[Git][debian-gis-team/pysolid][upstream] New upstream version 0.2.2
Antonio Valentino (@antonio.valentino)
gitlab at salsa.debian.org
Sat Jul 23 09:51:34 BST 2022
Antonio Valentino pushed to branch upstream at Debian GIS Project / pysolid
Commits:
517a1d61 by Antonio Valentino at 2022-07-23T08:11:43+00:00
New upstream version 0.2.2
- - - - -
14 changed files:
- .circleci/config.yml
- .gitignore
- README.md
- + docs/logo.pptx
- environment.yml
- setup.py
- src/pysolid/__init__.py
- src/pysolid/point.py
- src/pysolid/solid.for
- src/pysolid/version.py
- + tests/grid.py
- + tests/point.py
- − tests/test_SET_grid.py
- − tests/test_SET_point.py
Changes:
=====================================
.circleci/config.yml
=====================================
@@ -63,5 +63,5 @@ jobs:
# setup environment variables
export PATH=${CONDA_PREFIX}/bin:${PATH}
# run tests
- python ${HOME}/tools/PySolid/tests/test_SET_point.py
- python ${HOME}/tools/PySolid/tests/test_SET_grid.py
+ python ${HOME}/tools/PySolid/tests/point.py
+ python ${HOME}/tools/PySolid/tests/grid.py
=====================================
.gitignore
=====================================
@@ -1,5 +1,5 @@
*.DS_Store
-tests/*.png
+tests/*/*.png
solid.txt
# Byte-compiled / optimized / DLL files
=====================================
README.md
=====================================
@@ -2,24 +2,30 @@
[](https://circleci.com/gh/insarlab/PySolid)
[](https://github.com/insarlab/PySolid/releases)
[](https://github.com/insarlab/PySolid/blob/main/LICENSE)
-[](https://nbviewer.jupyter.org/github/insarlab/PySolid/tree/main/docs)
+[](https://doi.org/10.1109/TGRS.2022.3168509)
## PySolid
-The Python based solid Earth tides (PySolid) is a thin Python wrapper of the [`solid.for`](http://geodesyworld.github.io/SOFTS/solid.htm) program (by Dennis Milbert based on [_dehanttideinelMJD.f_](https://iers-conventions.obspm.fr/content/chapter7/software/dehanttideinel/) from V. Dehant, S. Mathews, J. Gipson and C. Bruyninx) to calculate [solid Earth tides](https://en.wikipedia.org/wiki/Earth_tide) in east/north/up direction (section 7.1.1 in the [2010 IERS Conventions](https://www.iers.org/IERS/EN/Publications/TechnicalNotes/tn36.html)). Solid Earth tides introduces very long spatial wavelength range components in SAR/InSAR observations, as shown in the Sentinel-1 data with regular acquisitions and large swaths (Fattahi et al., 2020).
+The Python based solid Earth tides (PySolid) is a thin Python wrapper of the [`solid.for`](http://geodesyworld.github.io/SOFTS/solid.htm) program (by Dennis Milbert based on [_dehanttideinelMJD.f_](https://iers-conventions.obspm.fr/content/chapter7/software/dehanttideinel/) from V. Dehant, S. Mathews, J. Gipson and C. Bruyninx) to calculate [solid Earth tides](https://en.wikipedia.org/wiki/Earth_tide) in east/north/up direction (section 7.1.1 in the [2010 IERS Conventions](https://www.iers.org/IERS/EN/Publications/TechnicalNotes/tn36.html)). Solid Earth tides introduces very long spatial wavelength components in SAR/InSAR observations, as shown in the Sentinel-1 data with regular acquisitions and large swaths (Yunjun et al., 2022).
This is research code provided to you "as is" with NO WARRANTIES OF CORRECTNESS. Use at your own risk.
