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6 Commits

Author SHA1 Message Date
7a7a83c835 path to node progress 2024-01-25 09:53:14 +11:00
de63e4f19f Grackle: Refactor: Move error types into their own module (#1319)
Refactor: Move error types into their own submodule
2024-01-24 05:47:56 +00:00
b70b271e6b Grackle: compile KCL bools to EP bools (#1318) 2024-01-24 05:36:09 +00:00
08b7cdc5f6 Grackle: pipeline expressions (#1315)
Grackle can now compile |> pipelines. This means that these two programs compile to identical execution plans:

```kcl
fn double = (x) => { return x * 2 }
fn triple = (x) => { return x * 3 }
let x = 1 |> double(%) |> triple(%) // should be 6
```
```kcl
fn double = (x) => { return x * 2 }
fn triple = (x) => { return x * 3 }
let x = triple(double(1)) // should be 6
```

This required adding passing "what should % actually resolve to" through the program. This required modifying every call site of `plan_to_bind` and `plan_to_compute` to pass the data. To avoid doing this again, I wrapped that data into a struct called `Context` so that when we have more data like it, we can just add a new field and won't need to change every call site.
2024-01-24 10:05:40 +11:00
6efe6b54c0 Fix typo in onboarding (#1316)
fix typo
2024-01-23 17:46:34 -05:00
69f72d62e0 Rework initial engine connection logic (#1205) (#1221)
Rework EngineConnection class (#1205)

Co-authored-by: lf94 <inbox@leefallat.ca>
2024-01-23 13:13:43 -05:00
11 changed files with 800 additions and 373 deletions

