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Gigapans

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  1. *** Sparse image - please zoom in, or view in full screen mode in a dark room! *** This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex i...

  2. *** Sparse image - please zoom in, or view in full screen mode in a dark room! *** This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex i...

  3. *** Sparse image - please zoom in, or view in full screen mode in a dark room! *** This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex i...

  4. *** Sparse image - please zoom in, or view in full screen mode in a dark room! *** This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex i...

  5. This self-avoiding walk was generated via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex is visited twice. However, it exactly captures the essential physics of the behaviour of polymers in a good solven...

  6. This self-avoiding walk was generated via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex is visited twice. However, it exactly captures the essential physics of the behaviour of polymers in a good solven...

  7. This self-avoiding walk was generated via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex is visited twice. However, it exactly captures the essential physics of the behaviour of polymers in a good solven...

  8. This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex is visited twice. However, it exactly captures the essential physics of the behaviour...

  9. This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex is visited twice. However, it exactly captures the essential physics of the behaviour...

  10. This is a self-avoiding walk sampled from the uniform distribution via a new implementation of the pivot algorithm. The self-avoiding walk (SAW) is an extremely simple model: a SAW is a walk on the lattice such that no lattice vertex is visited twice. However, it exactly captures the essential physics of the behaviour...

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