### 1. Install
-PySolid is available on the `conda-forge` channel and can be installed as below:
+PySolid is available on the [conda-forge](https://anaconda.org/conda-forge/pysolid) channel and the main archive of the [Debian](https://tracker.debian.org/pkg/pysolid) GNU/Linux OS. The released version can be install via `conda` as:
```shell
# run "conda update pysolid" to update the installed version
conda install -c conda-forge pysolid
```
-Installing from `conda-forge` channel is recomended because PySolid contains Fortran source code, which required compilcation. Otherwise, you may build it from source as described below.
+or via `apt` (or other package managers) for [Debian-derivative OS](https://wiki.debian.org/Derivatives/Census) users, including [Ubuntu](https://ubuntu.com), as:
+
+```shell
+apt install python3-pysolid
+```
+
+Installing via `conda` and `apt` is recomended because PySolid contains Fortran source code, which required compilcation. Otherwise, you may build it from source as described below.
#### 1.1 Build from source
@@ -65,11 +71,11 @@ To test the installation, run the following:
```bash
python -c "import pysolid; print(pysolid.__version__)"
-python PySolid/tests/test_SET_grid.py
-python PySolid/tests/test_SET_point.py
+python PySolid/tests/grid.py
+python PySolid/tests/point.py
```
-### 2. Example Usage
+### 2. Usage
PySolid could compute solid Earth tides in two modes: **point** and **grid**. Both modes produce displacement in east, north and up direction.
@@ -143,8 +149,7 @@ tide_los = ( tide_e * np.sin(inc_angle) * np.cos(head_angle) * -1
<img width="800" src="https://yunjunzhang.files.wordpress.com/2021/01/set_grid-3.png">
</p>
-### 3. References
+### 3. Citing this work
-+ Milbert, D. (2018), solid: Solid Earth Tide, Available: http://geodesyworld.github.io/SOFTS/solid.htm, Accessd on: 2020-09-06.
-+ Fattahi, H., Yunjun, Z., Pi, X., Agram, P.S., Rosen, P., and Aoki, Y. (2020), Absolute geolocation of SAR Big-Data: The first step for operational InSAR time-series analysis, _AGU Fall Meeting 2020_, 1-17 Dec 2020.
-+ Petit, G., and Luzum, B. (2010), [IERS Conventions (2010) (IERS Technical Note No. 36)](https://iers-conventions.obspm.fr/conventions_material.php) 179 pp., _International Earth Rotation And Reference Systems Service (IERS)_, Frankfurt, Germany. [[Code](https://iers-conventions.obspm.fr/chapter7.php)].
++ Yunjun, Z., Fattahi, H., Pi, X., Rosen, P., Simons, M., Agram, P., & Aoki, Y. (2022). Range Geolocation Accuracy of C-/L-band SAR and its Implications for Operational Stack Coregistration. _IEEE Trans. Geosci. Remote Sens., 60_, 1-19, doi:[10.1109/TGRS.2022.3168509](https://doi.org/10.1109/TGRS.2022.3168509), [arXiv](https://doi.org/10.31223/X5F641), [data](https://zenodo.org/record/6360749), [notebooks](https://github.com/yunjunz/2022-Geolocation).
++ Milbert, D. (2018), "solid: Solid Earth Tide", [Online]. Available: http://geodesyworld.github.io/SOFTS/solid.htm. Accessd on: 2020-09-06.
