Chronoscope

A cross-platform matplotlib-based observability tool


Keywords
cli, observability
License
LGPL-3.0
Install
pip install Chronoscope==0.0.1

Documentation

pytest/systest workflow systest workflow

chronoscope

Chronoscope, a cross-platform matplotlib-based observability tool

Chart

alt text

Definitions

$$\mathcal{S} \subset \mathbb{N}.$$ $$\mathcal{T} = \left\langle \mathbb{T},\prec \right\rangle.$$ $$\mathcal{A}:\mathcal{S}\times\Sigma^{c}\times\Sigma^{c}.$$ $$\mathcal{K}:\mathcal{S}\times\mathcal{S}\times\Sigma^{c}.$$ $$\mathcal{R}:\mathcal{S}\times\mathcal{S}.$$ $$relation \triangleq \left\langle origin: \mathcal{S}, dest: \mathcal{S} \right\rangle.$$ $$tick \triangleq \left\langle sm: \mathcal{S}, time: \mathcal{T}, event: \Sigma^{c} \right\rangle.$$ $$attr \triangleq \left\langle sm: \mathcal{S}, key: \Sigma^{c}, val: \Sigma^{c} \right\rangle.$$

Notes

Note 0.0

$$iter_1: \mathcal{S} \to \left\{ \mathcal{S^{1}}, ... \mathcal{S^{p}} \right\},$$ $$iter_1(sm) = \left\{ dest(related\_sm) | related\_sm \in \left\{ rel \in \mathcal{R} | origin(rel) = sm \right\} \right\},$$ $$p = \left| iter_1(sm) \right|.$$

Note 0.1

$$height: \mathcal{S} \to \mathbb{N},$$ $$height(sm_i) = 1 + max(\left\{ height(sm_i) | sm_i \in iter_1(sm_i) \right\}),$$ $$max(\varnothing) = 0.$$

Note 0.2

$$iter: \mathcal{S} \to \left\{ \mathcal{S^{1}}, ... \mathcal{S^{r}} \right\},$$ $$iter(sm_i) = \left\{ sm_i \right\} \cup \bigcup_{i=1}^{height(sm_i)-1}\left( \left\{ iter_1(sm_{i+1}) | iter_1(sm_{i+1}) \in iter_1(sm_i)\right\} \right),$$ $$r = \sum_{i=0}^{height(sm_i)}\left| iter_1(sm_i) \right|.$$

Note 1

$$timeline: \mathcal{S} \to \left\{ \mathcal{K^{1}}, ... \mathcal{K^{q}} \right\},$$ $$timeline(sm_i) = \left\{ tick \in \mathcal{K} | sm(tick)=sm_i \right\},$$ $$q=\left| timeline(sm_i) \right|.$$

Note 2

$$chart: \mathcal{S} \to \left\{ \left\{ \mathcal{K^{1}}, ... \mathcal{K^{q}} \right\}^{1}, ... \left\{ \mathcal{K^{1}}, ... \mathcal{K^{q}} \right\}^{r} \right\}$$ $$chart(sm_i) = \left\{ timeline(sm) | sm \in iter(sm_i) \right\},$$