Intonation python module
------------------------
Homepage:
`https://github.com/gopalkoduri/intonation <https://github.com/gopalkoduri/intonation>`_
The intonation python module has broadly four classes:
- **Intervals**: defines an object which has a set of intervals, of
course! It has a set of basic functions that facilitate an easy access to
these intervals.
- **Histogram**: defines a histogram object with methods used to find
peaks using different methods and plot them.
- **Pitch**: Given timestamps in seconds, and pitch values in
cents, it defines a pitch object which has a number of methods which
can be used to study the intervals
- **Recording**: Given a pitch object, it defines a recording object
which has methods to compute histogram, intonation profile and label
sections of pitch contours with given set of intervals.
.. code:: python
%pylab inline
import intonation
print dir(intonation)
.. parsed-literal::
Populating the interactive namespace from numpy and matplotlib
['Histogram', 'Intervals', 'Pitch', 'Recording', '__builtins__', '__doc__', '__file__', '__name__', '__package__', '__path__', 'pitch', 'recording', 'utils']
Load some data
--------------
A sample file with pitch data, and another file with just-intonation
intervals are included. The pitch in the file given is in cents scale,
normalized to tonic. If you don't have this, you should get it from
`https://github.com/gopalkoduri/intonation <https://github.com/gopalkoduri/intonation>`_,
or load your own data.
Make sure the data is formatted as a numpy array of mx2 size where m is
number of total points. The first column should correspond to time
stamps in seconds and the second column should correspond to the pitch
value in cents (preferably normalized to tonic). The given file is already formatted this way!
.. code:: python
import pickle
data = loadtxt("88d8196a-123a-4306-9856-4ce3faca14fc.txt")
intervals = pickle.load(file("ji-intervals.pickle"))
Have a look at the data!
------------------------
.. code:: python
plot(data[52000:53000, 0], data[52000:53000, 1])
ylim(200, 1000)
.. parsed-literal::
(200, 1000)
.. image:: https://raw.github.com/gopalkoduri/intonation/master/intonation/examples/howto_files/howto_5_1.png
Load the data into a pitch object
---------------------------------
You can avail a number of different method on pitch object to study
different aspects of intervals. Let's also look at what methods are
available and what they do.
.. code:: python
pitch_obj = intonation.Pitch(data[:, 0], data[:, 1])
help(pitch_obj)
.. parsed-literal::
Help on instance of Pitch in module intonation.pitch:
class Pitch
| Methods defined here:
|
| __init__(self, timestamps, pitch)
|
| discretize(self, intervals, slope_thresh=1500, cents_thresh=50)
| This function takes the pitch data and returns it quantized to given
| set of intervals. All transactions must happen in cent scale.
|
| slope_thresh is the bound beyond which the pitch contour is said to transit
| from one svara to another. It is specified in cents/sec.
|
| cents_thresh is a limit within which two pitch values are considered the same.
| This is what pushes the quantization limit.
|
| The function returns quantized pitch data.
|
| enforce_duration(self, duration_thresh)
| This method takes a quantized pitch contour and filters out
| those time sections where the contour is not long enough, as specified
| by duration threshold (given in milliseconds).
|
| All transactions assume data in cent scale.
|
| fit_lines(self, window=1500, break_thresh=1500)
| Fits lines to pitch contours.
|
| :param window: size of each chunk to which linear equation is to be fit (in milliseconds).
| To keep it simple, hop is chosen to be one third of the window.
| :param break_thresh: If there is silence beyond this limit (in milliseconds),
| the contour will be broken there into two so that we don't fit a line over and
| including the silent region.
|
| reset(self)
Load the recording object
-------------------------
Recording object takes the pitch object, and defines methods that access
pitch data and functions defined over it, to create histogram and
intonation profile of the corresponding recording. Load it and check the
methods available on it.
