Metadata-Version: 2.4
Name: plateviz
Version: 0.1.1
Summary: An interactive visualization tool for microplate reader growth data.
Project-URL: Homepage, https://github.com/Radium2000/plateviz
Project-URL: Issues, https://github.com/Radium2000/plateviz/issues
Author-email: Rudra Kalra <rudrakalra20@gmail.com>
License-File: LICENSE
Classifier: Development Status :: 4 - Beta
Classifier: License :: OSI Approved :: MIT License
Classifier: Operating System :: Microsoft :: Windows
Classifier: Operating System :: POSIX :: Linux
Classifier: Programming Language :: Python :: 3
Classifier: Topic :: Scientific/Engineering :: Bio-Informatics
Classifier: Topic :: Scientific/Engineering :: Visualization
Requires-Python: >=3.9
Requires-Dist: customtkinter
Requires-Dist: cycler
Requires-Dist: matplotlib
Requires-Dist: numpy
Requires-Dist: scikit-learn
Requires-Dist: scipy
Requires-Dist: seaborn
Requires-Dist: synergy-file-reader
Requires-Dist: tkextrafont
Description-Content-Type: text/markdown

# PlateViz Library
An interactive visualization tool for `synergy-file-reader`-type microplate reader growth data.

![image showing the plateviz application](https://github.com/Radium2000/plateviz/blob/main/src/plateviz/resources/main.png?raw=True)

This tool uses `customtkinter` with a custom-built theme to run an application with intuitive controls to easily view your plate reader data. PlateViz does not cover all potential use cases and is not suited as basis for extensive customisations or in-depth analysis, rather think of it as a (beautiful) first step towards analyzing your growth data. At this moment `plateviz` supports single plate visualization for a 96-well plate.

## Getting Started

Install the package from your terminal using pip:

```
pip install plateviz
```

We assume that you are a user of `synergy-file-reader` and are familiar with loading plate reader data using it. If not, have a look at their [friendly documentation](https://synergy-file-reader.readthedocs.io/en/latest/). PlateViz is designed to be very intuitive so just go through this Getting Started section and start exploring. If you want more details about the features, scroll down to the [User Guide](#user-guide).

### Importing `plateviz` and launching the app

```python
import plateviz as pv
```

If you don't have any plate reader data ready to go and still want to experience this application, scroll down to the [Example Data](#example-data) section. Otherwise, you probably have a text file directly obtained from the plate reader. Proceed as you would normally do.

```python
from synergy_file_reader import SynergyFile
my_plate = SynergyFile("my_data.txt")[0]
```

In addition to `my_plate`, which is an object of class `SynergyPlate`, you'll require the names of all the channels which you want to look at. You can either declare them manually or access them via the channel property of `my_plate`:

```python
channels = ['channel_1', 'channel_2', 'channel_3'] # manual
channels = my_plate.channels # accessed via properties
```

At this point you are ready to launch the application and view your growth data. Simply call the `plateDisplay` function and enjoy the experience:

```python
pv.plateDisaplay(my_plate, channels=channels)
```

### Channel nicknames

In case you forgot to edit the channel names before your experiment or want to customize the channel names, you can do that using the `nick` attribute in the following way:

```python
channels = ['OD', 'Fluorescence:433,475', 'Fluorescence:520,560']
nicks = ['Tom', 'Dick', 'Harry']
pv.plateDisplay(my_plate, channels=channels, nick=nicks)
```

Just make sure to order the channel nicknames exactly how they appear in the `channels` attribute. These nicknames will be displayed in the app instead of the real channel names.

### Custom colormap

You can also customize the colormap used for plotting in the [Multi-Well](#multi-well-mode) mode as long as it is `matplotlib`-consistent. The default colormap is _gnuplot_.

```python
pv.plateDisplay(my_plate, channels=channels, nick=nicks, cmap='viridis')
```

### Example Data

Our example data is provided with the library and can be accessed using:

```python
pv.example_data
```

This is an object of class `SynergyPlate`. This is equivalent to `my_plate` above. You can use the following set of commands to immediately launch the application without loading any data of your own:

```python
import plateviz as pv
pv.plateDisplay(pv.example_data, pv.example_data.channels)
```

## User Guide

This section explicitly explains all the available PlateViz features.

### Channel checkboxes

You can select which channels you want to be plotted through these checkboxes. The embedded canvas will be updated once you click on a well button. If you have selected multiple channels, growth rate determination will be disabled. If no channels are selected, no data will be plotted and a "warning" will be displayed on the plot.

### Multi-Well mode

Enable this switch to view the data of multiple wells at once. To add more data to the canvas, keep pressing different well buttons. If the well you clicked on has already been plotted on the canvas, nothing will happen. While in this mode, the growth rate determination is disabled.

### Interactive mode

The interactive mode switch is provided for ease of detailed viewing, in case you want to have a better look at the plot and want access to features like zooming, panning and saving the plot. Multiwell plotting and growth rate determination are disabled when in interactive mode.

* If nothing is being currently displayed on the canvas, the next button press will open an interactive, native-matplotlib window with the data from that particular well. Keep selecting well, and more windows will open in parallel.
* A very powerful, use-case scenario is if you have multiwell mode enabled and there are many growth curves displayed on the current canvas. In this case, for better viewing you can enable the interactive mode switch and the current view will pop out into an interactive window. From here you can also save the figure locally.

### Growth rate determination

This feature is only available for single growth curves; so multiwell plots and multi-channel plots are not supported for now. On pressing this button, the current growth curve is used as an input to fit to a [sigmoidal curve](https://en.wikipedia.org/wiki/Sigmoid_function). We use `scipy.optimize.curve_fit` and the resulting fit is displayed on the canvas with a dashed line. Since growth rate is the parameter of interest we output it to the text box on the right of the canvas with information about the well and channel. This enables you to copy the information if needed. Any subsequent calls for fit will be appended to this text box so you can copy all the information at the very end of your use. 

**Goodness of fit:** To determine whether curve is actually a growth curve or some other function or just noise, we use a goodness of fit estimation to set a threshold. Currently we are using `r2_score` from `sklearn.metrics` to make this call. Any fit with an $R^2$ score lower than $0.85$ is rejected and a warning is displayed on the canvas.

### Log scale

Selecting this checkbox will set the $y$-axis scale to be logarithmic. All interactive plots will also be affected.

### Clear plot

Clear the current view with this button. The canvas returns to its ground state.

****
Recommend this library to your friends and colleagues if you found it useful and feel free to send any suggestions to my [email id](mailto:rudrakalra20@gmail.com).
****