Welcome to Anagrammer Crossword Genius! Keep reading below to see if nilpotents is an answer to any crossword puzzle or word game (Scrabble, Words With Friends etc). Scroll down to see all the info we have compiled on nilpotents.
nilpotents
Searching in Crosswords ...
The answer NILPOTENTS has 0 possible clue(s) in existing crosswords.
Searching in Word Games ...
The word NILPOTENTS is VALID in some board games. Check NILPOTENTS in word games in Scrabble, Words With Friends, see scores, anagrams etc.
Searching in Dictionaries ...
Definitions of nilpotents in various dictionaries:
No definitions found
Word Research / Anagrams and more ...
Keep reading for additional results and analysis below.
Nilpotents might refer to |
---|
In topology, a branch of mathematics, a 'Nilpotent space, first defined by E.Dror (1969), is a based topological space X such that* the fundamental group * * * * π * = * * π * * 1 * * * X * * * {\displaystyle \pi =\pi _{1}X} * is a nilpotent group; * * * * * π * * * {\displaystyle \pi } * acts nilpotently on higher homotopy groups * * * * * π * * i * * * X * , * i * ≥ * 2 * * * {\displaystyle \pi _{i}X,i\geq 2} * , i.e. there is a central series * * * * * π * * i * * * X * = * * G * * 1 * * * i * * * ▹ * * G * * 2 * * * i * * * ▹ * ⋯ * ▹ * * G * * * n * * i * * * * * i * * * = * 1 * * * {\displaystyle \pi _{i}X=G_{1}^{i}\triangleright G_{2}^{i}\triangleright \dots \triangleright G_{n_{i}}^{i}=1} * such that the induced action of * * * * π * * * {\displaystyle \pi } * on the quotient * * * * * G * * k * * * i * * * * / * * * G * * k * + * 1 * * * i * * * * * {\displaystyle G_{k}^{i}/G_{k+1}^{i}} * is trivial for all * * * * k * * * {\displaystyle k} * .Simply connected spaces and simple spaces are (trivial) examples of nilpotent spaces, other examples are connected loop spaces. The homotopy fibre of * any map between nilpotent spaces is a disjoint union of nilpotent spaces, the null component of the pointed mapping space Map_*(K,X) where K is a pointed finite dimensional CW complex and X is any pointed space, is a nilpotent space. The odd-dimensional real projective spaces are nilpotent spaces, while the projective plane is not. A basic theorem about nilpotent spaces states that any map that induces an integral homology isomorphism between two nilpotent space is a weak homotopy equivalence. Nilpotent spaces are of great interest in rational homotopy theory, because most constructions applicable to simply connected spaces can be extended to nilpotent spaces. The Bousfield Kan nilpotent completion of a space associates with any connected pointed space X a universal space X^ through which any map of X to a nilpotent space N factors uniquely up to contractible space of choices, often however, X^ itself is not nilpotent but only an i... |