.. code:: python
rec_obj = intonation.Recording(pitch_obj)
help(rec_obj)
.. parsed-literal::
Help on instance of Recording in module intonation.recording:
class Recording
| Methods defined here:
|
| __init__(self, pitch_obj)
|
| compute_hist(self, bins=None, density=True, folded=False, weight='duration')
| Computes histogram from the pitch data in Pitch object (pitch), and creates
| a Data object (pypeaks).
|
| :param bins: Refers to number of bins in the histogram, determines the granularity.
| If it is not set, the number of bins which gives the highest granularity is chosen
| automatically.
| :param density: defaults to True, which means the histogram will be a normalized one.
| :param folded: defaults to False. When set to True, all the octaves are folded to one.
| :param weight: It can be one of the 'duration' or 'instance'. In the latter case, make
| sure that the pitch object has the pitch values discretized.
|
| label_contours(self, intervals, window=150, hop=30)
| In a very flowy contour, it is not trivial to say which pitch value corresponds
| to what interval. This function labels pitch contours with intervals by guessing
| from the characteristics of the contour and its melodic context.
|
| :param window: the size of window over which the context is gauged, in milliseconds.
| :param hop: hop size in milliseconds.
|
| parametrize_peaks(self, intervals, max_peakwidth=50, min_peakwidth=25, symmetric_bounds=True)
| Computes and stores the intonation profile of an audio recording.
|
| :param intervals: these will be the reference set of intervals to which peak positions
| correspond to. For each interval, the properties of corresponding peak, if exists,
| will be computed and stored as intonation profile.
| :param max_peakwidth: the maximum allowed width of the peak at the base for computing
| parameters of the distribution.
| :param min_peakwidth: the minimum allowed width of the peak at the base for computing
| parameters of the distribution.
|
| plot_contour_labels(self, new_fig=True)
| Plots the labelled contours!
|
| serialize_contour_labels(self, path)
|
| serialize_hist(self, path)
|
| serialize_intonation(self, path)
Compute intonation profile
--------------------------
.. code:: python
rec_obj.compute_hist(weight='duration')
rec_obj.histogram.get_peaks()
rec_obj.histogram.plot()
rec_obj.parametrize_peaks(intervals)
for peak_pos, parameters in rec_obj.intonation_profile.items():
print "Peak position:", peak_pos
print "Parameters:", parameters
print "\n\n"
.. image:: https://raw.github.com/gopalkoduri/intonation/master/intonation/examples/howto_files/howto_11_0.png
.. parsed-literal::
Peak position: 0
Parameters: {'amplitude': 0.002797362767175232, 'variance': 2.30089697771722, 'position': 3.970135272709001, 'kurtosis': 1.927603141344509, 'skew2': 3.735155903961268, 'skew1': 0.44718630826249933, 'mean': 5.858718228480692}
Peak position: 609
Parameters: {'amplitude': 0.004695243282807479, 'variance': 0.012695150533358106, 'position': 637.0325619413586, 'kurtosis': 0.9406146255499004, 'skew2': 27.90258855482859, 'skew1': 0.22033498495149098, 'mean': 638.0805158163263}
Peak position: 1698
Parameters: {'amplitude': 0.00014078279996007, 'variance': 0.013659424461685717, 'position': 1661.1335491588898, 'kurtosis': -0.41428543936114615, 'skew2': -64.4383076140323, 'skew1': -0.07534618880366817, 'mean': 1658.6231714413357}
Peak position: 996
Parameters: {'amplitude': 0.003435488273391514, 'variance': 0.008596676350235102, 'position': 976.0659942330999, 'kurtosis': 0.8348926422941312, 'skew2': 22.900375111282333, 'skew1': 0.10284387594872718, 'mean': 976.7737552362145}
Peak position: 813
Parameters: {'amplitude': 0.009341308266773875, 'variance': 0.013651553517840948, 'position': 838.0523846276124, 'kurtosis': 4.832835158689921, 'skew2': -9.687861814499914, 'skew1': -0.6682217858587207, 'mean': 837.6750751461626}
Peak position: 203
Parameters: {'amplitude': 0.0008618595744463455, 'variance': 0.058867970276098754, 'position': 213.99084554192927, 'kurtosis': -0.6244109382673089, 'skew2': -24.091887880433827, 'skew1': -0.019728501352433942, 'mean': 212.04239624202992}
