use std::{ cmp::Ordering, collections::{HashSet, VecDeque}, fmt, net::IpAddr, }; use bollard::service::Port; use jiff::{Timestamp, tz::TimeZone}; use ratatui::{ style::Color, widgets::{ListItem, ListState}, }; use crate::config::AppColors; use super::Header; const ONE_KB: f64 = 1000.0; const ONE_MB: f64 = ONE_KB * 1000.0; const ONE_GB: f64 = ONE_MB * 1000.0; #[derive(Debug, Clone, Eq, Hash, PartialEq)] pub struct ContainerId(String); impl From<&str> for ContainerId { fn from(x: &str) -> Self { Self(x.to_owned()) } } impl ContainerId { pub fn get(&self) -> &str { self.0.as_str() } /// Only return first 8 chars of id, is usually more than enough for uniqueness /// TODO container id is a hex string, so can assume that 0..=8 will always return a 8 char ascii &str - need to update tests to use real ids, or atleast strings of the correct-ish length pub fn get_short(&self) -> String { self.0.chars().take(8).collect::() } } impl Ord for ContainerId { fn cmp(&self, other: &Self) -> Ordering { self.0.cmp(&other.0) } } impl PartialOrd for ContainerId { fn partial_cmp(&self, other: &Self) -> Option { Some(self.cmp(other)) } } pub trait Contains { fn contains(&self, input: &str) -> bool; } /// ContainerName and ContainerImage are simple structs, used so can implement custom fmt functions to them macro_rules! unit_struct { ($name:ident) => { #[derive(Debug, Clone, PartialEq, Eq, PartialOrd, Ord)] pub struct $name(String); impl From for $name { fn from(value: String) -> Self { Self(value) } } #[cfg(test)] impl From<&str> for $name { fn from(value: &str) -> Self { Self(value.to_owned()) } } impl $name { pub fn get(&self) -> &str { self.0.as_str() } pub fn set(&mut self, value: String) { self.0 = value; } } impl Contains for $name { fn contains(&self, input: &str) -> bool { self.0.to_lowercase().contains(input) } } impl std::fmt::Display for $name { fn fmt(&self, f: &mut std::fmt::Formatter) -> std::fmt::Result { if self.0.chars().count() >= 30 { write!(f, "{}…", self.0.chars().take(29).collect::()) } else { write!(f, "{}", self.0) } } } }; } unit_struct!(ContainerName); unit_struct!(ContainerImage); #[derive(Debug, Clone, Copy, PartialEq, Eq)] pub struct ContainerPorts { pub ip: Option, pub private: u16, pub public: Option, } impl From for ContainerPorts { fn from(value: Port) -> Self { Self { ip: value.ip.and_then(|i| i.parse::().ok()), private: value.private_port, public: value.public_port, } } } impl ContainerPorts { pub fn len_ip(&self) -> usize { self.ip .as_ref() .map_or(0, |i| i.to_string().chars().count()) } pub fn len_private(&self) -> usize { format!("{}", self.private).chars().count() } pub fn len_public(&self) -> usize { format!("{}", self.public.unwrap_or_default()) .chars() .count() } /// Return as tuple of Strings, ip address, private port, and public port pub fn get_all(&self) -> (String, String, String) { ( self.ip .as_ref() .map_or(String::new(), std::string::ToString::to_string), format!("{}", self.private), self.public.map_or(String::new(), |s| s.to_string()), ) } } #[derive(Debug, Clone, PartialEq, Eq)] pub struct StatefulList { pub state: ListState, pub items: Vec, } impl StatefulList { pub fn new(items: Vec) -> Self { Self { state: ListState::default(), items, } } pub fn end(&mut self) { let len = self.items.len(); if len > 0 { self.state.select(Some(self.items.len() - 1)); } } pub fn start(&mut self) { self.state.select(Some(0)); } pub fn next(&mut self) { if !self.items.is_empty() { self.state.select(Some( self.state.selected().map_or( 0, |i| { if i < self.items.len() - 1 { i + 1 } else { i } }, ), )); } } pub fn previous(&mut self) { if !self.items.is_empty() { self.state.select(Some( self.state .selected() .map_or(0, |i| if i == 0 { 0 } else { i - 1 }), )); } } /// Return the current status of the select list, e.g. 2/5, pub fn get_state_title(&self) -> String { if self.items.is_empty() { String::new() } else { let len = self.items.len(); let count = self .state .selected() .map_or(0, |value| if len > 0 { value + 1 } else { value }); format!