s1.orbit)
lat_fixed_array = np.array([fixed_lat] * l)
lon_fixed_array = np.array([fixed_lon] * l)
with warnings.catch_warnings():
warnings.simplefilter("ignore") # Suppressing RuntimeWarning
deltaDist_list = distance_GreatCircle_np(
lat_fixed_array, lon_fixed_array, s1.orbit['Lat'],
s1.orbit['Lon'])
y_growth_flips = np.where(
np.diff(np.diff(deltaDist_list) > 0))[0] + 1
i_old = 0
cross_list = []
for i in y_growth_flips:
if (deltaDist_list[i] < fix_dist and (i - i_old > 10)
and # 去掉间隔秒数在10秒以内的点
(deltaDist_list[i] - deltaDist_list[i_old] < 0)):
# 每行2个元素：index, deltaDist_list
cross_list.append((i, deltaDist_list[i]))
i_old = i
# 排序 按deltaDist从小到大
cross_list.sort(cmp_byDeltaDist)
if (len(cross_list) == 0):
continue
j = 0
for each in cross_list:
cross_index = each[0]
# TODO:过滤夜晚数据 -------------------
# 以太阳天顶角 大于85度作为夜晚的判断。
# 用这种方法，'Greenland' 'Dome_C'就不需要特别考虑极夜极昼了
ymd_sol = s1.orbit['date'][cross_index]
yy = int(ymd_sol[:4])
mm = int(ymd_sol[5:7])
dd = int(ymd_sol[8:10])
hh = int(s1.orbit['time'][cross_index][0:2])
if solar_zen(yy, mm, dd, hh, s1.orbit['Lon'][cross_index],
s1.orbit['Lat'][cross_index]) >= 85.:
continue
# ------------------------------
output_list.append([
s1.orbit['date'][cross_index].replace('.', ''),
s1.orbit['time'][cross_index][0:8], fix_point, fixed_lat,
fixed_lon, s1.orbit['Lat'][cross_index],
s1.orbit['Lon'][cross_index], deltaDist_list[cross_index]
])
# 保留画图信息
st = max(cross_index - 240, 0)
et = min(cross_index + 80, len(s1.orbit['Lon']))
drew_points.append(
(fixed_lon, fixed_lat, s1.orbit['Lon'][cross_index],
s1.orbit['Lat'][cross_index], [None, None],
[s1.orbit['Lon'][st:et], s1.orbit['Lat'][st:et]]))
j = j + 1
if fix_point in ['Greenland', 'Dome_C']:
pass # 冰雪目标全部保留
elif j >= 1: # 其他目标只保留最近点
break
if (len(output_list) == 0):
Log.info('No SNO!')
return
# 排序
output_list.sort(cmp_col0_col1)
ymd_s = ymd2y_m_d(s1.ymd)
# 画图
if len(drew_points) > 0:
draw_fixed(s1.sat, ymd_s, ymd2y_m_d(ymd), drew_points, out_fig)
folder = os.path.dirname(outPath)
if not os.path.isdir(folder):
os.makedirs(folder)
# 写文件
fid_Result = open(outPath, 'w')
fid_Result.write('Sat: %s \n' % s1.sat)
if ymd_s == ymd:
fid_Result.write('Time: %s \n' % ymd_s)
else:
fid_Result.write('Time: %s-%s \n' % (ymd_s, ymd))
fid_Result.write('Dist MAX = %s (km) \n' % fix_dist)
fid_Result.write(u'Solar Zenith MAX = 85° \n')
fid_Result.write(u' 对于Greenland和Dome_C，保留所有符合阈值的每轨最近点\n')
fid_Result.write(u' 对于其它固定点，只保留符合阈值的全天最近点\n')
fid_Result.write('Calc time : %s \n' %
get_local_time().strftime('%Y.%m.%d %H:%M:%S'))
fid_Result.write('\n')
title_line = 'YMD HMS(%s) %-24s %-16s %-19s %s \n' % \
(s1.sat, 'Fixed_Point', 'Lat,Lon(Fixed)',
'Lat,Lon(%s)' % s1.sat, 'Distance(km)')
fid_Result.write(title_line)
fid_Result.write('-' * len(title_line) + '\n')
for eachline in output_list:
fid_Result.write(
'%s %s %-24s %6.2f %-7.2f %6.2f %-7.2f %7.2f\n' %
tuple(eachline))
fid_Result.close()
# clean
s1.clear()
Log.info('Success')
def runSatPassingArea(s1, areaName, latlonInfo, outPath, Log):
'''
s1 : Sat_Orbit的实例
areaName: 区域名称
latlonInfo: list,区域上下左右4个经纬度
