--- a/README.md
+++ b/README.md
@@ -1,25 +1,24 @@
-# hemorrhage-detection
-
-This repository contains our implementation and training of a combined recurrent-convolutional DNN for intracranial hemorrhage (bleeding inside the brain) detection on CT scans.
-
-![model](docs/model.png)
-
-The architecture that we have developed **vastly outperforms** the standard convolution-only approach: Our model achieves a recall (that is, it correctly detects bleeding) of 94% compared to a recall of 73% when only using a CNN.
-
-The recurrent neural network enables our model to incorporate information from CT slices of the brain above *and* below the current slice when predicting whether the current slice contains a hemorrhage or not. Of course, surrounding slices containing hemorrhages make it more likely for the current slice to also contain one (especially when the slices right above *and* right below show bleeding).
-
-This work is a collaboration of Richard Qiu, Philippe Noël, Jonathan Berman, and Jorma Görns.
-
-## Contents
-
-* "EDA and Data Cleaning.ipynb": Contains our EDA, data cleaning, and shows how we reconstructed complete CT scans of all patients from disjoint DICOM files
-
-* "Windowing PNGs.ipynb": When examining brain CT scans, radiologists rarely look at the raw images (they appear mostly gray to the human eye). Instead, they use so-called "windows"---simple transformations of the raw data that serve to highlight structures of different density in the human brain. The three most common windows for hemorrhage detection are the **bone, brain, and subdural window**. These are also the three windows that we apply to help our model detect hemorrhages. Specifically, we read in black-and-white, one-channel PNGs and turn them into RGB, three-channel PNGs where each channel contains one specific window.
-
-* "Training the CNN.ipynb": Details the training of our feature extractor (specifically, a VGG19 CNN that we train to detect hemorrhages using transfer learning)
-
-* "Feature Extraction.ipynb": We extract the features for the training of our recurrent neural network by feeding all training PNGs to our previously-trained CNN, letting it run its inference, and---for every PNG---grabbing 8192 features from the CNN's last convolutional block
-
-* "Training the R-CNN.ipynb": Details the training of our final model, a **bidirectional LSTM** using features extracted by the CNN
-
-* Finally, the *docs* folder also contains a verbal report of this project.
+# hemorrhage-detection
+
+This repository contains our implementation and training of a combined recurrent-convolutional DNN for intracranial hemorrhage (bleeding inside the brain) detection on CT scans.
+
+
+The architecture that we have developed **vastly outperforms** the standard convolution-only approach: Our model achieves a recall (that is, it correctly detects bleeding) of 94% compared to a recall of 73% when only using a CNN.
+
+The recurrent neural network enables our model to incorporate information from CT slices of the brain above *and* below the current slice when predicting whether the current slice contains a hemorrhage or not. Of course, surrounding slices containing hemorrhages make it more likely for the current slice to also contain one (especially when the slices right above *and* right below show bleeding).
+
+This work is a collaboration of Richard Qiu, Philippe Noël, Jonathan Berman, and Jorma Görns.
+
+## Contents
+
+* "EDA and Data Cleaning.ipynb": Contains our EDA, data cleaning, and shows how we reconstructed complete CT scans of all patients from disjoint DICOM files
+
+* "Windowing PNGs.ipynb": When examining brain CT scans, radiologists rarely look at the raw images (they appear mostly gray to the human eye). Instead, they use so-called "windows"---simple transformations of the raw data that serve to highlight structures of different density in the human brain. The three most common windows for hemorrhage detection are the **bone, brain, and subdural window**. These are also the three windows that we apply to help our model detect hemorrhages. Specifically, we read in black-and-white, one-channel PNGs and turn them into RGB, three-channel PNGs where each channel contains one specific window.
+
+* "Training the CNN.ipynb": Details the training of our feature extractor (specifically, a VGG19 CNN that we train to detect hemorrhages using transfer learning)
+
+* "Feature Extraction.ipynb": We extract the features for the training of our recurrent neural network by feeding all training PNGs to our previously-trained CNN, letting it run its inference, and---for every PNG---grabbing 8192 features from the CNN's last convolutional block
+
+* "Training the R-CNN.ipynb": Details the training of our final model, a **bidirectional LSTM** using features extracted by the CNN
+
+* Finally, the *docs* folder also contains a verbal report of this project.