(" {count}/{len}") } } } /// Store the containers status in a struct, so can then check for healthy/unhealthy status /// It's usually something like "Up 1 hour", "Exited (0) 10 hours ago", "Up 10 minutes (unhealthy)" #[derive(Debug, Clone, Eq, PartialEq, PartialOrd)] pub struct ContainerStatus(String); impl From for ContainerStatus { fn from(value: String) -> Self { Self(value) } } impl ContainerStatus { /// Check if a container is unhealthy pub fn unhealthy(&self) -> bool { self.contains("(unhealthy)") } /// Get a reference to the source string pub const fn get(&self) -> &String { &self.0 } } impl Contains for ContainerStatus { /// Check if the state contains a specific string fn contains(&self, item: &str) -> bool { self.0.to_lowercase().contains(item) } } /// By default a container's running status will be healthy #[derive(Debug, Clone, Copy, Eq, PartialEq, PartialOrd)] pub enum RunningState { Healthy, Unhealthy, } /// States of the container #[derive(Debug, Clone, Copy, Eq, PartialEq)] pub enum State { Dead, Exited, Paused, Removing, Restarting, Running(RunningState), Unknown, } impl State { /// The container is alive if the start is Running, either healthy or unhealthy pub const fn is_alive(self) -> bool { matches!(self, Self::Running(_)) } /// Check if state is running & healthy pub const fn is_healthy(self) -> bool { match self { Self::Running(x) => match x { RunningState::Healthy => true, RunningState::Unhealthy => false, }, _ => false, } } /// Color of the state for the containers section pub const fn get_color(self, colors: AppColors) -> Color { match self { Self::Dead => colors.container_state.dead, Self::Exited => colors.container_state.exited, Self::Paused => colors.container_state.paused, Self::Removing => colors.container_state.removing, Self::Restarting => colors.container_state.restarting, Self::Running(RunningState::Healthy) => colors.container_state.running_healthy, Self::Running(RunningState::Unhealthy) => colors.container_state.running_unhealthy, Self::Unknown => colors.container_state.unknown, } } /// Dirty way to create order for the state, rather than impl Ord pub const fn order(self) -> u8 { match self { Self::Running(RunningState::Healthy) => 0, Self::Running(RunningState::Unhealthy) => 1, Self::Paused => 2, Self::Restarting => 3, Self::Removing => 4, Self::Exited => 5, Self::Dead => 6, Self::Unknown => 7, } } } /// Need status, to check if container is unhealthy or not impl From<(&str, &ContainerStatus)> for State { fn from((input, status): (&str, &ContainerStatus)) -> Self { match input { "dead" => Self::Dead, "exited" => Self::Exited, "paused" => Self::Paused, "removing" => Self::Removing, "restarting" => Self::Restarting, "running" => { if status.unhealthy() { Self::Running(RunningState::Unhealthy) } else { Self::Running(RunningState::Healthy) } } _ => Self::Unknown, } } } /// Again, need status, to check if container is unhealthy or not impl From<(Option, &ContainerStatus)> for State { fn from((input, status): (Option, &ContainerStatus)) -> Self { input.map_or(Self::Unknown, |input| Self::from((input.as_str(), status))) } } impl fmt::Display for State { fn fmt(&self, f: &mut fmt::Formatter) -> fmt::Result { let disp = match self { Self::Dead => "✖ dead", Self::Exited => "✖ exited", Self::Paused => "॥ paused", Self::Removing => "removing", Self::Restarting => "↻ restarting", Self::Running(RunningState::Healthy) => "✓ running", Self::Running(RunningState::Unhealthy) => "! running", Self::Unknown => "? unknown", }; write!