hyperlog/crates/hyperlog-tui/src/components.rs

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Rust
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use std::ops::Deref;
use anyhow::Result;
use hyperlog_core::log::GraphItem;
use itertools::Itertools;
use ratatui::{prelude::*, widgets::*};
use crate::state::SharedState;
pub struct GraphExplorer<'a> {
state: SharedState,
pub inner: GraphExplorerState<'a>,
}
pub struct GraphExplorerState<'a> {
current_path: Option<&'a str>,
current_position: Vec<usize>,
graph: Option<GraphItem>,
}
impl GraphExplorer<'_> {
pub fn new(state: SharedState) -> Self {
Self {
state,
inner: GraphExplorerState::<'_> {
current_path: None,
current_position: Vec::new(),
graph: None,
},
}
}
pub fn update_graph(&mut self) -> Result<&mut Self> {
let graph = self
.state
.querier
.get(
// FIXME: Replace with a setting or default instead, probaby user
"kjuulh",
self.inner
.current_path
.map(|p| p.split('.').collect::<Vec<_>>())
.unwrap_or_default(),
)
.ok_or(anyhow::anyhow!("graph should've had an item"))?;
self.inner.graph = Some(graph);
Ok(self)
}
fn linearize_graph(&self) -> Option<MovementGraph> {
self.inner.graph.clone().map(|g| g.into())
}
/// Will only incrmeent to the next level
///
/// Current: 0.1.0
/// Available: 0.1.0.[0,1,2]
/// Choses: 0.1.0.0 else nothing
pub(crate) fn move_right(&mut self) -> Result<()> {
if let Some(graph) = self.linearize_graph() {
tracing::debug!("graph: {:?}", graph);
let position_items = &self.inner.current_position;
if let Some(next_item) = graph.next_right(position_items) {
self.inner.current_position.push(next_item.index);
tracing::trace!("found next item: {:?}", self.inner.current_position);
}
}
Ok(())
}
/// Will only incrmeent to the next level
///
/// Current: 0.1.0
/// Available: 0.[0,1,2].0
/// Choses: 0.1 else nothing
pub(crate) fn move_left(&mut self) -> Result<()> {
if let Some(last) = self.inner.current_position.pop() {
tracing::trace!(
"found last item: {:?}, popped: {}",
self.inner.current_position,
last
);
}
Ok(())
}
/// Will move up if a sibling exists, or up to the most common sibling between sections
///
/// Current: 0.1.1
/// Available: 0.[0.[0,1],1.[0,1]]
/// Chose: 0.1.0 again 0.0 We don't choose a subitem in the next three instead we just find the most common sibling
pub(crate) fn move_up(&mut self) -> Result<()> {
if let Some(graph) = self.linearize_graph() {
let position_items = &self.inner.current_position;
if let Some(next_item) = graph.next_up(position_items) {
self.inner.current_position = next_item;
tracing::trace!("found next up: {:?}", self.inner.current_position)
}
}
Ok(())
}
/// Will move down if a sibling exists, or down to the most common sibling between sections
///
/// Current: 0.0.0
/// Available: 0.[0.[0,1],1.[0,1]]
/// Chose: 0.0.1 again 0.1
pub(crate) fn move_down(&mut self) -> Result<()> {
if let Some(graph) = self.linearize_graph() {
let position_items = &self.inner.current_position;
if let Some(next_item) = graph.next_down(position_items) {
self.inner.current_position = next_item;
tracing::trace!("found next down: {:?}", self.inner.current_position)
}
}
Ok(())
}
}
trait RenderGraph {
fn render_graph(&self, items: &[usize]) -> Vec<Line>;
fn render_graph_spans(&self, items: &[usize]) -> Vec<Vec<Span>>;
}
impl RenderGraph for MovementGraph {
/// render_graph takes each level of items, renders them, and finally renders a strongly set selector for the current item the user is on
/// This is done from buttom up, and composed via. string padding
fn render_graph(&self, items: &[usize]) -> Vec<Line> {
// Gets the inner content of the strings
let mut lines = Vec::new();
for item in &self.items {
match items.split_first().map(|(first, rest)| {
if item.index == *first {
(true, rest)
} else {
(false, rest)
}
}) {
Some((true, rest)) => {
if rest.is_empty() {
lines
.push(Line::raw(format!("- {}", item.name)).style(Style::new().bold()));
} else {
lines.push(
Line::raw(format!("- {}", item.name))
.patch_style(Style::new().dark_gray()),
);
}
lines.push("".into());
let embedded_sections = item.values.render_graph_spans(rest);
for section in &embedded_sections {
let mut line = vec![Span::raw(" ")];
line.extend_from_slice(section);
lines.push(Line::from(line));
}
}
_ => {
lines.push(
Line::raw(format!("- {}", item.name)).patch_style(Style::new().dark_gray()),
);
lines.push("".into());
let embedded_sections = item.values.render_graph_spans(&[]);
for section in &embedded_sections {