View File

@ -48,6 +48,72 @@ type Timeout = ReturnType<typeof setTimeout>
type ClientMetrics = Models['ClientMetrics_type']
type Value<T, U> = U extends undefined
? { type: T; value: U }
: U extends void
? { type: T }
: { type: T; value: U }
type State<T, U> = Value<T, U>
enum EngineConnectionStateType {
Fresh = 'fresh',
Connecting = 'connecting',
ConnectionEstablished = 'connection-established',
Disconnected = 'disconnected',
}
enum DisconnectedType {
Error = 'error',
Timeout = 'timeout',
Quit = 'quit',
}
type DisconnectedValue =
| State<DisconnectedType.Error, Error | undefined>
| State<DisconnectedType.Timeout, void>
| State<DisconnectedType.Quit, void>
// These are ordered by the expected sequence.
enum ConnectingType {
WebSocketConnecting = 'websocket-connecting',
WebSocketEstablished = 'websocket-established',
PeerConnectionCreated = 'peer-connection-created',
ICEServersSet = 'ice-servers-set',
SetLocalDescription = 'set-local-description',
OfferedSdp = 'offered-sdp',
ReceivedSdp = 'received-sdp',
SetRemoteDescription = 'set-remote-description',
WebRTCConnecting = 'webrtc-connecting',
ICECandidateReceived = 'ice-candidate-received',
TrackReceived = 'track-received',
DataChannelRequested = 'data-channel-requested',
DataChannelConnecting = 'data-channel-connecting',
DataChannelEstablished = 'data-channel-established',
}
type ConnectingValue =
| State<ConnectingType.WebSocketConnecting, void>
| State<ConnectingType.WebSocketEstablished, void>
| State<ConnectingType.PeerConnectionCreated, void>
| State<ConnectingType.ICEServersSet, void>
| State<ConnectingType.SetLocalDescription, void>
| State<ConnectingType.OfferedSdp, void>
| State<ConnectingType.ReceivedSdp, void>
| State<ConnectingType.SetRemoteDescription, void>
| State<ConnectingType.WebRTCConnecting, void>
| State<ConnectingType.TrackReceived, void>
| State<ConnectingType.ICECandidateReceived, void>
| State<ConnectingType.DataChannelRequested, string>
| State<ConnectingType.DataChannelConnecting, string>
| State<ConnectingType.DataChannelEstablished, void>
type EngineConnectionState =
| State<EngineConnectionStateType.Fresh, void>
| State<EngineConnectionStateType.Connecting, ConnectingValue>
| State<EngineConnectionStateType.ConnectionEstablished, void>
| State<EngineConnectionStateType.Disconnected, DisconnectedValue>
// EngineConnection encapsulates the connection(s) to the Engine
// for the EngineCommandManager; namely, the underlying WebSocket
// and WebRTC connections.
@ -55,10 +121,28 @@ class EngineConnection {
websocket?: WebSocket
pc?: RTCPeerConnection
unreliableDataChannel?: RTCDataChannel
mediaStream?: MediaStream
private _state: EngineConnectionState = {
type: EngineConnectionStateType.Fresh,
}
get state(): EngineConnectionState {
return this._state
}
set state(next: EngineConnectionState) {
console.log(`${JSON.stringify(this.state)}${JSON.stringify(next)}`)
if (next.type === EngineConnectionStateType.Disconnected) {
console.trace()
const sub = next.value
if (sub.type === DisconnectedType.Error) {
console.error(sub.value)
}
}
this._state = next
}
private ready: boolean
private connecting: boolean
private dead: boolean
private failedConnTimeout: Timeout | null
readonly url: string
@ -94,74 +178,77 @@ class EngineConnection {
}) {
this.url = url
this.token = token
this.ready = false
this.connecting = false
this.dead = false
this.failedConnTimeout = null
this.onWebsocketOpen = onWebsocketOpen
this.onDataChannelOpen = onDataChannelOpen
this.onEngineConnectionOpen = onEngineConnectionOpen
this.onConnectionStarted = onConnectionStarted
this.onClose = onClose
this.onNewTrack = onNewTrack
// TODO(paultag): This ought to be tweakable.
const pingIntervalMs = 10000
// Without an interval ping, our connection will timeout.
let pingInterval = setInterval(() => {
if (this.dead) {
clearInterval(pingInterval)
}
if (this.isReady()) {
// When we're online, every 10 seconds, we'll attempt to put a 'ping'
// command through the WebSocket connection. This will help both ends
// of the connection maintain the TCP connection without hitting a
// timeout condition.
this.send({ type: 'ping' })
switch (this.state.type as EngineConnectionStateType) {
case EngineConnectionStateType.ConnectionEstablished:
this.send({ type: 'ping' })
break
case EngineConnectionStateType.Disconnected:
clearInterval(pingInterval)
break
default:
break
}
}, pingIntervalMs)
const connectionTimeoutMs = VITE_KC_CONNECTION_TIMEOUT_MS
let connectInterval = setInterval(() => {
if (this.dead) {
clearInterval(connectInterval)
return
let connectRetryInterval = setInterval(() => {
if (this.state.type !== EngineConnectionStateType.Disconnected) return
switch (this.state.value.type) {
case DisconnectedType.Error:
clearInterval(connectRetryInterval)
break
case DisconnectedType.Timeout:
console.log('Trying to reconnect')
this.connect()
break
default:
break
}
if (this.isReady()) {
return
}
console.log('connecting via retry')
this.connect()
}, connectionTimeoutMs)
}
// isConnecting will return true when connect has been called, but the full
// WebRTC is not online.
isConnecting() {
return this.connecting
return this.state.type === EngineConnectionStateType.Connecting
}
// isReady will return true only when the WebRTC *and* WebSocket connection
// are connected. During setup, the WebSocket connection comes online first,
// which is used to establish the WebRTC connection. The EngineConnection
// is not "Ready" until both are connected.
isReady() {
return this.ready
return this.state.type === EngineConnectionStateType.ConnectionEstablished
}
tearDown() {
this.dead = true
this.close()
this.disconnectAll()
this.state = {
type: EngineConnectionStateType.Disconnected,
value: { type: DisconnectedType.Quit },
}
}
// shouldTrace will return true when Sentry should be used to instrument
// the Engine.
shouldTrace() {
return Sentry.getCurrentHub()?.getClient()?.getOptions()?.sendClientReports
}
// connect will attempt to connect to the Engine over a WebSocket, and
// establish the WebRTC connections.
//
// This will attempt the full handshake, and retry if the connection
// did not establish.
connect() {
console.log('connect was called')
if (this.isConnecting() || this.isReady()) {
return
}
@ -195,71 +282,269 @@ class EngineConnection {
let handshakeSpan: SpanPromise
let iceSpan: SpanPromise
const spanStart = (op: string) =>
new SpanPromise(webrtcMediaTransaction.startChild({ op }))
if (this.shouldTrace()) {
webrtcMediaTransaction = Sentry.startTransaction({
name: 'webrtc-media',
webrtcMediaTransaction = Sentry.startTransaction({ name: 'webrtc-media' })
websocketSpan = spanStart('websocket')
}
const createPeerConnection = () => {
this.pc = new RTCPeerConnection()
// Data channels MUST BE specified before SDP offers because requesting
// them affects what our needs are!
const DATACHANNEL_NAME_UMC = 'unreliable_modeling_cmds'
this.pc.createDataChannel(DATACHANNEL_NAME_UMC)
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.DataChannelRequested,
value: DATACHANNEL_NAME_UMC,
},
}
this.pc.addEventListener('icecandidate', (event) => {
if (event.candidate === null) {
return
}
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.ICECandidateReceived,
},
}
// Request a candidate to use
this.send({
type: 'trickle_ice',
candidate: event.candidate.toJSON(),
})
})
websocketSpan = new SpanPromise(
webrtcMediaTransaction.startChild({ op: 'websocket' })
)
this.pc.addEventListener('icecandidateerror', (_event: Event) => {
const event = _event as RTCPeerConnectionIceErrorEvent
console.warn(
`ICE candidate returned an error: ${event.errorCode}: ${event.errorText} for ${event.url}`
)
})
// https://developer.mozilla.org/en-US/docs/Web/API/RTCPeerConnection/connectionstatechange_event
// Event type: generic Event type...
this.pc.addEventListener('connectionstatechange', (event: any) => {
console.log('connectionstatechange: ' + event.target?.connectionState)
switch (event.target?.connectionState) {
// From what I understand, only after have we done the ICE song and
// dance is it safest to connect the video tracks / stream
case 'connected':
if (this.shouldTrace()) {
iceSpan.resolve?.()
}
// Let the browser attach to the video stream now
this.onNewTrack({ conn: this, mediaStream: this.mediaStream! })
break
case 'failed':
this.disconnectAll()
this.state = {
type: EngineConnectionStateType.Disconnected,
value: {
type: DisconnectedType.Error,
value: new Error(
'failed to negotiate ice connection; restarting'
),
},
}
break
default:
break
}
})
this.pc.addEventListener('track', (event) => {
const mediaStream = event.streams[0]
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.TrackReceived,
},
}
if (this.shouldTrace()) {
let mediaStreamTrack = mediaStream.getVideoTracks()[0]
mediaStreamTrack.addEventListener('unmute', () => {
// let settings = mediaStreamTrack.getSettings()
// mediaTrackSpan.span.setTag("fps", settings.frameRate)