(f, "{disp}") } } /// Items for the container control list #[derive(Debug, Clone, Copy, PartialEq, Eq)] pub enum DockerCommand { Pause, Restart, Start, Stop, Resume, Delete, } impl DockerCommand { pub const fn get_color(self, colors: AppColors) -> Color { match self { Self::Pause => colors.commands.pause, Self::Restart => colors.commands.restart, Self::Start => colors.commands.start, Self::Stop => colors.commands.stop, Self::Delete => colors.commands.delete, Self::Resume => colors.commands.resume, } } /// Docker commands available depending on the containers state pub fn gen_vec(state: State) -> Vec { match state { State::Dead | State::Exited => vec![Self::Start, Self::Restart, Self::Delete], State::Paused => vec![Self::Resume, Self::Stop, Self::Delete], State::Restarting => vec![Self::Stop, Self::Delete], State::Running(_) => vec![Self::Pause, Self::Restart, Self::Stop, Self::Delete], _ => vec![Self::Delete], } } } impl fmt::Display for DockerCommand { fn fmt(&self, f: &mut fmt::Formatter) -> fmt::Result { let disp = match self { Self::Pause => "pause", Self::Delete => "delete", Self::Restart => "restart", Self::Start => "start", Self::Stop => "stop", Self::Resume => "resume", }; write!(f, "{disp}") } } pub trait Stats { fn get_value(&self) -> f64; } /// Struct for frequently updated CPU stats /// So can use custom display formatter /// Use trait Stats for use as generic in draw_chart function #[derive(Debug, Default, Clone, Copy)] pub struct CpuStats(f64); impl CpuStats { pub const fn new(value: f64) -> Self { Self(value) } } impl Eq for CpuStats {} impl PartialEq for CpuStats { fn eq(&self, other: &Self) -> bool { self.0 == other.0 } } impl PartialOrd for CpuStats { fn partial_cmp(&self, other: &Self) -> Option { Some(self.cmp(other)) } } impl Ord for CpuStats { fn cmp(&self, other: &Self) -> Ordering { if self.0 > other.0 { Ordering::Greater } else if (self.0 - other.0).abs() < 0.01 { Ordering::Equal } else { Ordering::Less } } } impl Stats for CpuStats { fn get_value(&self) -> f64 { self.0 } } impl fmt::Display for CpuStats { fn fmt(&self, f: &mut fmt::Formatter) -> fmt::Result { let disp = format!("{:05.2}%", self.0); write!(f, "{disp:>x$}", x = f.width().unwrap_or(1)) } } /// Struct for frequently updated memory usage stats /// So can use custom display formatter /// Use trait Stats for use as generic in draw_chart function #[derive(Debug, Default, Clone, Copy, Eq)] pub struct ByteStats(u64); impl PartialEq for ByteStats { fn eq(&self, other: &Self) -> bool { self.0 == other.0 } } impl PartialOrd for ByteStats { fn partial_cmp(&self, other: &Self) -> Option { Some(self.cmp(other)) } } impl Ord for ByteStats { fn cmp(&self, other: &Self) -> Ordering { self.0.cmp(&other.0) } } impl ByteStats { pub const fn new(value: u64) -> Self { Self(value) } pub const fn update(&mut self, value: u64) { self.0 = value; } } #[allow(clippy::cast_precision_loss)] impl Stats for ByteStats { fn get_value(&self) -> f64 { self.0 as f64 } } /// convert from bytes to kB, MB, GB etc impl fmt::Display for ByteStats { fn fmt(&self, f: &mut fmt::Formatter) -> fmt::Result { let as_f64 = self.get_value(); let p = match as_f64 { x if x >= ONE_GB => format!("{y:.2} GB", y = as_f64 / ONE_GB), x if x >= ONE_MB => format!("{y:.2} MB", y = as_f64 / ONE_MB), _ => format!("{y:.2} kB", y = as_f64 / ONE_KB), }; write!(f, "{p:>x$}", x = f.width().unwrap_or(1)) } } pub type MemTuple = (Vec<(f64, f64)>, ByteStats, State); pub type CpuTuple = (Vec<(f64, f64)>, CpuStats, State); /// Used to make sure that each log entry, for each container, is unique, /// will only push a log entry into the logs vec if timestamp of said log entry isn't in the hashset #[derive(Debug, Clone, Hash, PartialEq, Eq)] pub struct LogsTz(String); impl fmt::Display for LogsTz { fn fmt(&self, f: &mut fmt::Formatter) -> fmt::Result { write!