=====================================
docs/logo.pptx
=====================================
Binary files /dev/null and b/docs/logo.pptx differ
=====================================
environment.yml
=====================================
@@ -7,4 +7,4 @@ dependencies:
- scipy
- matplotlib
- scikit-image
- - fortran-compiler # A generic way to obtain the Fortran compiler through conda-forge channel
+ - fortran-compiler # A generic way to obtain the Fortran compiler across platforms through conda-forge channel
=====================================
setup.py
=====================================
@@ -20,21 +20,20 @@ setup(
version=version,
description="A Python wrapper for solid to compute solid Earth tides",
url="https://github.com/insarlab/PySolid",
+
author="Zhang Yunjun, Dennis Milbert",
author_email="yunjunzgeo at gmail.com",
+ license='GPL-3.0-or-later',
+ license_files=('LICENSE',),
+
classifiers=[
"Development Status :: 4 - Beta",
"Intended Audience :: Science/Research",
"Topic :: Scientific/Engineering",
"License :: OSI Approved :: GNU General Public License v3 (GPLv3)",
"Operating System :: OS Independent",
- "Programming Language :: Python",
"Programming Language :: Python :: 3",
- "Programming Language :: Python :: 3.6",
- "Programming Language :: Python :: 3.7",
- "Programming Language :: Python :: 3.8",
- "Programming Language :: Python :: 3.9",
],
keywords="solid Eartth tides, deformation, geodesy, geophysics",
=====================================
src/pysolid/__init__.py
=====================================
@@ -1,6 +1,14 @@
-from pysolid.grid import *
-from pysolid.point import *
-
# get version info
-from pysolid.version import *
-__version__ = release_version
+from pysolid.version import release_version as __version__
+
+# top-level functions
+from pysolid.grid import (
+ calc_solid_earth_tides_grid,
+ plot_solid_earth_tides_grid,
+)
+from pysolid.point import (
+ TIDES,
+ calc_solid_earth_tides_point,
+ plot_solid_earth_tides_point,
+ plot_power_spectral_density4tides,
+)
=====================================
src/pysolid/point.py
=====================================
@@ -28,53 +28,54 @@ except ImportError:
## Tidal constituents
-# https://en.wikipedia.org/wiki/Theory_of_tides#Tidal_constituents
+# https://en.wikipedia.org/wiki/Theory_of_tides#Tidal_constituents. Accessed on: 2022-03-07.
+# unit: period (hour), speed (deg per hour)
Tag = collections.namedtuple('Tag', 'species symbol period speed doodson_num noaa_order')
TIDES = (
# Semi-diurnal
- Tag('Principal lunar semidiurnal' , r'$M_2$' , 12.421, 28.984, 255.555, 1 ),
- Tag('Principal solar semidiurnal' , r'$S_2$' , 12.000, 30.000, 273.555, 2 ),
- Tag('Larger lunar elliptic semidiurnal' , r'$N_2$' , 12.658, 28.440, 245.655, 3 ),
- Tag('Larger lunar evectional' , r'$v_2$' , 12.626, 28.513, 247.455, 11),
- Tag('Variational' , r'$\mu_2$' , 12.872, 27.968, 237.555, 13),
- Tag('Lunar elliptical semidiurnal second-order', '2"N'+r'$_2$' , 12.905, 27.895, 235.755, 14),
- Tag('Smaller lunar evectional' , r'$\lambda_2$', 12.222, 29.456, 263.655, 16),
- Tag('Larger solar elliptic' , r'$T_2$' , 12.016, 29.959, 272.555, 27),
- Tag('Smaller solar elliptic' , r'$R_2$' , 11.984, 30.041, 274.555, 28),
- Tag('Shallow water semidiurnal' , r'$2SM_2$' , 11.607, 31.016, 291.555, 31),
- Tag('Smaller lunar elliptic semidiurnal' , r'$L_2$' , 12.192, 29.528, 265.455, 33),
- Tag('Lunisolar semidiurnal' , r'$K_2$' , 11.967, 30.082, 275.555, 35),
