Commit 01e297cddb59fea07466fcaa53fda76fc01876c1

Authored by Christoph Deil
1 parent 808c9fdd

Rename `center` to `centre` everywhere.

(I chose `centre` because there were more `centre` than `center`
around.)
doc/source/user_manual/glossary.rst
... ... @@ -21,7 +21,7 @@ Glossary
21 21  
22 22 - **HEASARC** (`<http://heasarc.gsfc.nasa.gov/>`_)
23 23  
24   - High Energy Astrophysics Science Archive Research Center.
  24 + High Energy Astrophysics Science Archive Research Centre.
25 25  
26 26 - **Python** (`<http://www.python.org/>`_)
27 27  
... ...
doc/source/user_manual/modules/support.rst
... ... @@ -211,7 +211,7 @@ Function Description
211 211 ``gammalib::fill`` Fill string with a number of replications of a string.
212 212 ``gammalib::left`` Left justify string to achieve a given length of characters.
213 213 ``gammalib::right`` Right justify string to achieve a given length of characters.
214   -``gammalib::center`` Center string to achieve a given length of characters.
  214 +``gammalib::centre`` Centre string to achieve a given length of characters.
215 215 ``gammalib::parformat`` Format string for parameter value display.
216 216 ``gammalib::plaw_photon_flux`` Compute photon flux under a power law.
217 217 ``gammalib::plaw_energy_flux`` Compute energy flux under a power law.
... ...
include/GTools.hpp
... ... @@ -76,7 +76,7 @@ namespace gammalib {
76 76 const char& c = ' ');
77 77 std::string right(const std::string& s, const int& n,
78 78 const char& c = ' ');
79   - std::string center(const std::string& s, const int& n,
  79 + std::string centre(const std::string& s, const int& n,
80 80 const char& c = ' ');
81 81 std::string parformat(const std::string& s, const int& indent = 0);
82 82 double plaw_photon_flux(const double& emin,
... ...
inst/cta/src/GCTAModelBackground.cpp
... ... @@ -1196,7 +1196,7 @@ GModelTemporal* GCTAModelBackground::xml_temporal(const GXmlElement&amp; temporal) c
1196 1196 /***********************************************************************//**
1197 1197 * @brief Kernel for zenith angle Npred integration of background model
1198 1198 *
1199   - * @param[in] theta Offset angle from ROI center (radians).
  1199 + * @param[in] theta Offset angle from ROI centre (radians).
1200 1200 *
1201 1201 * Computes
1202 1202 *
... ...
inst/cta/test/test_CTA.cpp
... ... @@ -362,7 +362,7 @@ void TestGCTAResponse::test_response_irf_diffuse(void)
362 362 GEnergy emax(100.0, "TeV");
363 363 GEbounds ebounds(nebins, emin, emax);
364 364  
365   - // Setup event cube centered on Cen A
  365 + // Setup event cube centreed on Cen A
366 366 GCTAEventCube cube(map, ebounds, gti);
367 367  
368 368 // Setup dummy CTA observation
... ... @@ -515,7 +515,7 @@ void TestGCTAModelBackground::test_modelbg_npred(void)
515 515 const GModelSpectralPlaw* spec = dynamic_cast<const GModelSpectralPlaw*>(bck->spectral());
516 516 const GModelSpatialRadialGauss* spat = dynamic_cast<const GModelSpatialRadialGauss*>(bck->spatial());
517 517  
518   - // Get Integration center for ROI position
  518 + // Get Integration centre for ROI position
519 519 double src_ra = spat->ra();
520 520 double src_dec = spat->dec();
521 521 double sigma = spat->sigma();
... ...
inst/cta/test/test_irf_offset.py
... ... @@ -57,11 +57,11 @@ def shell_model(ra=0.3, dec=0.3, radius=0.3, width=0.1):
57 57 Set shell model.
