Guide-linked quiz · Medium Level
Highway Networks and Skip Connections Quiz
Test gated and residual shortcuts, gradient-flow limits, LSTM inspiration, transformer and U-Net uses, and zero-versus-one gate behavior.
Question 1 of 8
A very deep network struggles with optimization. What can a skip path provide?
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- A very deep network struggles with optimization. What can a skip path provide?
- A guarantee of perfect gradients at every depth
- A more direct signal and gradient route that can ease training
- A proof that more layers always improve accuracy
- A replacement for the loss function
- What does a basic residual block compute?
- output = F(x) multiplied by x
- output = x divided by F(x)
- output = the maximum of F(x) and x
- output = F(x) plus x, where x is the input shortcut
- What inspired the gating mechanism in highway networks?
- LSTM gates from recurrent networks
- Convolutional pooling
- Batch normalization
- Dropout
- In a highway network, what does the transform gate T(x) control?
- The learning rate of the optimizer
- The size of the output image
- How much of the input is transformed versus carried straight through
- The number of layers in the network
- Which modern architecture relies on residual connections around its sublayers?
- K-means clustering
- The decision tree
- Linear regression
- The transformer
- How do U-Net skip connections specifically help segmentation?
- They delete the encoder entirely
- They pass fine spatial detail from the encoder to the decoder
- They convert the image to text
- They reduce the number of output classes to one
- In y = F(x)T(x) + x(1-T(x)), what remains when T(x)=0?
- Only F(x)
- The sum 2x
- The carried input x
- A mandatory zero output
- For the same coupled-gate highway form, what remains when T(x)=1?
- The transformed value F(x)
- Only the original x
- F(x) plus x
- An automatically normalized x
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