+ Tag('Principal lunar semidiurnal' , r'$M_2$' , 12.4206012 , 28.9841042, 255.555, 1 ),
+ Tag('Principal solar semidiurnal' , r'$S_2$' , 12.0 , 30.0 , 273.555, 2 ),
+ Tag('Larger lunar elliptic semidiurnal' , r'$N_2$' , 12.65834751, 28.4397295, 245.655, 3 ),
+ Tag('Larger lunar evectional' , r'$v_2$' , 12.62600509, 28.5125831, 247.455, 11),
+ Tag('Variational' , r'$\mu_2$' , 12.8717576 , 27.9682084, 237.555, 13),
+ Tag('Lunar elliptical semidiurnal second-order', '2"N'+r'$_2$' , 12.90537297, 27.8953548, 235.755, 14),
+ Tag('Smaller lunar evectional' , r'$\lambda_2$', 12.22177348, 29.4556253, 263.655, 16),
+ Tag('Larger solar elliptic' , r'$T_2$' , 12.01644934, 29.9589333, 272.555, 27),
+ Tag('Smaller solar elliptic' , r'$R_2$' , 11.98359564, 30.0410667, 274.555, 28),
+ Tag('Shallow water semidiurnal' , r'$2SM_2$' , 11.60695157, 31.0158958, 291.555, 31),
+ Tag('Smaller lunar elliptic semidiurnal' , r'$L_2$' , 12.19162085, 29.5284789, 265.455, 33),
+ Tag('Lunisolar semidiurnal' , r'$K_2$' , 11.96723606, 30.0821373, 275.555, 35),
# Diurnal
- Tag('Lunar diurnal' , r'$K_1$' , 23.934, 15.041, 165.555, 4 ),
- Tag('Lunar diurnal' , r'$O_1$' , 25.819, 13.943, 145.555, 6 ),
- Tag('Lunar diurnal' , r'$OO_1$', 22.306, 16.139, 185.555, 15),
- Tag('Solar diurnal' , r'$S_1$' , 24.000, 15.000, 164.555, 17),
- Tag('Smaller lunar elliptic diurnal' , r'$M_1$' , 24.841, 14.492, 155.555, 18),
- Tag('Smaller lunar elliptic diurnal' , r'$J_1$' , 23.098, 15.585, 175.455, 19),
- Tag('Larger lunar evectional diurnal', r'$\rho$', 26.723, 13.472, 137.455, 25),
- Tag('Larger lunar elliptic diurnal' , r'$Q_1$' , 26.868, 13.399, 135.655, 26),
- Tag('Larger elliptic diurnal' , r'$2Q_1$', 28.006, 12.854, 125.755, 29),
- Tag('Solar diurnal' , r'$P_1$' , 24.066, 14.959, 163.555, 30),
+ Tag('Lunar diurnal' , r'$K_1$' , 23.93447213, 15.0410686, 165.555, 4 ),
+ Tag('Lunar diurnal' , r'$O_1$' , 25.81933871, 13.9430356, 145.555, 6 ),
+ Tag('Lunar diurnal' , r'$OO_1$', 22.30608083, 16.1391017, 185.555, 15),
+ Tag('Solar diurnal' , r'$S_1$' , 24.0 , 15.0 , 164.555, 17),
+ Tag('Smaller lunar elliptic diurnal' , r'$M_1$' , 24.84120241, 14.4920521, 155.555, 18),
+ Tag('Smaller lunar elliptic diurnal' , r'$J_1$' , 23.09848146, 15.5854433, 175.455, 19),
+ Tag('Larger lunar evectional diurnal', r'$\rho$', 26.72305326, 13.4715145, 137.455, 25),
+ Tag('Larger lunar elliptic diurnal' , r'$Q_1$' , 26.868350 , 13.3986609, 135.655, 26),
+ Tag('Larger elliptic diurnal' , r'$2Q_1$', 28.00621204, 12.8542862, 125.755, 29),
+ Tag('Solar diurnal' , r'$P_1$' , 24.06588766, 14.9589314, 163.555, 30),
# Long period
- Tag('Lunar monthly' , r'$M_m$' , 661.311, 0.544, 65.455, 20), # period 27.555 days
- Tag('Solar semiannual' , r'$S_{sa}$', 4383.076, 0.082, 57.555, 21), # period 182.628 days
- Tag('Solar annual' , r'$S_a$' , 8766.153, 0.041, 56.555, 22), # period 365.256 days
- Tag('Lunisolar synodic fortnightly' , r'$MS_f$' , 354.367, 1.016, 73.555, 23), # period 14.765 days
- Tag('Lunisolar fortnightly' , r'$M_f$' , 327.860, 1.098, 75.555, 24), # period 13.661 days
+ Tag('Lunar monthly' , r'$M_m$' , 661.3111655, 0.5443747, 65.455, 20), # period 27.554631896 days
+ Tag('Solar semiannual' , r'$S_{sa}$', 4383.076325 , 0.0821373, 57.555, 21), # period 182.628180208 days
+ Tag('Solar annual' , r'$S_a$' , 8766.15265 , 0.0410686, 56.555, 22), # period 365.256360417 days