Peak position: 1901
Parameters: {'amplitude': 8.573128206689404e-05, 'variance': 0.011817502004065296, 'position': 1910.1581056209652, 'kurtosis': -0.5718697588557737, 'skew2': -99.83889976528373, 'skew1': -0.018451337443616454, 'mean': 1906.540332114844}
Peak position: 111
Parameters: {'amplitude': 0.002305361557178796, 'variance': 0.09658214876023724, 'position': 149.98453384083354, 'kurtosis': 0.08056840295103473, 'skew2': 2.0113190897051054, 'skew1': 0.07507569130967642, 'mean': 150.19289086811065}
Peak position: 1200
Parameters: {'amplitude': 0.0003895009658551797, 'variance': 0.007267135096195204, 'position': 1182.0863100210017, 'kurtosis': 0.6176846970659615, 'skew2': 20.946772209030044, 'skew1': 0.10355524184913392, 'mean': 1182.6815299614573}
Peak position: 498
Parameters: {'amplitude': 9.41413424523724e-05, 'variance': 0.05447975516564372, 'position': 483.0173744105971, 'kurtosis': -0.8493906704349548, 'skew2': -61.625459820989036, 'skew1': 0.12480372347729349, 'mean': 478.2227290292443}
Peak position: 1586
Parameters: {'amplitude': 8.621794927150846e-05, 'variance': 0.010963363343200321, 'position': 1576.1251664308722, 'kurtosis': -0.934272210627225, 'skew2': 24.857821598212787, 'skew1': -0.010163495785677176, 'mean': 1576.992754789271}
Peak position: -204
Parameters: {'amplitude': 0.00030818492222845205, 'variance': -0.08890053831381642, 'position': -193.0492929322262, 'kurtosis': -0.29083979104046653, 'skew2': 95.64710087845818, 'skew1': 0.8041753526099349, 'mean': -183.543184769713}
Peak position: 315
Parameters: {'amplitude': 0.0033880985498823918, 'variance': 0.03908248373599427, 'position': 349.004159286428, 'kurtosis': 2.810348433609218, 'skew2': -42.87679153078118, 'skew1': -0.5832542018942715, 'mean': 346.17868016255034}
Peak position: 701
Parameters: {'amplitude': 0.0025085315040450705, 'variance': 0.015271795644264024, 'position': 702.038972262784, 'kurtosis': -0.3862395789258839, 'skew2': -6.296610988987159, 'skew1': -0.05474142326760241, 'mean': 701.7795957420977}
Peak position: 1311
Parameters: {'amplitude': 0.0006891719448438842, 'variance': 0.009112584855975842, 'position': 1317.0996237655004, 'kurtosis': -0.7389000970259194, 'skew2': -1.7980310078329214, 'skew1': -0.0013600783287732764, 'mean': 1317.042410502787}
Raw data
{
"_id": null,
"home_page": null,
"name": "intonation",
"maintainer": null,
"docs_url": null,
"requires_python": null,
"maintainer_email": null,
"keywords": "python, intonation, research, music, intervals, tuning",
"author": null,
"author_email": "Gopala Krishna Koduri <gopala.koduri@gmail.com>",
"download_url": "https://files.pythonhosted.org/packages/e4/79/59b415573fde323a672d50b2c4a4d6e59c5318989f129b3f202cb6c65cfb/intonation-2024.9.8.tar.gz",
"platform": null,
"description": "\nIntonation python module\n------------------------\n\nHomepage:\n`https://github.com/gopalkoduri/intonation <https://github.com/gopalkoduri/intonation>`_\n\nThe intonation python module has broadly four classes:\n\n- **Intervals**: defines an object which has a set of intervals, of\n course! It has a set of basic functions that facilitate an easy access to\n these intervals.\n- **Histogram**: defines a histogram object with methods used to find\n peaks using different methods and plot them.\n- **Pitch**: Given timestamps in seconds, and pitch values in\n cents, it defines a pitch object which has a number of methods which\n can be used to study the intervals\n- **Recording**: Given a pitch object, it defines a recording object\n which has methods to compute histogram, intonation profile and label\n sections of pitch contours with given set of intervals.