Struct FlickEvent 

pub struct FlickEvent {

    pub time: f32,
    pub frame: usize,
    pub sample_time: f32,
    pub sample_frame: usize,
    pub player: PlayerId,
    pub player_position: Option<[f32; 3]>,
    pub is_team_0: bool,
    pub dodge_time: f32,
    pub dodge_frame: usize,
    pub time_since_dodge: f32,
    pub setup_start_time: f32,
    pub setup_start_frame: usize,
    pub setup_duration: f32,
    pub setup_touch_count: u32,
    pub average_horizontal_gap: f32,
    pub average_vertical_gap: f32,
    pub ball_speed_change: f32,
    pub ball_impulse: [f32; 3],
    pub impulse_away_alignment: f32,
    pub vertical_impulse: f32,
    pub kind: String,
    pub direction: String,
    pub local_ball_position: [f32; 3],
    pub local_ball_impulse: [f32; 3],
    pub dodge_forward_back: f32,
    pub dodge_side: f32,
    pub dodge_torque: Option<[f32; 3]>,
    pub travel_offset_radians: f32,
    pub launch_forward_alignment: f32,
    pub launch_vertical_fraction: f32,
    pub underside_rotation: f32,
    pub confidence: f32,
}

A dodge-powered touch following a short controlled carry setup.

Fields

time: f32

frame: usize

sample_time: f32

sample_frame: usize

player: PlayerId

player_position: Option<[f32; 3]>

is_team_0: bool

dodge_time: f32

dodge_frame: usize

time_since_dodge: f32

setup_start_time: f32

setup_start_frame: usize

setup_duration: f32

setup_touch_count: u32

average_horizontal_gap: f32

average_vertical_gap: f32

ball_speed_change: f32

ball_impulse: [f32; 3]

impulse_away_alignment: f32

vertical_impulse: f32

kind: String

direction: String

local_ball_position: [f32; 3]

local_ball_impulse: [f32; 3]

dodge_forward_back: f32

Dodge direction (car-relative): >0 forward dodge, <0 backflip.

dodge_side: f32

Dodge direction (car-relative): signed sideways component (+right, -left; the handedness source).

dodge_torque: Option<[f32; 3]>

Raw car-relative dodge torque (the flip’s rotation axis) [x, y, z]: y = forward/back, x = left/right, z ≈ 0 (nonzero only when the car is tilted). dodge_forward_back/dodge_side are its normalized 2D projection; this is the full raw signal. None on inputs that don’t replicate dodge torque (e.g. the BakkesMod live path).

travel_offset_radians: f32

Signed horizontal angle (radians) from the car’s facing to its velocity heading at the launch touch (projected to the x/y plane) — how far the car was turned off its line of travel. With the car-relative dodge direction this recovers the dodge direction relative to the run’s motion. 0 when the car’s speed or horizontal facing is too small to be meaningful.

launch_forward_alignment: f32

How forward the ball was launched: the ball’s gravity-compensated launch impulse (horizontal) dotted with the run’s travel heading at the touch, in the range -1 to 1. A high value means the ball was sent forward along the run (a real reverse or forward flick); a low or negative value means it was sent backward or sideways (e.g. a plain backflip, not a reverse flick). 0 when the speed or launch is degenerate.

launch_vertical_fraction: f32

How vertical the launch was: the fraction of the gravity-compensated launch impulse that points up (impulse.z / |impulse| = sin of the launch elevation). A reverse flick sends the ball forward and flat, so this is low (around 0.3-0.45); a plain backflip “flick” pops the ball nearly straight up, so this is high (above 0.8). This is the primary signal separating the two; gates the reverse classification.

underside_rotation: f32

How far the car has rotated onto its side/back at the touch (its underside turned away from straight down): signed, positive when rolled to the car’s right and negative to its left, magnitude about sin(roll angle) so values near 1 mean fully on its side. A reverse flick rolls the car (unlike a plain backflip); gates the reverse classification together with launch_forward_alignment.

confidence: f32

Trait Implementations

impl Clone for FlickEvent

fn clone(&self) -> Self

Returns a duplicate of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl Debug for FlickEvent

fn fmt(&self, f: &mut Formatter<'_>) -> Result

Formats the value using the given formatter.

impl PartialEq for FlickEvent

fn eq(&self, other: &Self) -> bool

Equality operator ==.

fn ne(&self, other: &Rhs) -> bool

Inequality operator !=.

impl Serialize for FlickEvent

fn serialize<__S>(&self, __serializer: __S) -> Result<__S::Ok, __S::Error>

where __S: Serializer,

Serialize this value into the given Serde serializer.

impl StatsEvent for FlickEvent

const DEFINITION: EventDefinition = FLICK_EVENT_DEFINITION

impl StructuralPartialEq for FlickEvent

impl TS for FlickEvent

type WithoutGenerics = FlickEvent

If this type does not have generic parameters, then WithoutGenerics should just be Self. If the type does have generic parameters, then all generic parameters must be replaced with a dummy type, e.g ts_rs::Dummy or (). The only requirement for these dummy types is that EXPORT_TO must be None.

type OptionInnerType = FlickEvent

If the implementing type is std::option::Option<T>, then this associated type is set to T. All other implementations of TS should set this type to Self instead.

fn ident() -> String

Identifier of this type, excluding generic parameters.

fn docs() -> Option<String>

JSDoc comment to describe this type in TypeScript - when TS is derived, docs are automatically read from your doc comments or #[doc = ".."] attributes

fn name() -> String

Name of this type in TypeScript, including generic parameters

fn decl_concrete() -> String

Declaration of this type using the supplied generic arguments. The resulting TypeScript definition will not be generic. For that, see TS::decl(). If this type is not generic, then this function is equivalent to TS::decl().

fn decl() -> String

Declaration of this type, e.g. type User = { user_id: number, ... }. This function will panic if the type has no declaration.

fn inline() -> String

Formats this types definition in TypeScript, e.g { user_id: number }. This function will panic if the type cannot be inlined.

fn inline_flattened() -> String

Flatten a type declaration.
This function will panic if the type cannot be flattened.

fn visit_generics(v: &mut impl TypeVisitor)

where Self: 'static,

Iterates over all type parameters of this type.

fn output_path() -> Option<PathBuf>

Returns the output path to where T should be exported.
The returned path does not include the base directory from TS_RS_EXPORT_DIR.

fn visit_dependencies(v: &mut impl TypeVisitor)

where Self: 'static,

Iterates over all dependency of this type.

fn dependencies() -> Vec<Dependency>

where Self: 'static,

Resolves all dependencies of this type recursively.

fn export() -> Result<(), ExportError>

where Self: 'static,

Manually export this type to the filesystem. To export this type together with all of its dependencies, use TS::export_all.

fn export_all() -> Result<(), ExportError>

where Self: 'static,

Manually export this type to the filesystem, together with all of its dependencies.
To export only this type, without its dependencies, use TS::export.

fn export_all_to(out_dir: impl AsRef<Path>) -> Result<(), ExportError>

where Self: 'static,

Manually export this type into the given directory, together with all of its dependencies.
To export only this type, without its dependencies, use TS::export.

fn export_to_string() -> Result<String, ExportError>

where Self: 'static,

Manually generate bindings for this type, returning a String.
This function does not format the output, even if the format feature is enabled.

fn default_output_path() -> Option<PathBuf>

Returns the output path to where T should be exported.