Cantor Function: Difference between revisions
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\\ \sup_{y\leq x,\, y\in\mathcal{C}} c(y), & x\in [0,1]\setminus \mathcal{C}.\\ \end{cases} | \\ \sup_{y\leq x,\, y\in\mathcal{C}} c(y), & x\in [0,1]\setminus \mathcal{C}.\\ \end{cases} | ||
</math> | </math> | ||
===Properties of Cantor Functions=== | |||
* Cantor Function is continuous everywhere, zero derivative almost everywhere. | |||
* lack of absolute continuity. | |||
* Monotonicity | |||
* Its value goes from 0 to 1 as its argument reaches from 0 to 1. | |||
==Cantor Function Alternative== | |||
The Cantor Function can be construct iteratively using homework construction. | |||
==References== |
Revision as of 04:12, 17 December 2020
Cantor ternary Function
if is the Cantor set on [0,1], then the Cantor function c : [0,1] → [0,1] can be defined as
Properties of Cantor Functions
- Cantor Function is continuous everywhere, zero derivative almost everywhere.
- lack of absolute continuity.
- Monotonicity
- Its value goes from 0 to 1 as its argument reaches from 0 to 1.
Cantor Function Alternative
The Cantor Function can be construct iteratively using homework construction.