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Fixed a number of issues before public announcement (#73)
- Fixed README and index.md wording - Moved images for consistency across binder and html site - Added alt text where appropriate - Moved static images and fixed newline
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# Determining Moore's Law with real data in NumPy
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_The number of transistors reported on a given chip plotted on a log scale in the y axis with the date of introduction on the linear scale x-axis. The blue data points are from a [transistor count table](https://en.wikipedia.org/wiki/Transistor_count#Microprocessors). The red line is an ordinary least squares prediction and the orange line is Moore's law._
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Based on the image inputs and their labels ([supervised learning](https://en.wikipedia.org/wiki/Supervised_learning)), your neural network will be trained to learn their features using forward propagation and backpropagation ([reverse-mode](https://en.wikipedia.org/wiki/Automatic_differentiation#Reverse_accumulation) differentiation). The final output of the network is a vector of 10 scores — one for each handwritten digit image. You will also evaluate how good your model is at classifying the images on the test set.
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This tutorial was adapted from the work by [Andrew Trask](https://github.com/iamtrask/Grokking-Deep-Learning) (with the author's permission).
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Here is a summary of the neural network model architecture and the training process:
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