\n\n\n.. code:: python\n\n %pylab inline\n \n import intonation\n print dir(intonation)\n\n.. parsed-literal::\n\n Populating the interactive namespace from numpy and matplotlib\n ['Histogram', 'Intervals', 'Pitch', 'Recording', '__builtins__', '__doc__', '__file__', '__name__', '__package__', '__path__', 'pitch', 'recording', 'utils']\n\n\nLoad some data\n--------------\n\nA sample file with pitch data, and another file with just-intonation\nintervals are included. The pitch in the file given is in cents scale,\nnormalized to tonic. If you don't have this, you should get it from\n`https://github.com/gopalkoduri/intonation <https://github.com/gopalkoduri/intonation>`_,\nor load your own data.\n\nMake sure the data is formatted as a numpy array of mx2 size where m is\nnumber of total points. The first column should correspond to time\nstamps in seconds and the second column should correspond to the pitch\nvalue in cents (preferably normalized to tonic). The given file is already formatted this way!\n\n.. code:: python\n\n import pickle\n data = loadtxt(\"88d8196a-123a-4306-9856-4ce3faca14fc.txt\")\n intervals = pickle.load(file(\"ji-intervals.pickle\"))\n\n\nHave a look at the data!\n------------------------\n\n\n.. code:: python\n\n plot(data[52000:53000, 0], data[52000:53000, 1])\n ylim(200, 1000)\n\n\n\n.. parsed-literal::\n\n (200, 1000)\n\n\n\n\n.. image:: https://raw.github.com/gopalkoduri/intonation/master/intonation/examples/howto_files/howto_5_1.png\n\n\nLoad the data into a pitch object\n---------------------------------\n\nYou can avail a number of different method on pitch object to study\ndifferent aspects of intervals. Let's also look at what methods are\navailable and what they do.\n\n.. code:: python\n\n pitch_obj = intonation.Pitch(data[:, 0], data[:, 1])\n help(pitch_obj)\n\n.. parsed-literal::\n\n Help on instance of Pitch in module intonation.pitch:\n \n class Pitch\n | Methods defined here:\n | \n | __init__(self, timestamps, pitch)\n | \n | discretize(self, intervals, slope_thresh=1500, cents_thresh=50)\n | This function takes the pitch data and returns it quantized to given\n | set of intervals. All transactions must happen in cent scale.\n | \n | slope_thresh is the bound beyond which the pitch contour is said to transit\n | from one svara to another. It is specified in cents/sec.\n | \n | cents_thresh is a limit within which two pitch values are considered the same.\n | This is what pushes the quantization limit.\n | \n | The function returns quantized pitch data.\n | \n | enforce_duration(self, duration_thresh)\n | This method takes a quantized pitch contour and filters out\n | those time sections where the contour is not long enough, as specified\n | by duration threshold (given in milliseconds).\n | \n | All transactions assume data in cent scale.\n | \n | fit_lines(self, window=1500, break_thresh=1500)\n | Fits lines to pitch contours.\n | \n | :param window: size of each chunk to which linear equation is to be fit (in milliseconds).\n | To keep it simple, hop is chosen to be one third of the window.\n | :param break_thresh: If there is silence beyond this limit (in milliseconds),\n | the contour will be broken there into two so that we don't fit a line over and\n | including the silent region.\n | \n | reset(self)\n \n\n\nLoad the recording object\n-------------------------\n\nRecording object takes the pitch object, and defines methods that access\npitch data and functions defined over it, to create histogram and\nintonation profile of the corresponding recording. Load it and check the\nmethods available on it.\n\n.. code:: python\n\n rec_obj = intonation.Recording(pitch_obj)\n help(rec_obj)\n\n.. parsed-literal::\n\n Help on instance of Recording in module intonation.recording:\n \n class Recording\n | Methods defined here:\n | \n | __init__(self, pitch_obj)\n | \n | compute_hist(self, bins=None, density=True, folded=False, weight='duration')\n | Computes histogram from the pitch data in Pitch object (pitch), and creates\n | a Data object (pypeaks).\n | \n | :param bins: Refers to number of bins in the histogram, determines the granularity.\n | If it is not set, the number of bins which gives the highest granularity is chosen\n | automatically.\n | :param density: defaults to True, which means the histogram will be a normalized one.\n | :param folded: defaults to False. When set to True, all the octaves are folded to one.