58 58 """
59 59 # Set shell centre
60   - center = GSkyDir()
61   - center.radec_deg(ra, dec)
  60 + centre = GSkyDir()
  61 + centre.radec_deg(ra, dec)
62 62  
63 63 # Set radial model
64   - radial = GModelRadialShell(center, radius, width, False)
  64 + radial = GModelRadialShell(centre, radius, width, False)
65 65  
66 66 # Set spectral model
67 67 spectral = GModelSpectralPlaw(1.0, -2.0)
... ... @@ -81,11 +81,11 @@ def disk_model(ra=359.6, dec=-0.2, radius=0.4):
81 81 Set disk model.
82 82 """
83 83 # Set disk centre
84   - center = GSkyDir()
85   - center.radec_deg(ra, dec)
  84 + centre = GSkyDir()
  85 + centre.radec_deg(ra, dec)
86 86  
87 87 # Set radial model
88   - radial = GModelRadialDisk(center, radius)
  88 + radial = GModelRadialDisk(centre, radius)
89 89  
90 90 # Set spectral model
91 91 spectral = GModelSpectralPlaw(1.0, -2.0)
... ... @@ -105,11 +105,11 @@ def gauss_model(ra=359.6, dec=+0.1, sigma=0.2):
105 105 Set Gaussian model.
106 106 """
107 107 # Set Gaussian centre
108   - center = GSkyDir()
109   - center.radec_deg(ra, dec)
  108 + centre = GSkyDir()
  109 + centre.radec_deg(ra, dec)
110 110  
111 111 # Set radial model
112   - radial = GModelRadialGauss(center, sigma)
  112 + radial = GModelRadialGauss(centre, sigma)
113 113  
114 114 # Set spectral model
115 115 spectral = GModelSpectralPlaw(1.0, -2.0)
... ...
inst/cta/test/test_model.py
... ... @@ -53,11 +53,11 @@ def shell_model(ra=0.3, dec=0.3, radius=0.3, width=0.1):
53 53 Set shell model.
54 54 """
55 55 # Set shell centre
56   - center = GSkyDir()
57   - center.radec_deg(ra, dec)
  56 + centre = GSkyDir()
  57 + centre.radec_deg(ra, dec)
58 58  
59 59 # Set radial model
60   - radial = GModelSpatialRadialShell(center, radius, width, False)
  60 + radial = GModelSpatialRadialShell(centre, radius, width, False)
61 61  
62 62 # Set spectral model
63 63 spectral = GModelSpectralPlaw(1.0, -2.0, GEnergy(100.0, "MeV"))
... ... @@ -77,11 +77,11 @@ def disk_model(ra=359.6, dec=-0.2, radius=0.4):
77 77 Set disk model.
78 78 """
79 79 # Set disk centre
80   - center = GSkyDir()
81   - center.radec_deg(ra, dec)
  80 + centre = GSkyDir()
  81 + centre.radec_deg(ra, dec)
82 82  
83 83 # Set radial model
84   - radial = GModelSpatialRadialDisk(center, radius)
  84 + radial = GModelSpatialRadialDisk(centre, radius)
85 85  
86 86 # Set spectral model
87 87 spectral = GModelSpectralPlaw(1.0, -2.0, GEnergy(100.0, "MeV"))
... ... @@ -101,11 +101,11 @@ def gauss_model(ra=359.6, dec=+0.1, sigma=0.2):
101 101 Set Gaussian model.
102 102 """
103 103 # Set Gaussian centre
104   - center = GSkyDir()
105   - center.radec_deg(ra, dec)
  104 + centre = GSkyDir()
  105 + centre.radec_deg(ra, dec)
106 106  
107 107 # Set radial model
108   - radial = GModelSpatialRadialGauss(center, sigma)
  108 + radial = GModelSpatialRadialGauss(centre, sigma)
109 109  
110 110 # Set spectral model
111 111 spectral = GModelSpectralPlaw(1.0, -2.0, GEnergy(100.0, "MeV"))
... ...
pyext/GLog.i
... ... @@ -111,7 +111,7 @@ public:
111 111 void right(const std::string& arg, const int& n) {
112 112 (*self) << gammalib::right(arg, n);
113 113 }
114   - void center(const std::string& arg, const int& n) {
115   - (*self) << gammalib::center(arg, n);
  114 + void centre(const std::string& arg, const int& n) {
  115 + (*self) << gammalib::centre(arg, n);
116 116 }
117 117 }
... ...