let mut line = vec![Span::raw(" ")];
line.extend_from_slice(section);
lines.push(Line::from(line));
}
}
}
}
lines
}
fn render_graph_spans(&self, items: &[usize]) -> Vec<Vec<Span>> {
let mut lines = Vec::new();
for item in &self.items {
match items.split_first().map(|(first, rest)| {
if item.index == *first {
(true, rest)
} else {
(false, rest)
}
}) {
Some((true, rest)) => {
let mut line = Vec::new();
if rest.is_empty() {
line.push(Span::raw(format!("- {}", item.name)).style(Style::new().bold()));
} else {
line.push(
Span::raw(format!("- {}", item.name))
.patch_style(Style::new().dark_gray()),
);
}
lines.push(line);
lines.push(vec!["".into()]);
let embedded_sections = item.values.render_graph_spans(rest);
for section in &embedded_sections {
let mut line = vec![Span::raw(" ")];
line.extend_from_slice(section);
lines.push(line);
}
}
_ => {
lines
.push(vec![Span::raw(format!("- {}", item.name))
.patch_style(Style::new().dark_gray())]);
lines.push(vec!["".into()]);
let embedded_sections = item.values.render_graph_spans(&[]);
for section in &embedded_sections {
let mut line = vec![Span::raw(" ")];
line.extend_from_slice(section);
lines.push(line);
}
}
}
}
lines
}
}
impl<'a> StatefulWidget for GraphExplorer<'a> {
type State = GraphExplorerState<'a>;
fn render(self, area: Rect, buf: &mut Buffer, state: &mut Self::State) {
let Rect { height, .. } = area;
let _height = height as usize;
if let Some(graph) = &state.graph {
let movement_graph: MovementGraph = graph.clone().into();
let lines = movement_graph.render_graph(&state.current_position);
let para = Paragraph::new(lines);
para.render(area, buf);
}
}
}
#[derive(PartialEq, Eq, Debug, Clone)]
struct MovementGraphItem {
index: usize,
name: String,
values: MovementGraph,
}
#[derive(Default, PartialEq, Eq, Debug, Clone)]
struct MovementGraph {
items: Vec<MovementGraphItem>,
}
impl MovementGraph {
fn next_right(&self, items: &[usize]) -> Option<MovementGraphItem> {
match items.split_first() {
Some((current_index, rest)) => match self.items.get(*current_index) {
Some(next_item) => next_item.values.next_right(rest),
None => None,
},
None => self.items.first().cloned(),
}
}
fn next_up(&self, items: &[usize]) -> Option<Vec<usize>> {
match items.split_last() {
Some((0, _)) => None,
Some((current_index, rest)) => {
let mut vec = rest.to_vec();
vec.push(current_index - 1);
Some(vec)
}
// May need to reduce this to an Some(Vec::default()) instead
//None => Some(self.items.iter().map(|i| i.index).collect_vec()),
None => None,
}
}
fn next_down(&self, items: &[usize]) -> Option<Vec<usize>> {
match items.split_last() {
Some((current_index, rest)) => {
if let Some(current_item) = self.get_graph_item(rest) {
if *current_index + 1 < current_item.items.len() {
let mut vec = rest.to_vec();
vec.push(current_index + 1);
Some(vec)
} else {
None
}
} else {
None
}
}
// May need to reduce this to an Some(Vec::default()) instead
//None => Some(self.items.iter().map(|i| i.index).collect_vec()),
None => None,
}
}
fn get_graph_item(&self, items: &[usize]) -> Option<&MovementGraph> {
match items.split_first() {
Some((first, rest)) => match self.items.get(*first).map(|s| &s.values) {
Some(next_graph) => next_graph.get_graph_item(rest),
None => Some(self),
},
None => Some(self),
}
}
}
impl From<Box<GraphItem>> for MovementGraph {
fn from(value: Box<GraphItem>) -> Self {
value.deref().clone().into()
}
}
impl From<GraphItem> for MovementGraph {
fn from(value: GraphItem) -> Self {
let mut graph = MovementGraph::default();
match value {
GraphItem::User(sections) | GraphItem::Section(sections) => {
let graph_items = sections
.iter()
.sorted_by(|(a, _), (b, _)| Ord::cmp(a, b))
.enumerate()
.map(|(i, (key, value))| MovementGraphItem {
index: i,
name: key.clone(),
values: value.clone().into(),
})
.collect::<Vec<_>>();
graph.items = graph_items;
}
GraphItem::Item { .. } => {}
}
graph
}
}
#[cfg(test)]
mod test {
use std::collections::BTreeMap;
use hyperlog_core::log::{GraphItem, ItemState};
use similar_asserts::assert_eq;
use crate::components::MovementGraphItem;
use super::MovementGraph;
/// Lets say we've got a graph
/// ```json
/// {
/// "type": "user",
/// "something": {
/// "type": "section",
/// "something": {
/// "type": "section",
/// "something-else": {
/// "type": "section",
/// "blabla": {
/// "type": "section"
/// }
/// }
/// }
/// }
/// }
/// ```
/// We can get something out like
/// [
/// 0: {key: something, values: [
/// 0: {key: something, values: [
/// ...