\n | :param weight: It can be one of the 'duration' or 'instance'. In the latter case, make\n | sure that the pitch object has the pitch values discretized.\n | \n | label_contours(self, intervals, window=150, hop=30)\n | In a very flowy contour, it is not trivial to say which pitch value corresponds\n | to what interval. This function labels pitch contours with intervals by guessing\n | from the characteristics of the contour and its melodic context.\n | \n | :param window: the size of window over which the context is gauged, in milliseconds.\n | :param hop: hop size in milliseconds.\n | \n | parametrize_peaks(self, intervals, max_peakwidth=50, min_peakwidth=25, symmetric_bounds=True)\n | Computes and stores the intonation profile of an audio recording.\n | \n | :param intervals: these will be the reference set of intervals to which peak positions\n | correspond to. For each interval, the properties of corresponding peak, if exists,\n | will be computed and stored as intonation profile.\n | :param max_peakwidth: the maximum allowed width of the peak at the base for computing\n | parameters of the distribution.\n | :param min_peakwidth: the minimum allowed width of the peak at the base for computing\n | parameters of the distribution.\n | \n | plot_contour_labels(self, new_fig=True)\n | Plots the labelled contours!\n | \n | serialize_contour_labels(self, path)\n | \n | serialize_hist(self, path)\n | \n | serialize_intonation(self, path)\n \n\n\nCompute intonation profile\n--------------------------\n\n\n.. code:: python\n\n rec_obj.compute_hist(weight='duration')\n rec_obj.histogram.get_peaks()\n rec_obj.histogram.plot()\n rec_obj.parametrize_peaks(intervals)\n \n for peak_pos, parameters in rec_obj.intonation_profile.items():\n print \"Peak position:\", peak_pos\n print \"Parameters:\", parameters\n print \"\\n\\n\"\n\n\n.. image:: https://raw.github.com/gopalkoduri/intonation/master/intonation/examples/howto_files/howto_11_0.png\n\n\n.. parsed-literal::\n\n Peak position: 0\n Parameters: {'amplitude': 0.002797362767175232, 'variance': 2.30089697771722, 'position': 3.970135272709001, 'kurtosis': 1.927603141344509, 'skew2': 3.735155903961268, 'skew1': 0.44718630826249933, 'mean': 5.858718228480692}\n \n \n \n Peak position: 609\n Parameters: {'amplitude': 0.004695243282807479, 'variance': 0.012695150533358106, 'position': 637.0325619413586, 'kurtosis': 0.9406146255499004, 'skew2': 27.90258855482859, 'skew1': 0.22033498495149098, 'mean': 638.0805158163263}\n \n \n \n Peak position: 1698\n Parameters: {'amplitude': 0.00014078279996007, 'variance': 0.013659424461685717, 'position': 1661.1335491588898, 'kurtosis': -0.41428543936114615, 'skew2': -64.4383076140323, 'skew1': -0.07534618880366817, 'mean': 1658.6231714413357}\n \n \n \n Peak position: 996\n Parameters: {'amplitude': 0.003435488273391514, 'variance': 0.008596676350235102, 'position': 976.0659942330999, 'kurtosis': 0.8348926422941312, 'skew2': 22.900375111282333, 'skew1': 0.10284387594872718, 'mean': 976.7737552362145}\n \n \n \n Peak position: 813\n Parameters: {'amplitude': 0.009341308266773875, 'variance': 0.013651553517840948, 'position': 838.0523846276124, 'kurtosis': 4.832835158689921, 'skew2': -9.687861814499914, 'skew1': -0.6682217858587207, 'mean': 837.6750751461626}\n \n \n \n Peak position: 203\n Parameters: {'amplitude': 0.0008618595744463455, 'variance': 0.058867970276098754, 'position': 213.99084554192927, 'kurtosis': -0.6244109382673089, 'skew2': -24.091887880433827, 'skew1': -0.019728501352433942, 'mean': 212.04239624202992}\n \n \n \n Peak position: 1901\n Parameters: {'amplitude': 8.573128206689404e-05, 'variance': 0.011817502004065296, 'position': 1910.1581056209652, 'kurtosis': -0.5718697588557737, 'skew2': -99.83889976528373, 'skew1': -0.018451337443616454, 'mean': 1906.540332114844}\n \n \n \n Peak position: 111\n Parameters: {'amplitude': 0.002305361557178796, 'variance': 0.09658214876023724, 'position': 149.98453384083354, 'kurtosis': 0.08056840295103473, 'skew2': 2.0113190897051054, 'skew1': 