// mediaTrackSpan.span.setTag("width", settings.width)
// mediaTrackSpan.span.setTag("height", settings.height)
mediaTrackSpan.resolve?.()
})
}
this.webrtcStatsCollector = (): Promise<ClientMetrics> => {
return new Promise((resolve, reject) => {
if (mediaStream.getVideoTracks().length !== 1) {
reject(new Error('too many video tracks to report'))
return
}
let videoTrack = mediaStream.getVideoTracks()[0]
void this.pc?.getStats(videoTrack).then((videoTrackStats) => {
let client_metrics: ClientMetrics = {
rtc_frames_decoded: 0,
rtc_frames_dropped: 0,
rtc_frames_received: 0,
rtc_frames_per_second: 0,
rtc_freeze_count: 0,
rtc_jitter_sec: 0.0,
rtc_keyframes_decoded: 0,
rtc_total_freezes_duration_sec: 0.0,
}
// TODO(paultag): Since we can technically have multiple WebRTC
// video tracks (even if the Server doesn't at the moment), we
// ought to send stats for every video track(?), and add the stream
// ID into it. This raises the cardinality of collected metrics
// when/if we do, but for now, just report the one stream.
videoTrackStats.forEach((videoTrackReport) => {
if (videoTrackReport.type === 'inbound-rtp') {
client_metrics.rtc_frames_decoded =
videoTrackReport.framesDecoded || 0
client_metrics.rtc_frames_dropped =
videoTrackReport.framesDropped || 0
client_metrics.rtc_frames_received =
videoTrackReport.framesReceived || 0
client_metrics.rtc_frames_per_second =
videoTrackReport.framesPerSecond || 0
client_metrics.rtc_freeze_count =
videoTrackReport.freezeCount || 0
client_metrics.rtc_jitter_sec = videoTrackReport.jitter || 0.0
client_metrics.rtc_keyframes_decoded =
videoTrackReport.keyFramesDecoded || 0
client_metrics.rtc_total_freezes_duration_sec =
videoTrackReport.totalFreezesDuration || 0
} else if (videoTrackReport.type === 'transport') {
// videoTrackReport.bytesReceived,
// videoTrackReport.bytesSent,
}
})
resolve(client_metrics)
})
})
}
// The app is eager to use the MediaStream; as soon as onNewTrack is
// called, the following sequence happens:
// EngineConnection.onNewTrack -> StoreState.setMediaStream ->
// Stream.tsx reacts to mediaStream change, setting a video element.
// We wait until connectionstatechange changes to "connected"
// to pass it to the rest of the application.
this.mediaStream = mediaStream
})
this.pc.addEventListener('datachannel', (event) => {
this.unreliableDataChannel = event.channel
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.DataChannelConnecting,
value: event.channel.label,
},
}
this.unreliableDataChannel.addEventListener('open', (event) => {
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.DataChannelEstablished,
},
}
if (this.shouldTrace()) {
dataChannelSpan.resolve?.()
}
this.onDataChannelOpen(this)
// Everything is now connected.
this.state = { type: EngineConnectionStateType.ConnectionEstablished }
this.onEngineConnectionOpen(this)
})
this.unreliableDataChannel.addEventListener('close', (event) => {
console.log(event)
console.log('unreliable data channel closed')
this.disconnectAll()
this.unreliableDataChannel = undefined
if (this.areAllConnectionsClosed()) {
this.state = {
type: EngineConnectionStateType.Disconnected,
value: { type: DisconnectedType.Quit },
}
}
})
this.unreliableDataChannel.addEventListener('error', (event) => {
this.disconnectAll()
this.state = {
type: EngineConnectionStateType.Disconnected,
value: {
type: DisconnectedType.Error,
value: new Error(event.toString()),
},
}
})
})
}
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.WebSocketConnecting,
},
}
this.websocket = new WebSocket(this.url, [])
this.websocket.binaryType = 'arraybuffer'
this.pc = new RTCPeerConnection()
this.pc.createDataChannel('unreliable_modeling_cmds')
this.websocket.addEventListener('open', (event) => {
console.log('Connected to websocket, waiting for ICE servers')
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.WebSocketEstablished,
},
}
this.onWebsocketOpen(this)
// This is required for when KCMA is running stand-alone / within Tauri.
// Otherwise when run in a browser, the token is sent implicitly via
// the Cookie header.
if (this.token) {
this.send({ headers: { Authorization: `Bearer ${this.token}` } })
}
})
this.pc.addEventListener('icecandidateerror', (_event) => {
const event = _event as RTCPeerConnectionIceErrorEvent
console.error(
`ICE candidate returned an error: ${event.errorCode}: ${event.errorText} for ${event.url}`
)
})
this.pc.addEventListener('connectionstatechange', (event) => {
if (this.pc?.iceConnectionState === 'connected') {
if (this.shouldTrace()) {
iceSpan.resolve?.()
}
} else if (this.pc?.iceConnectionState === 'failed') {
// failed is a terminal state; let's explicitly kill the
// connection to the server at this point.
console.log('failed to negotiate ice connection; restarting')
this.close()
}
})
this.websocket.addEventListener('open', (event) => {
if (this.shouldTrace()) {
websocketSpan.resolve?.()
handshakeSpan = new SpanPromise(
webrtcMediaTransaction.startChild({ op: 'handshake' })
)
iceSpan = new SpanPromise(
webrtcMediaTransaction.startChild({ op: 'ice' })
)
dataChannelSpan = new SpanPromise(
webrtcMediaTransaction.startChild({
op: 'data-channel',
})
)
mediaTrackSpan = new SpanPromise(
webrtcMediaTransaction.startChild({
op: 'media-track',
})
)
handshakeSpan = spanStart('handshake')
iceSpan = spanStart('ice')
dataChannelSpan = spanStart('data-channel')
mediaTrackSpan = spanStart('media-track')
}
if (this.shouldTrace()) {
Promise.all([
void Promise.all([
handshakeSpan.promise,
iceSpan.promise,
dataChannelSpan.promise,
@ -269,18 +554,30 @@ class EngineConnection {
webrtcMediaTransaction?.finish()
})
}
this.onWebsocketOpen(this)
})
this.websocket.addEventListener('close', (event) => {
console.log('websocket connection closed', event)
this.close()
this.disconnectAll()
this.websocket = undefined
if (this.areAllConnectionsClosed()) {
this.state = {
type: EngineConnectionStateType.Disconnected,
value: { type: DisconnectedType.Quit },
}
}
})
this.websocket.addEventListener('error', (event) => {
console.log('websocket connection error', event)
this.close()
this.disconnectAll()
this.state = {
type: EngineConnectionStateType.Disconnected,
value: {
type: DisconnectedType.Error,
value: new Error(event.toString()),
},
}
})
this.websocket.addEventListener('message', (event) => {
@ -314,28 +611,137 @@ class EngineConnection {
}
let resp = message.resp
if (!resp) {
// If there's no body to the response, we can bail here.
// If there's no body to the response, we can bail here.
// !resp.type is usually "pong" response for our "ping"
if (!resp || !resp.type) {
return
}
if (resp.type === 'sdp_answer') {
let answer = resp.data?.answer
if (!answer || answer.type === 'unspecified') {
return
}
console.log('received', resp)
if (this.pc?.signalingState !== 'stable') {
// If the connection is stable, we shouldn't bother updating the
// SDP, since we have a stable connection to the backend. If we
// need to renegotiate, the whole PeerConnection needs to get
// tore down.
this.pc?.setRemoteDescription(
new RTCSessionDescription({
type: answer.type,
sdp: answer.sdp,
switch (resp.type) {
case 'ice_server_info':
let ice_servers = resp.data?.ice_servers
// Now that we have some ICE servers it makes sense
// to start initializing the RTCPeerConnection. RTCPeerConnection
// will begin the ICE process.
createPeerConnection()
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.PeerConnectionCreated,
},
}
// No ICE servers can be valid in a local dev. env.
if (ice_servers?.length === 0) {
console.warn('No ICE servers')
this.pc?.setConfiguration({})
} else {
// When we set the Configuration, we want to always force
// iceTransportPolicy to 'relay', since we know the topology
// of the ICE/STUN/TUN server and the engine. We don't wish to
// talk to the engine in any configuration /other/ than relay
// from a infra POV.
this.pc?.setConfiguration({
iceServers: ice_servers,
iceTransportPolicy: 'relay',
})
)
}
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.ICEServersSet,
},
}
// We have an ICE Servers set now. We just setConfiguration, so let's
// start adding things we care about to the PeerConnection and let
// ICE negotiation happen in the background. Everything from here
// until the end of this function is setup of our end of the
// PeerConnection and waiting for events to fire our callbacks.
// Add a transceiver to our SDP offer
this.pc?.addTransceiver('video', {
direction: 'recvonly',
})
// Create a session description offer based on our local environment
// that we will send to the remote end. The remote will send back
// what it supports via sdp_answer.
this.pc
?.createOffer()
.then((offer: RTCSessionDescriptionInit) => {
console.log(offer)
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.SetLocalDescription,
},
}
return this.pc?.setLocalDescription(offer).then(() => {
this.send({
type: 'sdp_offer',
offer,
})
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.OfferedSdp,
},
}
})
