2016
DOI: 10.1007/s00009-016-0784-7
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An Example Relating the Coarse and Weak Shape

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Cited by 2 publications
(3 citation statements)
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“…It leads to a complete new paper. Another possible way might be, firstly, to find a suitable invariant of the J-shape (pro J -HTop) and, secondly, to prove that it is not an invariant of the coarse shape (pro * -HTop), which again asks for a transfinite construction on an uncountable well ordered index set (of an inverse system) as well as on (J, ≤) (see [25]).…”
Section: A J-shape Isomorphismmentioning
confidence: 99%
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“…It leads to a complete new paper. Another possible way might be, firstly, to find a suitable invariant of the J-shape (pro J -HTop) and, secondly, to prove that it is not an invariant of the coarse shape (pro * -HTop), which again asks for a transfinite construction on an uncountable well ordered index set (of an inverse system) as well as on (J, ≤) (see [25]).…”
Section: A J-shape Isomorphismmentioning
confidence: 99%
“…On that line, the most important has become a certain uniformization of the S-equivalence, called the S * -equivalence, which admits a categorical characterization, [23]. Moreover, it admits (genuine and different; [24][25]) generalizations to all topological spaces as well as to any abstract categorical framework [29], and all the well known shape invariants remain as the invariants of the both generalizations (in addition, [27]).…”
Section: Introductionmentioning
confidence: 99%
“…On that line, the most important has become a certain uniformization of the S-equivalence, called the S * -equivalence, which admits a categorical characterization, [25]. Moreover, it admits (genuine and different; [31], [33]) generalizations to all topological spaces as well as to any abstract categorical framework ( [19], [34], [36]]), and all the well known shape invariants remain as the invariants of the both generalizations (in addition, [18] and [29]).…”
Section: Introductionmentioning
confidence: 99%