0.07507569130967642, 'mean': 150.19289086811065}\n \n \n \n Peak position: 1200\n Parameters: {'amplitude': 0.0003895009658551797, 'variance': 0.007267135096195204, 'position': 1182.0863100210017, 'kurtosis': 0.6176846970659615, 'skew2': 20.946772209030044, 'skew1': 0.10355524184913392, 'mean': 1182.6815299614573}\n \n \n \n Peak position: 498\n Parameters: {'amplitude': 9.41413424523724e-05, 'variance': 0.05447975516564372, 'position': 483.0173744105971, 'kurtosis': -0.8493906704349548, 'skew2': -61.625459820989036, 'skew1': 0.12480372347729349, 'mean': 478.2227290292443}\n \n \n \n Peak position: 1586\n Parameters: {'amplitude': 8.621794927150846e-05, 'variance': 0.010963363343200321, 'position': 1576.1251664308722, 'kurtosis': -0.934272210627225, 'skew2': 24.857821598212787, 'skew1': -0.010163495785677176, 'mean': 1576.992754789271}\n \n \n \n Peak position: -204\n Parameters: {'amplitude': 0.00030818492222845205, 'variance': -0.08890053831381642, 'position': -193.0492929322262, 'kurtosis': -0.29083979104046653, 'skew2': 95.64710087845818, 'skew1': 0.8041753526099349, 'mean': -183.543184769713}\n \n \n \n Peak position: 315\n Parameters: {'amplitude': 0.0033880985498823918, 'variance': 0.03908248373599427, 'position': 349.004159286428, 'kurtosis': 2.810348433609218, 'skew2': -42.87679153078118, 'skew1': -0.5832542018942715, 'mean': 346.17868016255034}\n \n \n \n Peak position: 701\n Parameters: {'amplitude': 0.0025085315040450705, 'variance': 0.015271795644264024, 'position': 702.038972262784, 'kurtosis': -0.3862395789258839, 'skew2': -6.296610988987159, 'skew1': -0.05474142326760241, 'mean': 701.7795957420977}\n \n \n \n Peak position: 1311\n Parameters: {'amplitude': 0.0006891719448438842, 'variance': 0.009112584855975842, 'position': 1317.0996237655004, 'kurtosis': -0.7389000970259194, 'skew2': -1.7980310078329214, 'skew1': -0.0013600783287732764, 'mean': 1317.042410502787}\n \n \n \n\n",
"bugtrack_url": null,
"license": "GNU Affero GPL v3",
"summary": "Python module to analyze, study and research the intonation of musical intervals in music recordings.",
"version": "2024.9.8",
"project_urls": {
"Homepage": "https://github.com/gopalkoduri/intonation"
},
"split_keywords": [
"python",
" intonation",
" research",
" music",
" intervals",
" tuning"
],
"urls": [
{
"comment_text": "",
"digests": {
"blake2b_256": "e2edeb08dce2831a3b1712da3846fbb132c615390c9d83414590d933ae2fc9df",
"md5": "a69dea572a0731b8038cbb5cdab1c0b7",
"sha256": "956c6dbd7d577ae6459af58282a7f9aa17b0d97d14067e2da3dfed44289cd13c"
},
"downloads": -1,
"filename": "intonation-2024.9.8-py3-none-any.whl",
"has_sig": false,
"md5_digest": "a69dea572a0731b8038cbb5cdab1c0b7",
"packagetype": "bdist_wheel",
"python_version": "py3",
"requires_python": null,
"size": 4110207,
"upload_time": "2024-09-08T11:27:39",
"upload_time_iso_8601": "2024-09-08T11:27:39.220849Z",
"url": "https://files.pythonhosted.org/packages/e2/ed/eb08dce2831a3b1712da3846fbb132c615390c9d83414590d933ae2fc9df/intonation-2024.9.8-py3-none-any.whl",
"yanked": false,
"yanked_reason": null
},
{
"comment_text": "",
"digests": {
"blake2b_256": "e47959b415573fde323a672d50b2c4a4d6e59c5318989f129b3f202cb6c65cfb",
"md5": "e4ed012587a3c70aae2597c1b57cc487",
"sha256": "b99e3abcd7515b8b877db735e4b9cd2575873412377b38725e90a7c72ede044e"
},
"downloads": -1,
"filename": "intonation-2024.9.8.tar.gz",
"has_sig": false,
"md5_digest": "e4ed012587a3c70aae2597c1b57cc487",
"packagetype": "sdist",
"python_version": "source",
"requires_python": null,
"size": 4032252,
"upload_time": "2024-09-08T11:27:41",
"upload_time_iso_8601": "2024-09-08T11:27:41.815171Z",
"url": "https://files.pythonhosted.org/packages/e4/79/59b415573fde323a672d50b2c4a4d6e59c5318989f129b3f202cb6c65cfb/intonation-2024.9.8.tar.gz",
"yanked": false,
"yanked_reason": null
}
],
"upload_time": "2024-09-08 11:27:41",
"github": true,
"gitlab": false,
"bitbucket": false,
"codeberg": false,
"github_user": "gopalkoduri",
"github_project": "intonation",
"travis_ci": false,
"coveralls": false,
"github_actions": false,
"lcname": "intonation"
}
JSON