})
.catch((error: Error) => {
console.error(error)
// The local description is invalid, so there's no point continuing.
this.disconnectAll()
this.state = {
type: EngineConnectionStateType.Disconnected,
value: {
type: DisconnectedType.Error,
value: error,
},
}
})
break
case 'sdp_answer':
let answer = resp.data?.answer
if (!answer || answer.type === 'unspecified') {
return
}
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.ReceivedSdp,
},
}
// As soon as this is set, RTCPeerConnection tries to
// establish a connection.
// @ts-ignore
// Have to ignore because dom.ts doesn't have the right type
void this.pc?.setRemoteDescription(answer)
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.SetRemoteDescription,
},
}
this.state = {
type: EngineConnectionStateType.Connecting,
value: {
type: ConnectingType.WebRTCConnecting,
},
}
if (this.shouldTrace()) {
// When both ends have a local and remote SDP, we've been able to
@ -343,194 +749,46 @@ class EngineConnection {
// servers, but this is hand-shook.
handshakeSpan.resolve?.()
}
}
} else if (resp.type === 'trickle_ice') {
let candidate = resp.data?.candidate
this.pc?.addIceCandidate(candidate as RTCIceCandidateInit)
} else if (resp.type === 'ice_server_info' && this.pc) {
console.log('received ice_server_info')
let ice_servers = resp.data?.ice_servers
break
if (ice_servers?.length > 0) {
// When we set the Configuration, we want to always force
// iceTransportPolicy to 'relay', since we know the topology
// of the ICE/STUN/TUN server and the engine. We don't wish to
// talk to the engine in any configuration /other/ than relay
// from a infra POV.
this.pc.setConfiguration({
iceServers: ice_servers,
iceTransportPolicy: 'relay',
})
} else {
this.pc?.setConfiguration({})
}
case 'trickle_ice':
let candidate = resp.data?.candidate
console.log('trickle_ice: using this candidate: ', candidate)
void this.pc?.addIceCandidate(candidate as RTCIceCandidateInit)
break
// We have an ICE Servers set now. We just setConfiguration, so let's
// start adding things we care about to the PeerConnection and let
// ICE negotiation happen in the background. Everything from here
// until the end of this function is setup of our end of the
// PeerConnection and waiting for events to fire our callbacks.
this.pc.addEventListener('icecandidate', (event) => {
if (!this.pc || !this.websocket) return
if (event.candidate !== null) {
console.log('sending trickle ice candidate')
const { candidate } = event
this.send({
type: 'trickle_ice',
candidate: candidate.toJSON(),
})
}
})
// Offer to receive 1 video track
this.pc.addTransceiver('video', {})
// Finally (but actually firstly!), to kick things off, we're going to
// generate our SDP, set it on our PeerConnection, and let the server
// know about our capabilities.
this.pc
.createOffer()
.then(async (descriptionInit) => {
await this?.pc?.setLocalDescription(descriptionInit)
console.log('sent sdp_offer begin')
this.send({
type: 'sdp_offer',
offer: this.pc?.localDescription,
})
})
.catch(console.log)
} else if (resp.type === 'metrics_request') {
if (this.webrtcStatsCollector === undefined) {
// TODO: Error message here?
return
}
this.webrtcStatsCollector().then((client_metrics) => {
this.send({
type: 'metrics_response',
metrics: client_metrics,
})
})
}
})
this.pc.addEventListener('track', (event) => {
const mediaStream = event.streams[0]
if (this.shouldTrace()) {
let mediaStreamTrack = mediaStream.getVideoTracks()[0]
mediaStreamTrack.addEventListener('unmute', () => {
// let settings = mediaStreamTrack.getSettings()
// mediaTrackSpan.span.setTag("fps", settings.frameRate)
// mediaTrackSpan.span.setTag("width", settings.width)
// mediaTrackSpan.span.setTag("height", settings.height)
mediaTrackSpan.resolve?.()
})
}
this.webrtcStatsCollector = (): Promise<ClientMetrics> => {
return new Promise((resolve, reject) => {
if (mediaStream.getVideoTracks().length !== 1) {
reject(new Error('too many video tracks to report'))
case 'metrics_request':
if (this.webrtcStatsCollector === undefined) {
// TODO: Error message here?
return
}
let videoTrack = mediaStream.getVideoTracks()[0]
this.pc?.getStats(videoTrack).then((videoTrackStats) => {
let client_metrics: ClientMetrics = {
rtc_frames_decoded: 0,
rtc_frames_dropped: 0,
rtc_frames_received: 0,
rtc_frames_per_second: 0,
rtc_freeze_count: 0,
rtc_jitter_sec: 0.0,
rtc_keyframes_decoded: 0,
rtc_total_freezes_duration_sec: 0.0,
}
// TODO(paultag): Since we can technically have multiple WebRTC
// video tracks (even if the Server doesn't at the moment), we
// ought to send stats for every video track(?), and add the stream
// ID into it. This raises the cardinality of collected metrics
// when/if we do, but for now, just report the one stream.
videoTrackStats.forEach((videoTrackReport) => {
if (videoTrackReport.type === 'inbound-rtp') {
client_metrics.rtc_frames_decoded =
videoTrackReport.framesDecoded || 0
client_metrics.rtc_frames_dropped =
videoTrackReport.framesDropped || 0
client_metrics.rtc_frames_received =
videoTrackReport.framesReceived || 0
client_metrics.rtc_frames_per_second =
videoTrackReport.framesPerSecond || 0
client_metrics.rtc_freeze_count =
videoTrackReport.freezeCount || 0
client_metrics.rtc_jitter_sec = videoTrackReport.jitter || 0.0
client_metrics.rtc_keyframes_decoded =
videoTrackReport.keyFramesDecoded || 0
client_metrics.rtc_total_freezes_duration_sec =
videoTrackReport.totalFreezesDuration || 0
} else if (videoTrackReport.type === 'transport') {
// videoTrackReport.bytesReceived,
// videoTrackReport.bytesSent,
}
void this.webrtcStatsCollector().then((client_metrics) => {
this.send({
type: 'metrics_response',
metrics: client_metrics,
})
resolve(client_metrics)
})
})
break
}
this.onNewTrack({
conn: this,
mediaStream: mediaStream,
})
})
this.pc.addEventListener('datachannel', (event) => {
this.unreliableDataChannel = event.channel
console.log('accepted unreliable data channel', event.channel.label)
this.unreliableDataChannel.addEventListener('open', (event) => {
console.log('unreliable data channel opened', event)
if (this.shouldTrace()) {
dataChannelSpan.resolve?.()
}
this.onDataChannelOpen(this)
this.ready = true
this.connecting = false
// Do this after we set the connection is ready to avoid errors when
// we try to send messages before the connection is ready.
this.onEngineConnectionOpen(this)
})
this.unreliableDataChannel.addEventListener('close', (event) => {
console.log('unreliable data channel closed')
this.close()
})
this.unreliableDataChannel.addEventListener('error', (event) => {
console.log('unreliable data channel error')
this.close()
})
})
const connectionTimeoutMs = VITE_KC_CONNECTION_TIMEOUT_MS
if (this.failedConnTimeout) {
console.log('clearing timeout before set')
clearTimeout(this.failedConnTimeout)
this.failedConnTimeout = null
}
console.log('timeout set')
this.failedConnTimeout = setTimeout(() => {
if (this.isReady()) {
return
}
console.log('engine connection timeout on connection, closing')
this.close()
this.failedConnTimeout = null
this.disconnectAll()
this.state = {
type: EngineConnectionStateType.Disconnected,
value: {
type: DisconnectedType.Timeout,
},
}
}, connectionTimeoutMs)
this.onConnectionStarted(this)
@ -549,23 +807,15 @@ class EngineConnection {
typeof message === 'string' ? message : JSON.stringify(message)
)
}
close() {
disconnectAll() {
this.websocket?.close()
this.pc?.close()
this.unreliableDataChannel?.close()
this.websocket = undefined
this.pc = undefined
this.unreliableDataChannel = undefined
this.pc?.close()
this.webrtcStatsCollector = undefined
if (this.failedConnTimeout) {
console.log('closed timeout in close')
clearTimeout(this.failedConnTimeout)
this.failedConnTimeout = null
}
this.onClose(this)
this.ready = false
this.connecting = false
}
areAllConnectionsClosed() {
console.log(this.websocket, this.pc, this.unreliableDataChannel)
return !this.websocket && !this.pc && !this.unreliableDataChannel
}
}
@ -685,7 +935,7 @@ export class EngineCommandManager {
// We also do this here because we want to ensure we create the gizmo
// and execute the code everytime the stream is restarted.
const gizmoId = uuidv4()
this.sendSceneCommand({
void this.sendSceneCommand({
type: 'modeling_cmd_req',
cmd_id: gizmoId,
cmd: {
@ -698,7 +948,7 @@ export class EngineCommandManager {
})
// Initialize the planes.
this.initPlanes().then(() => {
void this.initPlanes().then(() => {
// We execute the code here to make sure if the stream was to
// restart in a session, we want to make sure to execute the code.
// We force it to re-execute the code because we want to make sure
@ -745,7 +995,7 @@ export class EngineCommandManager {
// because in all other cases we send JSON strings. But in the case of
// export we send a binary blob.
// Pass this to our export function.
exportSave(event.data)
void exportSave(event.data)
} else {
const message: Models['WebSocketResponse_type'] = JSON.parse(
event.data

