diff --git a/chapters/en/unit2/cnns/convnext.mdx b/chapters/en/unit2/cnns/convnext.mdx
index 4d67f0cc9..746a88b53 100644
--- a/chapters/en/unit2/cnns/convnext.mdx
+++ b/chapters/en/unit2/cnns/convnext.mdx
@@ -12,9 +12,9 @@ The key improvements are:
 - Training techniques
 - Macro design
 - ResNeXt-ify
-- Inverted bottleneck
-- Large kernel sizes
-- Micro design
+- Inverted Bottleneck
+- Large Kernel Sizes
+- Micro Design
 
 We will go through each of the key improvements.
 These designs are not novel in itself. However, you can learn how researchers adapt and modify designs systematically to improve existing models.
@@ -28,10 +28,9 @@ The researchers first discerned that, while architectural design choices are cru
 Inspired by DeiT and Swin Transformers, ConvNext closely adapts their training techniques. Some of the notable changes are:
 - Epochs: Extending the epochs from the original 90 epochs to 300 epochs.
 - Optimizer: Using AdamW optimizer instead of Adam optimizer, which differs in how it handles weight decay.
-- Regularization: Using Stochastic Depth and Label Smoothing as regularization techniques.
 - Mixup (generates a weighted combination of random image pairs), Cutmix (cuts part of an image and replace it with a patch from another image), RandAugment (applies a series of random augmentations such as rotation, translation, and shear), and Random Erasing (randomly selects a rectangle region in an image and erases its pixels with random values) to increase training data.
-Modifying these training procedures has improved ResNet-50's accuracy from 76.1% to 78.8%.
 - Regularization: Using Stochastic Depth and Label Smoothing as regularization techniques.
+
 Modifying these training procedures has improved ResNet-50's accuracy from 76.1% to 78.8%.