+ Tag('Lunisolar synodic fortnightly' , r'$MS_f$' , 354.3670666, 1.0158958, 73.555, 23), # period 14.765294442 days
+ Tag('Lunisolar fortnightly' , r'$M_f$' , 327.8599387, 1.0980331, 75.555, 24), # period 13.660830779 days
# Short period
- Tag('Shallow water overtides of principal lunar', r'$M_4$' , 6.210, 57.968, 455.555, 5 ),
- Tag('Shallow water overtides of principal lunar', r'$M_6$' , 4.140, 86.952, 655.555, 7 ),
- Tag('Shallow water terdiurnal' , r'$MK_3$' , 8.177, 44.025, 365.555, 8 ),
- Tag('Shallow water overtides of principal solar', r'$S_4$' , 6.000, 60.000, 491.555, 9 ),
- Tag('Shallow water quarter diurnal' , r'$MN_4$' , 6.269, 57.424, 445.655, 10),
- Tag('Shallow water overtides of principal solar', r'$S_6$' , 4.000, 90.000, np.NaN , 12),
- Tag('Lunar terdiurnal' , r'$M_3$' , 8.280, 43.476, 355.555, 32),
- Tag('Shallow water terdiurnal' , '2"MK'+r'$_3$', 8.386, 42.927, 345.555, 34),
- Tag('Shallow water eighth diurnal' , r'$M_8$' , 3.105, 115.936, 855.555, 36),
- Tag('Shallow water quarter diurnal' , r'$MS_4$' , 6.103, 58.984, 473.555, 37),
+ Tag('Shallow water overtides of principal lunar', r'$M_4$' , 6.210300601, 57.9682084, 455.555, 5 ),
+ Tag('Shallow water overtides of principal lunar', r'$M_6$' , 4.140200401, 86.9523127, 655.555, 7 ),
+ Tag('Shallow water terdiurnal' , r'$MK_3$' , 8.177140247, 44.0251729, 365.555, 8 ),
+ Tag('Shallow water overtides of principal solar', r'$S_4$' , 6.0 , 60.0 , 491.555, 9 ),
+ Tag('Shallow water quarter diurnal' , r'$MN_4$' , 6.269173724, 57.4238337, 445.655, 10),
+ Tag('Shallow water overtides of principal solar', r'$S_6$' , 4.0 , 90.0 , np.NaN , 12),
+ Tag('Lunar terdiurnal' , r'$M_3$' , 8.280400802, 43.4761563, 355.555, 32),
+ Tag('Shallow water terdiurnal' , '2"MK'+r'$_3$', 8.38630265 , 42.9271398, 345.555, 34),
+ Tag('Shallow water eighth diurnal' , r'$M_8$' , 3.105150301, 115.9364166, 855.555, 36),
+ Tag('Shallow water quarter diurnal' , r'$MS_4$' , 6.103339275, 58.9841042, 473.555, 37),
)
=====================================
src/pysolid/solid.for
=====================================
@@ -1549,13 +1549,9 @@
***** http://www.csgnetwork.com/julianmodifdateconv.html
implicit double precision(a-h,o-z)
- !*** upper limit, leap second table, 2021dec28
- !*** upper limit, leap second table, 2019jun30
- !*** upper limit, leap second table, 2018jun30
+ !*** upper limit, leap second table, 2022dec28
!*** lower limit, leap second table, 1972jan01
- parameter(MJDUPPER=59576)
-***** parameter(MJDUPPER=58664)
-***** parameter(MJDUPPER=58299)
+ parameter(MJDUPPER=59941)
parameter(MJDLOWER=41317)
!*** leap second table limit flag
@@ -1636,7 +1632,7 @@
***** other leap second references at:
***** http://hpiers.obspm.fr/eoppc/bul/bulc/Leap_Second_History.dat
***** http://hpiers.obspm.fr/eoppc/bul/bulc/bulletinc.dat
-***** File expires on 28 December 2021
+***** File expires on 28 December 2022
*** test against newest leaps first
=====================================
src/pysolid/version.py
=====================================
@@ -8,6 +8,7 @@ import collections
# release history
Tag = collections.namedtuple('Tag', 'version date')
release_history = (
+ Tag('0.2.2', '2022-07-20'),
Tag('0.2.1', '2022-01-05'),
Tag('0.2.0', '2021-11-10'),
Tag('0.1.2', '2021-02-24'),
=====================================
tests/grid.py
=====================================
@@ -0,0 +1,53 @@
+#!/usr/bin/env python3
+# Author: Zhang Yunjun, Jan 2021
+# Copyright 2020, by the California Institute of Technology.
