insulearner


Nameinsulearner JSON
Version 0.1.6 PyPI version JSON
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home_pagehttps://www.cameronsummers.com/how_I_calculate_my_sons_insulin_pump_settings_with_machine_learning
SummaryEstimate Insulin Pump Settings using Machine Learning
upload_time2023-04-05 21:29:17
maintainer
docs_urlNone
authorCameron Summers
requires_python>3.8
licenseGPL-3.0-only
keywords insulin diabetes pump settings type 1 carbohydrate ratio insulin sensitivity factor basa rate
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requirements No requirements were recorded.
Travis-CI No Travis.
coveralls test coverage No coveralls.
            # InsuLearner: Estimating Insulin Pump Settings with Machine Learning
## Author: Cameron Summers
#### Author's Website: [www.CameronSummers.com](https://www.CameronSummers.com)

---

### _Warning_:
*_This code can have significant impact on insulin dosing. 
There are no guardrails included here so it's possible to get poor
results in some circumstances.
Check with your doctor before making any changes to dosing settings._*


### Overview:

This is the code underlying [my article](https://www.CameronSummers.com/how_I_calculate_my_sons_insulin_pump_settings_with_machine_learning) 
where I describe in plain language the machine learning approach I developed to compute 
the insulin pump settings for my son.

This library estimates personalized insulin pump settings from historical insulin
and carbohydrate information. Currently, it interfaces with [Tidepool](https://www.tidepool.org)
accounts to retrieve data.

The code uses machine learning to estimate:

- Carbohydate Ratio (CIR)
- Basal Rate
- Insulin Sensivity Factor (ISF)

Historical carbohydrate and insulin data directly estimate CIR and Basal 
Rate using Linear Regression. An estimate of Carbohydrate Sensitivity Factor 
(CSF) and the estimate CIR is used to estimate ISF.

Here is an example plot of a fitted model and estimated settings:

![alt text](static/example_settings_plot_plus_aace.jpg)

## Dependencies

Developed and tested with Python 3.9

## Installation

For easy CLI tool create a virtual environment and then run:
```
pip install insulearner
```

For digging into the code to understand what's going on (recommended):

```
git clone https://github.com/scaubrey/InsuLearner
```

## Usage (CLI)

The install with pip provides a command line interface so you can run `insulearner`.

#### CLI Examples

If you don't know your Carbohydrate Sensitivity Factor (CSF) I devised
an estimator based on height and weight. Note: this estimator is an
educated guess and *not validated*. It's probably better if you estimate
it yourself.

`insulearner <your_tidepool_email> <your_tidepool_password> --num_days 60 --height_inches 72 --weight_lbs 200 --gender male`

If you do have an estimate of your CSF through your own testing:

`insulearner <your_tidepool_email> <your_tidepool_password> --num_days 60 --CSF 4.2`

#### More CLI Options

`--agg_period_window_size_hours` This is the size of the time period in days over which
aggregate insulin and carb data. I theorized in [my article](https://www.cameronsummers.com/how_I_calculate_my_sons_insulin_pump_settings_with_machine_learning) 
that longer periods would converge to better estimates of CIR and Basal Rate. Default
is 1 day (24 hours) but I have seen good results with many more days.

`--agg_period_hop_size_hours` This is how much to shift over the aggregation
window for each data point. For example, if the window size above is 72 hrs 
and this is 24 hours, then the aggregation for the first data point will be days 1-3, the
second data point will be days 2-4, and the third data point will
be days 3-5, and so on.

`--estimate_agg_boundaries` If set this will use an autocorrelation-like algorithm to
estimate the hour of the day when blood glucose movement is the least active, ie 
isolating associated insulin and carb effects.


## Usage (code)

Once installed with pip, you can use the functions in your code:

```
>>> from InsuLearner.insulearner import analyze_settings_lr
```


## Algorithms

There are three algorithms I developed that are in this code and worth
being aware of:

1. An autocorrelation-like algorithm to find inactive periods in data
    in order to help denoise the data for fitting a model.
2. Linear Regression to estimate Carb Ratio (CIR), Basal Rate, and Insulin
    Sensitivity Factor (ISF)
   1. This is methodology is described in [my article](https://www.CameronSummers.com/how_I_calculate_my_sons_insulin_pump_settings_with_machine_learning).
3. Estimating Carb Sensitivity Factor (CSF)
   1. CSF is used to derive ISF from the estimated CIR from the Linear Regression. 
        It's best to estimate CSF through testing, but I've provided an
        algorithm to approximate it based on blood volume computed via height
        and weight. While based on knowledge of biology this algorithm *has not been validated*. 

## Tests

I included a couple of basic regression tests in the `tests` folder of the code that
can be run with pytest.

## Acknowledgements

Special thanks to [Tidepool](https://www.tidepool.org) for doing
great things for the diabetes community.

## How to Contribute

### Contribute Code:

Hello! Thanks for considering contributing.

- Step 1. Please open an Issue with a description of what you're trying to add/fix/change
- Step 2. Fork and create a feature branch in the format <some-description>/<your issue number>
- Step 3. Please squash all your commits into one with a good commit message before opening a pull request
- Step 4. Open a pull request, reference your original issue, and provide a concise description of how your changes fixed the issue
- Step 5. Your PR requires approval before it can be merged.

### Contribute Results:

If you've run this and had success or issues, please consider sharing so 
it can be improved. You can message me on [my website](https://www.cameronsummers.com/contact).


## License: [GPLv3](https://www.gnu.org/licenses/gpl-3.0.en.html)



            

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Currently, it interfaces with [Tidepool](https://www.tidepool.org)\naccounts to retrieve data.\n\nThe code uses machine learning to estimate:\n\n- Carbohydate Ratio (CIR)\n- Basal Rate\n- Insulin Sensivity Factor (ISF)\n\nHistorical carbohydrate and insulin data directly estimate CIR and Basal \nRate using Linear Regression. An estimate of Carbohydrate Sensitivity Factor \n(CSF) and the estimate CIR is used to estimate ISF.\n\nHere is an example plot of a fitted model and estimated settings:\n\n![alt text](static/example_settings_plot_plus_aace.jpg)\n\n## Dependencies\n\nDeveloped and tested with Python 3.9\n\n## Installation\n\nFor easy CLI tool create a virtual environment and then run:\n```\npip install insulearner\n```\n\nFor digging into the code to understand what's going on (recommended):\n\n```\ngit clone https://github.com/scaubrey/InsuLearner\n```\n\n## Usage (CLI)\n\nThe install with pip provides a command line interface so you can run `insulearner`.\n\n#### CLI Examples\n\nIf you don't know your Carbohydrate Sensitivity Factor (CSF) I devised\nan estimator based on height and weight. Note: this estimator is an\neducated guess and *not validated*. It's probably better if you estimate\nit yourself.\n\n`insulearner <your_tidepool_email> <your_tidepool_password> --num_days 60 --height_inches 72 --weight_lbs 200 --gender male`\n\nIf you do have an estimate of your CSF through your own testing:\n\n`insulearner <your_tidepool_email> <your_tidepool_password> --num_days 60 --CSF 4.2`\n\n#### More CLI Options\n\n`--agg_period_window_size_hours` This is the size of the time period in days over which\naggregate insulin and carb data. I theorized in [my article](https://www.cameronsummers.com/how_I_calculate_my_sons_insulin_pump_settings_with_machine_learning) \nthat longer periods would converge to better estimates of CIR and Basal Rate. Default\nis 1 day (24 hours) but I have seen good results with many more days.\n\n`--agg_period_hop_size_hours` This is how much to shift over the aggregation\nwindow for each data point. 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