Why Pigeons at Rest Are at the Center of Complexity Theory
When pigeons outnumber pigeonholes, some birds must double up. This obvious statement, and its inverse, have deep connections to many areas of math and computer science.
Read MoreWhen pigeons outnumber pigeonholes, some birds must double up. This obvious statement, and its inverse, have deep connections to many areas of math and computer science.
Read MoreWhen pigeons outnumber pigeonholes, some birds must double up. This obvious statement, and its inverse, have deep connections to many areas of math and computer science.
Read MoreIt’s been difficult to find important questions that quantum computers can answer faster than classical machines, but a new algorithm appears to do so for some critical optimization tasks.
Read MoreBy understanding the churning region near singularities, physicists hope they might be able to reconcile gravity and quantum mechanics.
Read MoreLarger models can pull off a wider variety of feats, but the reduced footprint of smaller models makes them attractive tools.
Read MoreLarger models can pull off a wider variety of feats, but the reduced footprint of smaller models makes them attractive tools.
Read MoreMath and computer science researchers have long known that some questions are fundamentally unanswerable. Now physicists are exploring how physical systems put hard limits on what we can predict.
Read MoreMath and computer science researchers have long known that some questions are fundamentally unanswerable. Now physicists are exploring how physical systems put hard limits on what we can predict.
Read MoreTen years ago, researchers proved that adding full memory can theoretically aid computation. They’re just now beginning to understand the implications.
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