View File

@ -29,7 +29,7 @@ export default function CodeEditor() {
The left pane is where you write your code. It's a code editor with
syntax highlighting and autocompletion. We've decided to take the
difficult route of writing our own languagecalled <code>kcl</code>
for describing geometry, because don't want to inherit all the
for describing geometry, because we don't want to inherit all the
other functionality from existing languages. We have a lot of ideas
about how <code>kcl</code> will evolve, and we want to hear your
thoughts on it.

View File

@ -1864,6 +1864,7 @@ dependencies = [
"dashmap",
"databake",
"derive-docs 0.1.5 (registry+https://github.com/rust-lang/crates.io-index)",
"either",
"expectorate",
"futures",
"insta",

View File

@ -0,0 +1,56 @@
use kcl_lib::ast::types::RequiredParamAfterOptionalParam;
use kittycad_execution_plan::ExecutionError;
use crate::String2;
#[derive(Debug, thiserror::Error, PartialEq, Clone)]
pub enum CompileError {
#[error("the name {name} was not defined")]
Undefined { name: String },
#[error("the function {fn_name} requires at least {required} arguments but you only supplied {actual}")]
NotEnoughArgs {
fn_name: String2,
required: usize,
actual: usize,
},
#[error("the function {fn_name} accepts at most {maximum} arguments but you supplied {actual}")]
TooManyArgs {
fn_name: String2,
maximum: usize,
actual: usize,
},
#[error("you tried to call {name} but it's not a function")]
NotCallable { name: String },
#[error("you're trying to use an operand that isn't compatible with the given arithmetic operator: {0}")]
InvalidOperand(&'static str),
#[error("you cannot use the value {0} as an index")]
InvalidIndex(String),
#[error("you tried to index into a value that isn't an array. Only arrays have numeric indices!")]
CannotIndex,
#[error("you tried to get the element {i} but that index is out of bounds. The array only has a length of {len}")]
IndexOutOfBounds { i: usize, len: usize },
#[error("you tried to access the property of a value that doesn't have any properties")]
NoProperties,
#[error("you tried to access a property of an array, but arrays don't have properties. They do have numeric indexes though, try using an index e.g. [0]")]
ArrayDoesNotHaveProperties,
#[error(
"you tried to read the '.{property}' of an object, but the object doesn't have any properties with that key"
)]
UndefinedProperty { property: String },
#[error("{0}")]
BadParamOrder(RequiredParamAfterOptionalParam),
#[error("A KCL function cannot have anything after its return value")]
MultipleReturns,
#[error("A KCL function must end with a return statement, but your function doesn't have one.")]
NoReturnStmt,
#[error("You used the %, which means \"substitute this argument for the value to the left in this |> pipeline\". But there is no such value, because you're not calling a pipeline.")]
NotInPipeline,
}
#[derive(Debug, thiserror::Error)]
pub enum Error {
#[error("{0}")]
Compile(#[from] CompileError),
#[error("{0}")]
Execution(#[from] ExecutionError),
}

View File

@ -9,6 +9,7 @@ pub enum KclValueGroup {
ObjectExpression(Box<ast::types::ObjectExpression>),
}
#[derive(Debug)]
pub enum SingleValue {
Literal(Box<ast::types::Literal>),
Identifier(Box<ast::types::Identifier>),
@ -19,6 +20,7 @@ pub enum SingleValue {
KclNoneExpression(ast::types::KclNone),
MemberExpression(Box<ast::types::MemberExpression>),
FunctionExpression(Box<ast::types::FunctionExpression>),
PipeSubstitution(Box<ast::types::PipeSubstitution>),
}
impl From<ast::types::BinaryPart> for KclValueGroup {
@ -61,7 +63,7 @@ impl From<ast::types::Value> for KclValueGroup {
ast::types::Value::ObjectExpression(e) => Self::ObjectExpression(e),
ast::types::Value::MemberExpression(e) => Self::Single(SingleValue::MemberExpression(e)),
ast::types::Value::FunctionExpression(e) => Self::Single(SingleValue::FunctionExpression(e)),
ast::types::Value::PipeSubstitution(_) => todo!(),
ast::types::Value::PipeSubstitution(e) => Self::Single(SingleValue::PipeSubstitution(e)),
}
}
}
@ -79,6 +81,7 @@ impl From<KclValueGroup> for ast::types::Value {
SingleValue::KclNoneExpression(e) => ast::types::Value::None(e),
SingleValue::MemberExpression(e) => ast::types::Value::MemberExpression(e),
SingleValue::FunctionExpression(e) => ast::types::Value::FunctionExpression(e),
SingleValue::PipeSubstitution(e) => ast::types::Value::PipeSubstitution(e),
},
KclValueGroup::ArrayExpression(e) => ast::types::Value::ArrayExpression(e),
KclValueGroup::ObjectExpression(e) => ast::types::Value::ObjectExpression(e),