pyext/GTools.i
... ... @@ -72,7 +72,7 @@ namespace gammalib {
72 72 std::string fill(const std::string& s, int n);
73 73 std::string left(const std::string& s, int n, char c = ' ');
74 74 std::string right(const std::string& s, int n, char c = ' ');
75   - std::string center(const std::string& s, int n, char c = ' ');
  75 + std::string centre(const std::string& s, int n, char c = ' ');
76 76 std::string parformat(const std::string& s, const int& indent = 0);
77 77 double plaw_photon_flux(const double& emin,
78 78 const double& emax,
... ...
src/app/GApplication.cpp
... ... @@ -425,7 +425,7 @@ void GApplication::log_header(void)
425 425  
426 426 // Dump header
427 427 log << gammalib::fill("*", header_width) << std::endl;
428   - log << "*" << gammalib::center(m_name, header_width-2) << "*" << std::endl;
  428 + log << "*" << gammalib::centre(m_name, header_width-2) << "*" << std::endl;
429 429 log << "* " << gammalib::fill("-", header_width-4) << " *" << std::endl;
430 430 log << "* Version: " << gammalib::left(m_version, header_width-12) << "*" << std::endl;
431 431 log << gammalib::fill("*", header_width) << std::endl;
... ...
src/sky/GSkyRegionCircle.cpp
... ... @@ -471,7 +471,7 @@ bool GSkyRegionCircle::contains(const GSkyRegion&amp; reg) const
471 471 const GSkyRegionCircle* regcirc =
472 472 dynamic_cast<const GSkyRegionCircle*>(&reg);
473 473  
474   - // Calculate angular distance between the centers
  474 + // Calculate angular distance between the centres
475 475 double ang_dist = m_centre.dist_deg(regcirc->centre());
476 476  
477 477 // Check if the region is contained in this
... ... @@ -512,7 +512,7 @@ bool GSkyRegionCircle::overlaps(const GSkyRegion&amp; reg) const
512 512 const GSkyRegionCircle* regcirc =
513 513 dynamic_cast<const GSkyRegionCircle*>(&reg);
514 514  
515   - // Calculate angular distance between the centers
  515 + // Calculate angular distance between the centres
516 516 double ang_dist = m_centre.dist_deg(regcirc->centre());
517 517  
518 518 // Check if the distance is smaller than the sum of both radii
... ...
src/support/GTools.cpp
... ... @@ -660,16 +660,16 @@ std::string gammalib::right(const std::string&amp; s, const int&amp; n, const char&amp; c)
660 660  
661 661  
662 662 /***********************************************************************//**
663   - * @brief Center string to achieve a length of n characters
  663 + * @brief Centre string to achieve a length of n characters
664 664 *
665 665 * @param[in] s String to be centred.
666 666 * @param[in] n Requested total width.
667 667 * @param[in] c Left fill character.
668 668 *
669   - * Center string by adding whitespace to the left and the right to achieve a
  669 + * Centre string by adding whitespace to the left and the right to achieve a
670 670 * length of n characters.
671 671 ***************************************************************************/
672   -std::string gammalib::center(const std::string& s, const int& n, const char& c)
  672 +std::string gammalib::centre(const std::string& s, const int& n, const char& c)
673 673 {
674 674 // Compute number of characters to fill left and right
675 675 int n_right = (n-s.length()) / 2;
... ...