+
+
+import os
+import sys
+import datetime as dt
+
+import pysolid
+
+
+if __name__ == '__main__':
+
+ # print the file/module path
+ print('-'*50)
+ print(os.path.abspath(__file__))
+
+ # prepare inputs
+ dt_obj = dt.datetime(2020, 12, 25, 14, 7, 44)
+ atr = {
+ 'LENGTH' : 400,
+ 'WIDTH' : 500,
+ 'X_FIRST' : -118.2,
+ 'Y_FIRST' : 33.8,
+ 'X_STEP' : 0.000833333,
+ 'Y_STEP' : -0.000833333,
+ }
+
+ # calculate
+ (tide_e,
+ tide_n,
+ tide_u) = pysolid.calc_solid_earth_tides_grid(dt_obj, atr, verbose=True)
+
+ # plot
+ out_dir = os.path.abspath(os.path.join(os.path.dirname(__file__), 'pic'))
+ os.makedirs(out_dir, exist_ok=True)
+
+ out_fig = os.path.join(out_dir, 'grid.png')
+ pysolid.plot_solid_earth_tides_grid(
+ tide_e, tide_n, tide_u, dt_obj,
+ out_fig=out_fig,
+ display=False)
+
+ # open the plotted figures
+ if sys.platform in ['linux']:
+ os.system(f'display {out_fig}')
+ elif sys.platform in ['darwin']:
+ os.system(f'open {out_fig}')
+ elif sys.platform.startswith('win'):
+ os.system(out_fig)
+ else:
+ print(f'Unknown OS system ({sys.platform}). Check results in file: {out_fig}.')
=====================================
tests/point.py
=====================================
@@ -0,0 +1,49 @@
+#!/usr/bin/env python3
+# Author: Zhang Yunjun, Jan 2021
+# Copyright 2020, by the California Institute of Technology.
+
+
+import os
+import sys
+import datetime as dt
+
+import pysolid
+
+
+if __name__ == '__main__':
+
+ # print the file/module path
+ print('-'*50)
+ print(os.path.abspath(__file__))
+
+ # prepare inputs
+ lat, lon = 34.0, -118.0 # Los Angles, CA
+ dt_obj0 = dt.datetime(2020, 11, 1, 4, 0, 0)
+ dt_obj1 = dt.datetime(2020, 12, 31, 2, 0, 0)
+
+ # calculate
+ (dt_out,
+ tide_e,
+ tide_n,
+ tide_u) = pysolid.calc_solid_earth_tides_point(lat, lon, dt_obj0, dt_obj1, verbose=False)
+
+ # plot
+ out_dir = os.path.abspath(os.path.join(os.path.dirname(__file__), 'pic'))
+ os.makedirs(out_dir, exist_ok=True)
+
+ out_fig = os.path.join(out_dir, 'point.png')
+ pysolid.plot_solid_earth_tides_point(
+ dt_out, tide_e, tide_n, tide_u,
+ lalo=[lat, lon],
+ out_fig=out_fig,
+ display=False)
+
+ # open the saved figure
+ if sys.platform in ['linux']:
+ os.system(f'display {out_fig}')
+ elif sys.platform in ['darwin']:
+ os.system(f'open {out_fig}')
+ elif sys.platform.startswith('win'):
+ os.system(out_fig)
+ else:
+ print(f'Unknown OS system ({sys.platform}). Check results in file: {out_fig}.')