View File

@ -1,4 +1,5 @@
mod binding_scope;
mod error;
mod kcl_value_group;
mod native_functions;
#[cfg(test)]
@ -8,15 +9,16 @@ use std::collections::HashMap;
use kcl_lib::{
ast,
ast::types::{BodyItem, FunctionExpressionParts, KclNone, LiteralValue, Program, RequiredParamAfterOptionalParam},
ast::types::{BodyItem, FunctionExpressionParts, KclNone, LiteralValue, Program},
};
use kittycad_execution_plan as ep;
use kittycad_execution_plan::{Address, ExecutionError, Instruction};
use kittycad_execution_plan::{Address, Instruction};
use kittycad_execution_plan_traits as ept;
use kittycad_execution_plan_traits::NumericPrimitive;
use kittycad_modeling_session::Session;
use self::binding_scope::{BindingScope, EpBinding, GetFnResult};
use self::error::{CompileError, Error};
use self::kcl_value_group::{KclValueGroup, SingleValue};
/// Execute a KCL program by compiling into an execution plan, then running that.
@ -54,16 +56,17 @@ impl Planner {
if retval.is_some() {
return Err(CompileError::MultipleReturns);
}
let mut ctx = Context::default();
let instructions_for_this_node = match item {
BodyItem::ExpressionStatement(node) => match KclValueGroup::from(node.expression) {
KclValueGroup::Single(value) => self.plan_to_compute_single(value)?.instructions,
KclValueGroup::Single(value) => self.plan_to_compute_single(&mut ctx, value)?.instructions,
KclValueGroup::ArrayExpression(_) => todo!(),
KclValueGroup::ObjectExpression(_) => todo!(),
},
BodyItem::VariableDeclaration(node) => self.plan_to_bind(node)?,
BodyItem::ReturnStatement(node) => match KclValueGroup::from(node.argument) {
KclValueGroup::Single(value) => {
let EvalPlan { instructions, binding } = self.plan_to_compute_single(value)?;
let EvalPlan { instructions, binding } = self.plan_to_compute_single(&mut ctx, value)?;
retval = Some(binding);
instructions
}
@ -78,7 +81,7 @@ impl Planner {
/// Emits instructions which, when run, compute a given KCL value and store it in memory.
/// Returns the instructions, and the destination address of the value.
fn plan_to_compute_single(&mut self, value: SingleValue) -> Result<EvalPlan, CompileError> {
fn plan_to_compute_single(&mut self, ctx: &mut Context, value: SingleValue) -> Result<EvalPlan, CompileError> {
match value {
SingleValue::KclNoneExpression(KclNone { start: _, end: _ }) => {
let address = self.next_addr.offset_by(1);
@ -121,7 +124,27 @@ impl Planner {
})
}
SingleValue::Identifier(expr) => {
// This is just duplicating a binding.
// The KCL parser interprets bools as identifiers.
// Consider changing them to be KCL literals instead.
let b = if expr.name == "true" {
Some(true)
} else if expr.name == "false" {
Some(false)
} else {
None
};
if let Some(b) = b {
let address = self.next_addr.offset_by(1);
return Ok(EvalPlan {
instructions: vec![Instruction::SetPrimitive {
address,
value: ept::Primitive::Bool(b),
}],
binding: EpBinding::Single(address),
});
}
// This identifier is just duplicating a binding.
// So, don't emit any instructions, because the value has already been computed.
// Just return the address that it was stored at after being computed.
let previously_bound_to = self
@ -134,7 +157,7 @@ impl Planner {
})
}
SingleValue::UnaryExpression(expr) => {
let operand = self.plan_to_compute_single(SingleValue::from(expr.argument))?;
let operand = self.plan_to_compute_single(ctx, SingleValue::from(expr.argument))?;
let EpBinding::Single(binding) = operand.binding else {
return Err(CompileError::InvalidOperand(
"you tried to use a composite value (e.g. array or object) as the operand to some math",
@ -158,8 +181,8 @@ impl Planner {
})
}
SingleValue::BinaryExpression(expr) => {
let l = self.plan_to_compute_single(SingleValue::from(expr.left))?;
let r = self.plan_to_compute_single(SingleValue::from(expr.right))?;
let l = self.plan_to_compute_single(ctx, SingleValue::from(expr.left))?;
let r = self.plan_to_compute_single(ctx, SingleValue::from(expr.right))?;
let EpBinding::Single(l_binding) = l.binding else {
return Err(CompileError::InvalidOperand(
"you tried to use a composite value (e.g. array or object) as the operand to some math",
@ -207,7 +230,7 @@ impl Planner {
instructions: new_instructions,
binding: arg,
} = match KclValueGroup::from(argument) {
KclValueGroup::Single(value) => self.plan_to_compute_single(value)?,
KclValueGroup::Single(value) => self.plan_to_compute_single(ctx, value)?,
KclValueGroup::ArrayExpression(_) => todo!(),
KclValueGroup::ObjectExpression(_) => todo!(),
};
@ -323,7 +346,56 @@ impl Planner {
binding: binding.clone(),
})
}
SingleValue::PipeExpression(_) => todo!(),
SingleValue::PipeSubstitution(_expr) => {
if let Some(ref binding) = ctx.pipe_substitution {
Ok(EvalPlan {
instructions: Vec::new(),
binding: binding.clone(),
})
} else {
Err(CompileError::NotInPipeline)
}
}
SingleValue::PipeExpression(expr) => {
let mut bodies = expr.body.into_iter();
// Get the first expression (i.e. body) of the pipeline.
let first = bodies.next().expect("Pipe expression must have > 1 item");
let EvalPlan {
mut instructions,
binding: mut current_value,
} = match KclValueGroup::from(first) {
KclValueGroup::Single(v) => self.plan_to_compute_single(ctx, v)?,
KclValueGroup::ArrayExpression(_) => todo!(),
KclValueGroup::ObjectExpression(_) => todo!(),
};
// Handle the remaining bodies.
for body in bodies {
let value = match KclValueGroup::from(body) {
KclValueGroup::Single(v) => v,
KclValueGroup::ArrayExpression(_) => todo!(),
KclValueGroup::ObjectExpression(_) => todo!(),
};
// This body will probably contain a % (pipe substitution character).
// So it needs to know what the previous pipeline body's value is,
// to replace the % with that value.
ctx.pipe_substitution = Some(current_value.clone());
let EvalPlan {
instructions: instructions_for_this_body,
binding,
} = self.plan_to_compute_single(ctx, value)?;
instructions.extend(instructions_for_this_body);
current_value = binding;
}
// Before we return, clear the pipe substitution, because nothing outside this
// pipeline should be able to use it anymore.
ctx.pipe_substitution = None;
Ok(EvalPlan {
instructions,
binding: current_value,
})
}
}
}
@ -334,11 +406,12 @@ impl Planner {
&mut self,
declarations: ast::types::VariableDeclaration,
) -> Result<Vec<Instruction>, CompileError> {
let mut ctx = Context::default();
declarations
.declarations
.into_iter()
.try_fold(Vec::new(), |mut acc, declaration| {
let (instrs, binding) = self.plan_to_bind_one(declaration.init)?;
let (instrs, binding) = self.plan_to_bind_one(&mut ctx, declaration.init)?;
self.binding_scope.bind(declaration.id.name, binding);
acc.extend(instrs);
Ok(acc)
@ -347,13 +420,14 @@ impl Planner {
fn plan_to_bind_one(
&mut self,
ctx: &mut Context,
value_being_bound: ast::types::Value,
) -> Result<(Vec<Instruction>, EpBinding), CompileError> {
match KclValueGroup::from(value_being_bound) {
KclValueGroup::Single(init_value) => {
// Simple! Just evaluate it, note where the final value will be stored in KCEP memory,
// and bind it to the KCL identifier.
let EvalPlan { instructions, binding } = self.plan_to_compute_single(init_value)?;
let EvalPlan { instructions, binding } = self.plan_to_compute_single(ctx, init_value)?;
Ok((instructions, binding))
}
KclValueGroup::ArrayExpression(expr) => {
@ -366,7 +440,7 @@ impl Planner {
KclValueGroup::Single(value) => {
// If this element of the array is a single value, then binding it is
// straightforward -- you got a single binding, no need to change anything.
let EvalPlan { instructions, binding } = self.plan_to_compute_single(value)?;
let EvalPlan { instructions, binding } = self.plan_to_compute_single(ctx, value)?;
acc_instrs.extend(instructions);
acc_bindings.push(binding);
}
@ -379,7 +453,7 @@ impl Planner {
.elements
.into_iter()
.try_fold(Vec::new(), |mut seq, child_element| {
let (instructions, binding) = self.plan_to_bind_one(child_element)?;
let (instructions, binding) = self.plan_to_bind_one(ctx, child_element)?;
acc_instrs.extend(instructions);
seq.push(binding);
Ok(seq)
@ -397,7 +471,7 @@ impl Planner {
.properties
.into_iter()
.try_fold(map, |mut map, property| {
let (instructions, binding) = self.plan_to_bind_one(property.value)?;
let (instructions, binding) = self.plan_to_bind_one(ctx, property.value)?;
map.insert(property.key.name, binding);
acc_instrs.extend(instructions);
Ok(map)
@ -419,7 +493,7 @@ impl Planner {
|(mut acc_instrs, mut acc_bindings), (key, value)| {
match KclValueGroup::from(value) {
KclValueGroup::Single(value) => {
let EvalPlan { instructions, binding } = self.plan_to_compute_single(value)?;
let EvalPlan { instructions, binding } = self.plan_to_compute_single(ctx, value)?;
acc_instrs.extend(instructions);
acc_bindings.insert(key.name, binding);
}
@ -432,7 +506,7 @@ impl Planner {
.elements
.into_iter()
.try_fold(Vec::with_capacity(n), |mut seq, child_element| {
let (instructions, binding) = self.plan_to_bind_one(child_element)?;
let (instructions, binding) = self.plan_to_bind_one(ctx, child_element)?;
seq.push(binding);
acc_instrs.extend(instructions);
Ok(seq)
@ -450,7 +524,7 @@ impl Planner {
.properties
.into_iter()
.try_fold(HashMap::with_capacity(n), |mut map, property| {
let (instructions, binding) = self.plan_to_bind_one(property.value)?;
let (instructions, binding) = self.plan_to_bind_one(ctx, property.value)?;
map.insert(property.key.name, binding);
acc_instrs.extend(instructions);
Ok(map)
@ -468,56 +542,6 @@ impl Planner {
}
}
#[derive(Debug, thiserror::Error, PartialEq, Clone)]
pub enum CompileError {
#[error("the name {name} was not defined")]
Undefined { name: String },
#[error("the function {fn_name} requires at least {required} arguments but you only supplied {actual}")]
NotEnoughArgs {
fn_name: String2,
required: usize,
actual: usize,
},
#[error("the function {fn_name} accepts at most {maximum} arguments but you supplied {actual}")]
TooManyArgs {
fn_name: String2,
maximum: usize,
actual: usize,
},
#[error("you tried to call {name} but it's not a function")]
NotCallable { name: String },
#[error("you're trying to use an operand that isn't compatible with the given arithmetic operator: {0}")]
InvalidOperand(&'static str),
#[error("you cannot use the value {0} as an index")]
InvalidIndex(String),
#[error("you tried to index into a value that isn't an array. Only arrays have numeric indices!")]
CannotIndex,
#[error("you tried to get the element {i} but that index is out of bounds. The array only has a length of {len}")]
IndexOutOfBounds { i: usize, len: usize },
#[error("you tried to access the property of a value that doesn't have any properties")]
NoProperties,
#[error("you tried to access a property of an array, but arrays don't have properties. They do have numeric indexes though, try using an index e.g. [0]")]
ArrayDoesNotHaveProperties,
#[error(
"you tried to read the '.{property}' of an object, but the object doesn't have any properties with that key"
)]
UndefinedProperty { property: String },
#[error("{0}")]
BadParamOrder(RequiredParamAfterOptionalParam),
#[error("A KCL function cannot have anything after its return value")]
MultipleReturns,
#[error("A KCL function must end with a return statement, but your function doesn't have one.")]
NoReturnStmt,
}
#[derive(Debug, thiserror::Error)]
pub enum Error {
#[error("{0}")]
Compile(#[from] CompileError),
#[error("{0}")]
Execution(#[from] ExecutionError),
}
/// Every KCL literal value is equivalent to an Execution Plan value, and therefore can be
/// bound to some KCL name and Execution Plan address.
fn kcl_literal_to_kcep_literal(expr: LiteralValue) -> ept::Primitive {
@ -562,3 +586,9 @@ enum KclFunction {
Add(native_functions::Add),
UserDefined(UserDefinedFunction),
}
/// Context used when compiling KCL.
#[derive(Default, Debug)]
struct Context {
pipe_substitution: Option<EpBinding>,
}