test/example_model_xml_io.py
... ... @@ -24,15 +24,15 @@ from gammalib import *
24 24 # Set the location / centre of the source model to
25 25 # Right Ascension = 42.0 deg and Declination = 43 deg
26 26 # ===================================================
27   -center = GSkyDir()
28   -center.radec_deg(42.0, 43.0)
  27 +centre = GSkyDir()
  28 +centre.radec_deg(42.0, 43.0)
29 29  
30 30 #
31 31 # Create a point source with power law spectral shape
32 32 # Normalization: 1.0e-7 ph/cm2/s/MeV @ 100 MeV
33 33 # Spectral index: -2.1
34 34 # ===================================================
35   -point_spatial = GModelSpatialPointSource(center)
  35 +point_spatial = GModelSpatialPointSource(centre)
36 36 point_spectrum = GModelSpectralPlaw(1.0e-7, -2.1, GEnergy(100.0, "MeV"))
37 37 point = GModelSky(point_spatial, point_spectrum)
38 38 point.name('My point source')
... ... @@ -43,7 +43,7 @@ point.name(&#39;My point source&#39;)
43 43 # Normalization: 4.2e-7 ph/cm2/s/MeV @ 100 MeV
44 44 # Spectral index: -2.4
45 45 # ===================================================
46   -gauss_spatial = GModelSpatialRadialGauss(center, 3.0)
  46 +gauss_spatial = GModelSpatialRadialGauss(centre, 3.0)
47 47 gauss_spectrum = GModelSpectralPlaw(4.2e-7, -2.4, GEnergy(100.0, "MeV"))
48 48 gauss = GModelSky(gauss_spatial, gauss_spectrum)
49 49 gauss.name('My Gaussian source')
... ...
test/example_radial_models.py
... ... @@ -37,7 +37,7 @@ def test_radial_model(name, model, clobber=True):
37 37 time = GTime()
38 38 for inx in range(image.npix()):
39 39 dir = image.inx2dir(inx)
40   - theta = center.dist(dir)
  40 + theta = centre.dist(dir)
41 41 image[inx] = model.eval(theta, energy, time)
42 42  
43 43 # Write it to file
... ... @@ -62,10 +62,10 @@ if __name__ == &#39;__main__&#39;:
62 62 Test radial model integration.
63 63 """
64 64 # Set model location / centre
65   - center = GSkyDir()
66   - center.radec_deg(0.3, 0.1)
  65 + centre = GSkyDir()
  66 + centre.radec_deg(0.3, 0.1)
67 67  
68 68 # Test models
69   - test_radial_model(name='gauss', model=GModelSpatialRadialGauss(center, 0.3))
70   - test_radial_model(name='disk', model=GModelSpatialRadialDisk(center, 0.8))
71   - test_radial_model(name='shell', model=GModelSpatialRadialShell(center, 0.5, 0.1))
  69 + test_radial_model(name='gauss', model=GModelSpatialRadialGauss(centre, 0.3))
  70 + test_radial_model(name='disk', model=GModelSpatialRadialDisk(centre, 0.8))
  71 + test_radial_model(name='shell', model=GModelSpatialRadialShell(centre, 0.5, 0.1))
... ...
test/test_GApplication.py
... ... @@ -89,7 +89,7 @@ class Test(GPythonTestSuite):
89 89 log("\n")
90 90 log.right("Right", 10)
91 91 log("\n")
92   - log.center("Center", 10)
  92 + log.centre("Centre", 10)
93 93 log("\n")
94 94 log.header0("Header 0")
95 95 log("\n")
... ... @@ -112,7 +112,7 @@ class Test(GPythonTestSuite):
112 112 ref.append("HiggsHiggsHiggs\n")
113 113 ref.append("Left \n")
114 114 ref.append(" Right\n")
115   - ref.append(" Center \n")
  115 + ref.append(" Centre \n")
116 116 ref.append("\n")
117 117 ref.append("+==========+\n")
118 118 ref.append("| Header 1 |\n")
... ... @@ -134,7 +134,7 @@ class Test(GPythonTestSuite):
134 134 calls.append("fill()")
135 135 calls.append("left()")
136 136 calls.append("right()")
137   - calls.append("center()")
  137 + calls.append("centre()")
138 138 calls.append("header0()")
139 139 calls.append("header1()")
140 140 calls.append("header1()")
... ...
test/test_GSky.cpp
... ... @@ -930,7 +930,7 @@ void TestGSky::test_GSkyRegionCircle_logic(void)
930 930  
931 931 // Test contain dirs
932 932 test_assert(refregion.contains(refdir_radeczerozero),"test for containment");
933   - test_assert(refregion.contains(centre), "test if center in circle");
  933 + test_assert(refregion.contains(centre), "test if centre in circle");
934 934 test_assert(!refregion.contains(refdir_outside_refregion), "test2 for containment");
935 935  
936 936 // Test contain regions
... ...