outPath： 输出全路径
'''
index_list = []
s1.get_orbit(s1.ymd) # 只计算一天
if s1.error:
return
s1.setArea(latlonInfo)
if s1.error:
return
latN, latS, lonW, lonE = latlonInfo
if latN == '90' and latS == '-90' and lonW == '-180' and lonE == '180':
index_list = [[0, len(s1.orbit) - 1]]
else:
s1.divide_by_lat_lon() # 轨迹分段
index_pair = []
for j in s1.divide:
if j <= 5:
continue
if j >= len(s1.orbit['Lon']) - 6:
continue
j1 = j - 5
j2 = j + 5
if latN == latS: # 极地情况
if latN >= 0: # 北半球
# 入区域
if (s1.lonW <= s1.orbit['Lon'][j2] <= s1.lonE
and s1.latN <= s1.orbit['Lat'][j2]
and (s1.lonE < s1.orbit['Lon'][j1]
or s1.orbit['Lon'][j1] < s1.lonW
or s1.latN > s1.orbit['Lat'][j1])):
index_pair = []
index_pair.append(j)
# 出区域
elif (s1.lonW <= s1.orbit['Lon'][j1] <= s1.lonE
and s1.latN <= s1.orbit['Lat'][j1]
and (s1.lonE < s1.orbit['Lon'][j2]
or s1.orbit['Lon'][j2] < s1.lonW
or s1.latN > s1.orbit['Lat'][j2])):
index_pair.append(j)
if len(index_pair) == 2:
index_list.append(index_pair)
index_pair = []
else: # 南半球
# 入区域
if (s1.lonW <= s1.orbit['Lon'][j2] <= s1.lonE
and s1.latN >= s1.orbit['Lat'][j2]
and (s1.lonE < s1.orbit['Lon'][j1]
or s1.orbit['Lon'][j1] < s1.lonW
or s1.latN < s1.orbit['Lat'][j1])):
index_pair = []
index_pair.append(j)
# 出区域
elif (s1.lonW <= s1.orbit['Lon'][j1] <= s1.lonE
and s1.latN >= s1.orbit['Lat'][j1]
and (s1.lonE < s1.orbit['Lon'][j2]
or s1.orbit['Lon'][j2] < s1.lonW
or s1.latN < s1.orbit['Lat'][j2])):
index_pair.append(j)
if len(index_pair) == 2:
index_list.append(index_pair)
index_pair = []
else:
# 入区域
if (s1.lonW <= s1.orbit['Lon'][j2] <= s1.lonE
and s1.latS <= s1.orbit['Lat'][j2] <= s1.latN
and (s1.lonE < s1.orbit['Lon'][j1]
or s1.orbit['Lon'][j1] < s1.lonW
or s1.latN < s1.orbit['Lat'][j1]
or s1.orbit['Lat'][j1] < s1.latN)):
index_pair = []
index_pair.append(j)
# 出区域
elif (s1.lonW <= s1.orbit['Lon'][j1] <= s1.lonE
and s1.latS <= s1.orbit['Lat'][j1] <= s1.latN
and (s1.lonE < s1.orbit['Lon'][j2]
or s1.orbit['Lon'][j2] < s1.lonW
or s1.latN < s1.orbit['Lat'][j2]
or s1.orbit['Lat'][j2] < s1.latN)):
index_pair.append(j)
if len(index_pair) == 2:
index_list.append(index_pair)
index_pair = []
if len(index_list) == 0:
Log.info('Not Passing Area!')
return
folder = os.path.dirname(outPath)
if not os.path.isdir(folder):
os.makedirs(folder)
fp = open(outPath, 'w')
# 写十行信息
fp.write('Sat: %s\n' % s1.sat)
fp.write('Area: %s\n' % areaName)
fp.write('Time: %s \n' % ymd2y_m_d(s1.ymd))
fp.write('latlonInfo:\n')
fp.write(' lat N: %.4f lat S: %.4f\n' % (s1.latN, s1.latS))
fp.write(' lon W: %.4f lon E: %.4f\n' % (s1.lonW, s1.lonE))
fp.write('Calc time : %s \n' %
get_local_time().strftime('%Y.%m.%d %H:%M:%S'))
fp.write('\n')
title_line = 'YMD HMS(start) HMS(end) Lat,Lon(start) Lat,Lon(end)\n'
fp.write(title_line)
fp.write('-' * len(title_line) + '\n')
#
for eachPair in index_list:
i1, i2 = eachPair
fp.write('%s %s %s %6.2f %-7.2f %6.2f %-7.2f\n' %
(s1.ymd, s1.orbit['time'][i1][0:8], s1.orbit['time'][i2][0:8],
s1.orbit['Lat'][i1], s1.orbit['Lon'][i1],
s1.orbit['Lat'][i2], s1.orbit['Lon'][i2]))
fp.close()
# clean
s1.clear()
Log.info('Success')