/// ]}
/// ]}
/// ]
#[test]
fn test_can_transform_to_movement_graph() {
let graph = GraphItem::User(BTreeMap::from([(
"0".to_string(),
Box::new(GraphItem::Section(BTreeMap::from([
(
"00".to_string(),
Box::new(GraphItem::Section(BTreeMap::new())),
),
(
"01".to_string(),
Box::new(GraphItem::Section(BTreeMap::from([
(
"010".to_string(),
Box::new(GraphItem::Item {
title: "some-title".into(),
description: "some-desc".into(),
state: ItemState::NotDone,
}),
),
(
"011".to_string(),
Box::new(GraphItem::Item {
title: "some-title".into(),
description: "some-desc".into(),
state: ItemState::NotDone,
}),
),
]))),
),
]))),
)]));
let actual: MovementGraph = graph.into();
assert_eq!(
MovementGraph {
items: vec![MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "00".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "01".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "010".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "011".into(),
values: MovementGraph::default(),
},
]
}
},
]
}
}]
},
actual
);
}
#[test]
fn test_get_graph_item() -> anyhow::Result<()> {
let graph = MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "0".into(),
values: MovementGraph::default(),
},
],
},
},
MovementGraphItem {
index: 1,
name: "0".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "0".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 2,
name: "0".into(),
values: MovementGraph::default(),
},
],
},
},
MovementGraphItem {
index: 2,
name: "0".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "0".into(),
values: MovementGraph::default(),
},
],
},
},
],
};
let actual_default = graph.get_graph_item(&[]);
assert_eq!(Some(&graph), actual_default);
let actual_first = graph.get_graph_item(&[0]);
assert_eq!(graph.items.first().map(|i| &i.values), actual_first);
let actual_second = graph.get_graph_item(&[1]);
assert_eq!(graph.items.get(1).map(|i| &i.values), actual_second);
let actual_nested = graph.get_graph_item(&[0, 0]);
assert_eq!(
graph
.items
.first()
.and_then(|i| i.values.items.first())
.map(|i| &i.values),
actual_nested
);
let actual_nested = graph.get_graph_item(&[0, 1]);
assert_eq!(
graph
.items
.first()
.and_then(|i| i.values.items.get(1))
.map(|i| &i.values),
actual_nested
);
let actual_nested = graph.get_graph_item(&[1, 2]);
assert_eq!(
graph
.items
.get(1)
.and_then(|i| i.values.items.get(2))
.map(|i| &i.values),
actual_nested
);
Ok(())
}
#[test]
fn can_next_down() -> anyhow::Result<()> {
let graph = MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph {
items: vec![MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph::default(),
}],
},
},
MovementGraphItem {
index: 1,
name: "1".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "1".into(),
values: MovementGraph::default(),
},
],
},
},
MovementGraphItem {
index: 2,
name: "2".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "0".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 1,
name: "1".into(),
values: MovementGraph::default(),
},
MovementGraphItem {
index: 2,
name: "2".into(),
values: MovementGraph::default(),
},
],
},
},
],
};
let actual = graph.next_down(&[]);
assert_eq!(None, actual);
let actual = graph.next_down(&[0]);
assert_eq!(Some(vec![1]), actual);
let actual = graph.next_down(&[1]);
assert_eq!(Some(vec![2]), actual);
let actual = graph.next_down(&[2]);
assert_eq!(None, actual);
let graph = MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "other".into(),
values: MovementGraph {
items: vec![MovementGraphItem {
index: 0,
name: "other".into(),
values: MovementGraph {
items: vec![MovementGraphItem {
index: 0,
name: "other".into(),
values: MovementGraph { items: vec![] },
}],
},
}],
},
},
MovementGraphItem {
index: 1,
name: "some".into(),
values: MovementGraph { items: vec![] },
},
MovementGraphItem {
index: 2,
name: "something".into(),
values: MovementGraph {
items: vec![
MovementGraphItem {
index: 0,
name: "else".into(),
values: MovementGraph { items: vec![] },
},
MovementGraphItem {
index: 1,
name: "third".into(),
values: MovementGraph { items: vec![] },
},
],
},
},
],
};
let actual = graph.next_down(&[0]);
assert_eq!(Some(vec![1]), actual);
Ok(())
}
}