=====================================
tests/test_SET_grid.py deleted
=====================================
@@ -1,50 +0,0 @@
-#!/usr/bin/env python3
-# Author: Zhang Yunjun, Jan 2021
-# Copyright 2020, by the California Institute of Technology.
-
-
-import os
-import sys
-import datetime as dt
-
-## setup path for the package
-#from pathlib import Path
-#pysolid_path = Path(__file__).absolute().parent.parent.joinpath('src')
-#sys.path.append(pysolid_path)
-import pysolid
-
-
-## pysolid.grid
-print('Test solid Earth tides calculation for a spatial grid at a specific time')
-
-# prepare inputs
-dt_obj = dt.datetime(2020, 12, 25, 14, 7, 44)
-atr = {
- 'LENGTH' : 400,
- 'WIDTH' : 500,
- 'X_FIRST' : -118.2,
- 'Y_FIRST' : 33.8,
- 'X_STEP' : 0.000833333,
- 'Y_STEP' : -0.000833333,
-}
-
-# calculate
-(tide_e,
- tide_n,
- tide_u) = pysolid.calc_solid_earth_tides_grid(dt_obj, atr, verbose=True)
-
-# plot
-out_fig = os.path.abspath(os.path.join(os.path.dirname(__file__), 'SET_grid.png'))
-pysolid.plot_solid_earth_tides_grid(tide_e, tide_n, tide_u, dt_obj,
- out_fig=out_fig, display=False)
-
-
-## open the plotted figures
-if sys.platform in ['linux']:
- os.system('display {}'.format(out_fig))
-elif sys.platform in ['darwin']:
- os.system('open {}'.format(out_fig))
-elif sys.platform.startswith('win'):
- os.system(out_fig)
-else:
- print('Unknown OS system. Check results in file: {}'.format(out_fig))
=====================================
tests/test_SET_point.py deleted
=====================================
@@ -1,45 +0,0 @@
-#!/usr/bin/env python3
-# Author: Zhang Yunjun, Jan 2021
-# Copyright 2020, by the California Institute of Technology.
-
-
-import os
-import sys
-import datetime as dt
-
-## setup path for the package
-#from pathlib import Path
-#pysolid_path = Path(__file__).absolute().parent.parent.joinpath('src')
-#sys.path.append(pysolid_path)
-import pysolid
-
-
-## pysolid.point
-print('Test solid Earth tides calculation for a time period at a specific location')
-
-# prepare inputs
-lat, lon = 34.0, -118.0 # Los Angles, CA
-dt_obj0 = dt.datetime(2020, 11, 1, 4, 0, 0)
-dt_obj1 = dt.datetime(2020, 12, 31, 2, 0, 0)
-
-# calculate
-(dt_out,
- tide_e,
- tide_n,
- tide_u) = pysolid.calc_solid_earth_tides_point(lat, lon, dt_obj0, dt_obj1, verbose=False)
-
-# plot
-out_fig = os.path.abspath(os.path.join(os.path.dirname(__file__), 'SET_point.png'))
-pysolid.plot_solid_earth_tides_point(dt_out, tide_e, tide_n, tide_u, lalo=[lat, lon],
- out_fig=out_fig, display=False)
-
-## open the plotted figures
-if sys.platform in ['linux']:
- os.system('display {}'.format(out_fig))
-elif sys.platform in ['darwin']:
- os.system('open {}'.format(out_fig))
-elif sys.platform.startswith('win'):
- os.system(out_fig)
-else:
- print('Unknown OS system. Check results in file: {}'.format(out_fig))
-
View it on GitLab: https://salsa.debian.org/debian-gis-team/pysolid/-/commit/517a1d61866beb30b1fdb0560d75377682048610
--
View it on GitLab: https://salsa.debian.org/debian-gis-team/pysolid/-/commit/517a1d61866beb30b1fdb0560d75377682048610
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