(f, "{}", self.0) } } impl LogsTz { /// With a given &str, split into a logtz and content, so that we only need to `use split_once()` once /// The docker log, which should always contain a timestamp, is in the format `2023-01-14T19:13:30.783138328Z Lorem ipsum dolor sit amet` pub fn splitter(input: &str) -> (Self, String) { let (tz, content) = input.split_once(' ').unwrap_or_default(); (Self(tz.to_owned()), content.to_owned()) } /// Display the timestamp in a given format, and if provided, with a timezone offset pub fn display_with_formatter(&self, tz: Option<&TimeZone>, format: &str) -> Option { self.0.parse::().map_or(None, |t| { if let Some(tz) = tz.as_ref() { let tz = tz.iana_name()?; let z = t.in_tz(tz).ok()?; Some(z.strftime(format).to_string()) } else { Some(t.strftime(format).to_string()) } }) } } /// Store the logs alongside a HashSet, each log *should* generate a unique timestamp, /// so if we store the timestamp separately in a HashSet, we can then check if we should insert a log line into the /// stateful list dependent on whethere the timestamp is in the HashSet or not #[derive(Debug, Clone, PartialEq, Eq)] pub struct Logs { logs: StatefulList>, tz: HashSet, } impl Default for Logs { fn default() -> Self { let mut logs = StatefulList::new(vec![]); logs.end(); Self { logs, tz: HashSet::new(), } } } impl Logs { /// Only allow a new log line to be inserted if the log timestamp isn't in the tz HashSet pub fn insert(&mut self, line: ListItem<'static>, tz: LogsTz) { if self.tz.insert(tz) { self.logs.items.push(line); } } pub fn to_vec(&self) -> Vec> { self.logs.items.clone() } /// The rest of the methods are basically forwarding from the underlying StatefulList pub fn get_state_title(&self) -> String { self.logs.get_state_title() } pub fn next(&mut self) { self.logs.next(); } pub fn previous(&mut self) { self.logs.previous(); } pub fn end(&mut self) { self.logs.end(); } pub fn start(&mut self) { self.logs.start(); } pub fn len(&self) -> usize { self.logs.items.len() } pub const fn state(&mut self) -> &mut ListState { &mut self.logs.state } } /// Info for each container #[derive(Debug, Clone, PartialEq, Eq)] pub struct ContainerItem { pub cpu_stats: VecDeque, pub created: u64, pub docker_controls: StatefulList, pub id: ContainerId, pub image: ContainerImage, pub is_oxker: bool, pub last_updated: u64, pub logs: Logs, pub mem_limit: ByteStats, pub mem_stats: VecDeque, pub name: ContainerName, pub ports: Vec, pub rx: ByteStats, pub state: State, pub status: ContainerStatus, pub tx: ByteStats, } /// Basic display information, for when running in debug mode impl fmt::Display for ContainerItem { fn fmt(&self, f: &mut fmt::Formatter) -> fmt::Result { write!( f, "{}, {}, {}, {}", self.id.get_short(), self.name, self.cpu_stats.back().unwrap_or(&CpuStats::new(0.0)), self.mem_stats.back().unwrap_or(&ByteStats::new(0)) ) } } impl ContainerItem { #[allow(clippy::too_many_arguments)] /// Create a new container item pub fn new( created: u64, id: ContainerId, image: String, is_oxker: bool, name: String, ports: Vec, state: State, status: ContainerStatus, ) -> Self { let mut docker_controls = StatefulList::new(DockerCommand::gen_vec(state)); docker_controls.start(); Self { cpu_stats: VecDeque::with_capacity(60), created, docker_controls, id, image: image.into(), is_oxker, last_updated: 0, logs: Logs::default(), mem_limit: ByteStats::default(), mem_stats: VecDeque::with_capacity(60), name: name.into(), ports, rx: ByteStats::default(), state, status, tx: ByteStats::default(), } } /// Find the max value in the cpu stats VecDeque fn max_cpu_stats(&self) -> CpuStats { self.cpu_stats .iter() .max() .map_or_else(CpuStats::default, |value| *value) } /// Find the max value in the mem stats VecDeque fn max_mem_stats(&self) -> ByteStats { self.mem_stats .iter() .max() .map_or_else(ByteStats::default, |value| *value) } /// Convert