Users are excited about Google DeepMind's HOPE Framework for quantifying neuron capacity because it opens up promising new research problems in extending the math to broader architectures.
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13/13 It has been a long journey! HOPE opens up exciting open problems for the community, like extending this math to broader architectures or dynamically growing and shrinking networks during training. 🌱 Big thanks to my collaborator and mentor Peter L. Bartlett. Grateful to @sfrei_ @_vaishnavh @junokim_ai @miouantoinette @mc_mozer @brunorganised, Gil Shamir, and Alan Malek, for the amazing chats!
3/13 Also context and data distribution matter a ton too. Two neurons might have the exact same weight norm, but one could be "dead" if the data distribution only ever pushes it into the negative zone of its ReLU. We really need a better metric.
2/13 If you want to know how important a neuron is, the standard move is to look at the magnitude of its physical weights (like the L2 norm). But this actually can miserably fail. Deep networks have scale symmetries, so raw weight size is often just an optimization artifact.
Users are excited about Google DeepMind's HOPE Framework for quantifying neuron capacity because it opens up promising new research problems in extending the math to broader architectures.
Based on 2 visible X reactions from 2 accounts; directional sample.
Ask a question below.
Published answers will appear here.