View File

@ -128,6 +128,23 @@ fn name_not_found() {
assert_eq!(err, CompileError::Undefined { name: "y".to_owned() });
}
#[test]
fn assign_bool() {
// Check that Grackle properly compiles KCL bools to EP bools.
for (str, val) in [("true", true), ("false", false)] {
let program = format!("let x = {str}");
let (plan, scope) = must_plan(&program);
assert_eq!(
plan,
vec![Instruction::SetPrimitive {
address: Address::ZERO,
value: val.into(),
}]
);
assert_eq!(scope.get("x"), Some(&EpBinding::Single(Address::ZERO)));
}
}
#[test]
fn aliases() {
let program = "
@ -584,6 +601,33 @@ fn use_kcl_functions_with_params() {
}
}
#[test]
fn pipe_substitution_outside_pipe_expression() {
let program = "let x = add(1, %)";
let err = should_not_compile(program);
assert!(matches!(err, CompileError::NotInPipeline));
}
#[test]
fn unsugar_pipe_expressions() {
// These two programs should be equivalent,
// because that's just the definition of the |> operator.
let program2 = "
fn double = (x) => { return x * 2 }
fn triple = (x) => { return x * 3 }
let x = 1 |> double(%) |> triple(%) // should be 6
";
let program1 = "
fn double = (x) => { return x * 2 }
fn triple = (x) => { return x * 3 }
let x = triple(double(1)) // should be 6
";
// So, check that they are.
let (plan1, _) = must_plan(program1);
let (plan2, _) = must_plan(program2);
assert_eq!(plan1, plan2);
}
#[test]
fn define_kcl_functions() {
let (plan, scope) = must_plan("fn triple = (x) => { return x * 3 }");

View File

@ -32,6 +32,7 @@ thiserror = "1.0.50"
ts-rs = { version = "7", features = ["uuid-impl"] }
uuid = { version = "1.6.1", features = ["v4", "js", "serde"] }
winnow = "0.5.18"
either = "1.6.1"
[target.'cfg(target_arch = "wasm32")'.dependencies]
js-sys = { version = "0.3.65" }