cpu stats into a vec for the charts function #[allow(clippy::cast_precision_loss)] fn get_cpu_dataset(&self) -> Vec<(f64, f64)> { self.cpu_stats .iter() .enumerate() .map(|i| (i.0 as f64, i.1.0)) .collect::>() } /// Convert mem stats into a Vec for the charts function #[allow(clippy::cast_precision_loss)] fn get_mem_dataset(&self) -> Vec<(f64, f64)> { self.mem_stats .iter() .enumerate() .map(|i| (i.0 as f64, i.1.0 as f64)) .collect::>() } /// Get all cpu chart data fn get_cpu_chart_data(&self) -> CpuTuple { (self.get_cpu_dataset(), self.max_cpu_stats(), self.state) } /// Get all mem chart data fn get_mem_chart_data(&self) -> MemTuple { (self.get_mem_dataset(), self.max_mem_stats(), self.state) } /// Get chart info for cpu & memory in one function /// So only need to call .lock() once pub fn get_chart_data(&self) -> (CpuTuple, MemTuple) { (self.get_cpu_chart_data(), self.get_mem_chart_data()) } } /// Container information panel headings + widths, for nice pretty formatting #[derive(Debug, Clone, Copy, PartialEq, Eq)] pub struct Columns { pub name: (Header, u8), pub state: (Header, u8), pub status: (Header, u8), pub cpu: (Header, u8), pub mem: (Header, u8, u8), pub id: (Header, u8), pub image: (Header, u8), pub net_rx: (Header, u8), pub net_tx: (Header, u8), } impl Columns { /// (Column titles, minimum header string length) pub const fn new() -> Self { Self { name: (Header::Name, 4), state: (Header::State, 5), status: (Header::Status, 6), cpu: (Header::Cpu, 3), mem: (Header::Memory, 7, 7), id: (Header::Id, 8), image: (Header::Image, 5), net_rx: (Header::Rx, 4), net_tx: (Header::Tx, 4), } } } #[cfg(test)] #[allow(clippy::unwrap_used)] mod tests { use jiff::tz::TimeZone; use ratatui::widgets::ListItem; use crate::{ app_data::{ContainerImage, Logs, LogsTz, RunningState}, ui::log_sanitizer, }; use super::{ByteStats, ContainerName, ContainerStatus, CpuStats, State}; #[test] /// Display CpuStats as a string fn test_container_state_cpustats_to_string() { let test = |f: f64, s: &str| { assert_eq!(CpuStats::new(f).to_string(), s); }; test(0.0, "00.00%"); test(1.5, "01.50%"); test(15.15, "15.15%"); test(150.15, "150.15%"); } #[test] /// Display bytestats as a string, convert into correct data unit (Kb, MB, GB) fn test_container_state_bytestats_to_string() { let test = |u: u64, s: &str| { assert_eq!(ByteStats::new(u).to_string(), s); }; test(0, "0.00 kB"); test(150, "0.15 kB"); test(1500, "1.50 kB"); test(150_000, "150.00 kB"); test(1_500_000, "1.50 MB"); test(15_000_000, "15.00 MB"); test(150_000_000, "150.00 MB"); test(1_500_000_000, "1.50 GB"); test(15_000_000_000, "15.00 GB"); test(150_000_000_000, "150.00 GB"); } #[test] /// ContainerName as string truncated correctly fn test_container_state_container_name_to_string() { let result = ContainerName::from("name_01"); assert_eq!(result.to_string(), "name_01"); let result = ContainerName::from("name_01_name_01_name_01_name_01_"); assert_eq!(result.to_string(), "name_01_name_01_name_01_name_…"); let result = result.get(); assert_eq!(result, "name_01_name_01_name_01_name_01_"); } #[test] /// ContainerImage as string truncated correctly fn test_container_state_container_image() { let result = ContainerImage::from("name_01"); assert_eq!(result.to_string(), "name_01"); let result = ContainerImage::from("name_01_name_01_name_01_name_01_"); assert_eq!(result.to_string(), "name_01_name_01_name_01_name_…"); let result = result.get(); assert_eq!(result, "name_01_name_01_name_01_name_01_"); } #[test] /// LogzTz correctly splits a line by timestamp fn test_container_state_logz_splitter() { let input = "2023-01-14T12:01:20.012345678Z Lorem ipsum dolor sit amet"; let log_tz = LogsTz::splitter(input); assert_eq!( log_tz.0, super::LogsTz("2023-01-14T12:01:20.012345678Z".to_owned()) ); assert_eq!