View File

@ -19,6 +19,7 @@ use crate::{
parser::PIPE_OPERATOR,
std::{kcl_stdlib::KclStdLibFn, FunctionKind},
};
use crate::executor::PathToNode;
mod literal_value;
mod none;
@ -1433,6 +1434,7 @@ impl From<Literal> for MemoryItem {
value: JValue::from(literal.value.clone()),
meta: vec![Metadata {
source_range: literal.into(),
path_to_node: vec![],
}],
})
}
@ -1444,6 +1446,7 @@ impl From<&Box<Literal>> for MemoryItem {
value: JValue::from(literal.value.clone()),
meta: vec![Metadata {
source_range: literal.into(),
path_to_node: vec![],
}],
})
}
@ -1641,7 +1644,7 @@ impl ArrayExpression {
Value::UnaryExpression(unary_expression) => unary_expression.get_result(memory, pipe_info, ctx).await?,
Value::ObjectExpression(object_expression) => object_expression.execute(memory, pipe_info, ctx).await?,
Value::ArrayExpression(array_expression) => array_expression.execute(memory, pipe_info, ctx).await?,
Value::PipeExpression(pipe_expression) => pipe_expression.get_result(memory, pipe_info, ctx).await?,
Value::PipeExpression(pipe_expression) => pipe_expression.get_result(memory, pipe_info, ctx, vec![]).await?,
Value::PipeSubstitution(pipe_substitution) => {
return Err(KclError::Semantic(KclErrorDetails {
message: format!("PipeSubstitution not implemented here: {:?}", pipe_substitution),
@ -1665,6 +1668,7 @@ impl ArrayExpression {
value: results.into(),
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}))
}
@ -1794,7 +1798,7 @@ impl ObjectExpression {
Value::UnaryExpression(unary_expression) => unary_expression.get_result(memory, pipe_info, ctx).await?,
Value::ObjectExpression(object_expression) => object_expression.execute(memory, pipe_info, ctx).await?,
Value::ArrayExpression(array_expression) => array_expression.execute(memory, pipe_info, ctx).await?,
Value::PipeExpression(pipe_expression) => pipe_expression.get_result(memory, pipe_info, ctx).await?,
Value::PipeExpression(pipe_expression) => pipe_expression.get_result(memory, pipe_info, ctx, vec![]).await?,
Value::PipeSubstitution(pipe_substitution) => {
return Err(KclError::Semantic(KclErrorDetails {
message: format!("PipeSubstitution not implemented here: {:?}", pipe_substitution),
@ -1822,6 +1826,7 @@ impl ObjectExpression {
value: object.into(),
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}))
}
@ -2031,6 +2036,7 @@ impl MemberExpression {
value: value.clone(),
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}))
} else {
@ -2087,6 +2093,7 @@ impl MemberExpression {
value: value.clone(),
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}))
} else {
@ -2251,6 +2258,7 @@ impl BinaryExpression {
value,
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}));
}
@ -2272,6 +2280,7 @@ impl BinaryExpression {
value,
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}))
}
@ -2435,6 +2444,7 @@ impl UnaryExpression {
value: (-(num)).into(),
meta: vec![Metadata {
source_range: self.into(),
path_to_node: vec![],
}],
}))
}
@ -2564,11 +2574,12 @@ impl PipeExpression {
memory: &mut ProgramMemory,
pipe_info: &mut PipeInfo,
ctx: &ExecutorContext,
path_to_node: PathToNode,
) -> Result<MemoryItem, KclError> {
// Reset the previous results.
pipe_info.previous_results = vec![];
pipe_info.index = 0;
execute_pipe_body(memory, &self.body, pipe_info, self.into(), ctx).await
execute_pipe_body(memory, &self.body, pipe_info, self.into(), ctx, path_to_node).await
}
/// Rename all identifiers that have the old name to the new given name.
@ -2586,6 +2597,8 @@ async fn execute_pipe_body(
pipe_info: &mut PipeInfo,
source_range: SourceRange,
ctx: &ExecutorContext,
path_to_node: PathToNode,
) -> Result<MemoryItem, KclError> {
if pipe_info.index == body.len() {
pipe_info.is_in_pipe = false;

View File

@ -11,6 +11,7 @@ use schemars::JsonSchema;
use serde::{Deserialize, Serialize};
use serde_json::Value as JValue;
use tower_lsp::lsp_types::{Position as LspPosition, Range as LspRange};
// use either::Either;
use crate::{
ast::types::{BodyItem, FunctionExpression, KclNone, Value},
@ -632,6 +633,18 @@ impl From<Point3d> for kittycad::types::Point3D {
}
}
/// number or string
#[derive(Debug, Clone, Deserialize, Serialize, PartialEq, ts_rs::TS, JsonSchema)]
#[ts(export)]
pub enum NumberOrString {
Num(i32), // assuming 'number' is equivalent to a 32-bit integer
Str(String),
}
/// PathToNode
pub type PathToNode = Vec<(NumberOrString, String)>;
/// Metadata.
#[derive(Debug, Clone, Deserialize, Serialize, PartialEq, ts_rs::TS, JsonSchema)]
#[ts(export)]
@ -639,11 +652,16 @@ impl From<Point3d> for kittycad::types::Point3D {
pub struct Metadata {
/// The source range.
pub source_range: SourceRange,
/// The path to node for this memory Item
pub path_to_node: PathToNode,
}
impl From<SourceRange> for Metadata {
fn from(source_range: SourceRange) -> Self {
Self { source_range }
Self {
source_range,
path_to_node: Vec::new()
}
}
}
@ -829,12 +847,17 @@ pub async fn execute(
) -> Result<ProgramMemory, KclError> {
let mut pipe_info = PipeInfo::default();
// let path_to_Node: PathToNode = vec![("body".to_string(), "".to_string())];
let path_to_node: PathToNode = vec![(NumberOrString::Str("body".to_string()), "".to_string())];
// Iterate over the body of the program.
for statement in &program.body {
for (index, statement) in program.body.iter().enumerate() {
let mut with_body_path_to_node = path_to_node.clone();
with_body_path_to_node.push((NumberOrString::Num(index as i32), "index".to_string()));
match statement {
BodyItem::ExpressionStatement(expression_statement) => {
if let Value::PipeExpression(pipe_expr) = &expression_statement.expression {
pipe_expr.get_result(memory, &mut pipe_info, ctx).await?;
pipe_expr.get_result(memory, &mut pipe_info, ctx, with_body_path_to_node).await?;
} else if let Value::CallExpression(call_expr) = &expression_statement.expression {
let fn_name = call_expr.callee.name.to_string();
let mut args: Vec<MemoryItem> = Vec::new();
@ -905,10 +928,15 @@ pub async fn execute(
}
}
BodyItem::VariableDeclaration(variable_declaration) => {
for declaration in &variable_declaration.declarations {
for (index, declaration) in variable_declaration.declarations.iter().enumerate() {
let var_name = declaration.id.name.to_string();
let source_range: SourceRange = declaration.init.clone().into();
let metadata = Metadata { source_range };
let mut with_dec_path_to_node = with_body_path_to_node.clone();
with_dec_path_to_node.push((NumberOrString::Str("declarations".to_string()), "VariableDeclaration".to_string()));
with_dec_path_to_node.push((NumberOrString::Num(index as i32), "index".to_string()));
with_dec_path_to_node.push((NumberOrString::Str("init".to_string()), "".to_string()));
let metadata = Metadata { source_range, path_to_node: with_dec_path_to_node.clone() };
match &declaration.init {
Value::None(none) => {
@ -963,7 +991,7 @@ pub async fn execute(
memory.add(&var_name, result, source_range)?;
}
Value::PipeExpression(pipe_expression) => {
let result = pipe_expression.get_result(memory, &mut pipe_info, ctx).await?;
let result = pipe_expression.get_result(memory, &mut pipe_info, ctx, with_dec_path_to_node).await?;
memory.add(&var_name, result, source_range)?;
}
Value::PipeSubstitution(pipe_substitution) => {
@ -1027,7 +1055,7 @@ pub async fn execute(
memory.return_ = Some(ProgramReturn::Value(result));
}
Value::PipeExpression(pipe_expr) => {
let result = pipe_expr.get_result(memory, &mut pipe_info, ctx).await?;
let result = pipe_expr.get_result(memory, &mut pipe_info, ctx, with_body_path_to_node).await?;
memory.return_ = Some(ProgramReturn::Value(result));
}
Value::PipeSubstitution(_) => {}

View File

@ -190,6 +190,7 @@ impl Args {
value: j,
meta: vec![Metadata {
source_range: self.source_range,
path_to_node: Vec::new()
}],
}))
}