(log_tz.1, "Lorem ipsum dolor sit amet"); } #[test] /// LogsTz display correctly formats with a given timestamp string fn test_container_state_logz_display() { let input = "2023-01-14T12:01:20.012345678Z Lorem ipsum dolor sit amet"; let log_tz = LogsTz::splitter(input); let result = log_tz .0 .display_with_formatter(None, "%Y-%m-%dT%H:%M:%S.%8f"); assert!(result.is_some()); let result = result.unwrap(); assert_eq!(result, "2023-01-14T12:01:20.01234567"); let result = log_tz.0.display_with_formatter(None, "%Y-%m-%d %H:%M:%S"); assert!(result.is_some()); let result = result.unwrap(); assert_eq!(result, "2023-01-14 12:01:20"); let result = log_tz.0.display_with_formatter(None, "%Y-%j"); assert!(result.is_some()); let result = result.unwrap(); assert_eq!(result, "2023-014"); } #[test] /// LogsTz display correctly formats with a given timestamp string & timezone fn test_container_state_logz_display_with_timezone() { let input = "2023-01-14T12:01:20.012345678Z Lorem ipsum dolor sit amet"; let log_tz = LogsTz::splitter(input); let timezone = Some(TimeZone::get("Asia/Tokyo").unwrap()); let result = log_tz .0 .display_with_formatter(timezone.as_ref(), "%Y-%m-%dT%H:%M:%S.%8f"); assert!(result.is_some()); let result = result.unwrap(); assert_eq!(result, "2023-01-14T21:01:20.01234567"); let result = log_tz .0 .display_with_formatter(timezone.as_ref(), "%Y-%m-%d %H:%M:%S"); assert!(result.is_some()); let result = result.unwrap(); assert_eq!(result, "2023-01-14 21:01:20"); let result = log_tz.0.display_with_formatter(timezone.as_ref(), "%Y-%j"); assert!(result.is_some()); let result = result.unwrap(); assert_eq!(result, "2023-014"); } #[test] /// Logs can only contain 1 entry per LogzTz fn test_container_state_logz() { let input = "2023-01-14T19:13:30.783138328Z Lorem ipsum dolor sit amet"; let (tz, _) = LogsTz::splitter(input); let mut logs = Logs::default(); let line = log_sanitizer::remove_ansi(input); logs.insert(ListItem::new(line.clone()), tz.clone()); logs.insert(ListItem::new(line.clone()), tz.clone()); logs.insert(ListItem::new(line), tz); assert_eq!(logs.logs.items.len(), 1); let input = "2023-01-15T19:13:30.783138328Z Lorem ipsum dolor sit amet"; let (tz, _) = LogsTz::splitter(input); let line = log_sanitizer::remove_ansi(input); logs.insert(ListItem::new(line.clone()), tz.clone()); logs.insert(ListItem::new(line.clone()), tz.clone()); logs.insert(ListItem::new(line), tz); assert_eq!(logs.logs.items.len(), 2); } #[test] /// check ContainerStatus unhealthy state fn test_container_state_unhealthy() { let input = ContainerStatus::from("Up 1 hour".to_owned()); assert!(!input.unhealthy()); let input = ContainerStatus::from("Up 1 hour (unhealthy)".to_owned()); assert!(input.unhealthy()); } #[test] /// Generate container State from a &str and &ContainerStatus fn test_container_status_unhealthy() { let healthy = ContainerStatus::from("Up 1 hour".to_owned()); let unhealthy = ContainerStatus::from("Up 1 hour (unhealthy)".to_owned()); // Running and healthy let input = State::from(("running", &healthy)); assert_eq!(input, State::Running(RunningState::Healthy)); // Running and unhealthy let input = State::from(("running", &unhealthy)); assert_eq!(input, State::Running(RunningState::Unhealthy)); // Dead let input = State::from(("dead", &healthy)); assert_eq!(input, State::Dead); // Exited let input = State::from(("exited", &healthy)); assert_eq!(input, State::Exited); // Paused let input = State::from(("paused", &healthy)); assert_eq!(input, State::Paused); // Removing let input = State::from(("removing", &healthy)); assert_eq!(input, State::Removing); // Restarting let input = State::from(("restarting", &healthy)); assert_eq!(input, State::Restarting); // Unknown let input = State::from(("oxker", &healthy)); assert_eq!(input, State::Unknown); } }