Files
automaker/apps/server/src/services/auto-mode-service.ts
Cody Seibert a3c9c9cee5 Implement branch selection and worktree management features
- Added a new BranchAutocomplete component for selecting branches in feature dialogs.
- Enhanced BoardView to fetch and display branch suggestions.
- Updated CreateWorktreeDialog and EditFeatureDialog to include branch selection.
- Modified worktree management to ensure proper handling of branch-specific worktrees.
- Refactored related components and hooks to support the new branch management functionality.
- Removed unused revert and merge handlers from Kanban components for cleaner code.
2025-12-16 12:12:10 -05:00

1218 lines
35 KiB
TypeScript

/**
* Auto Mode Service - Autonomous feature implementation using Claude Agent SDK
*
* Manages:
* - Worktree creation for isolated development
* - Feature execution with Claude
* - Concurrent execution with max concurrency limits
* - Progress streaming via events
* - Verification and merge workflows
*/
import { ProviderFactory } from "../providers/provider-factory.js";
import type { ExecuteOptions } from "../providers/types.js";
import { exec } from "child_process";
import { promisify } from "util";
import path from "path";
import fs from "fs/promises";
import type { EventEmitter } from "../lib/events.js";
import { buildPromptWithImages } from "../lib/prompt-builder.js";
import { resolveModelString, DEFAULT_MODELS } from "../lib/model-resolver.js";
import { createAutoModeOptions } from "../lib/sdk-options.js";
import { isAbortError, classifyError } from "../lib/error-handler.js";
import {
getFeatureDir,
getFeaturesDir,
getAutomakerDir,
getWorktreesDir,
} from "../lib/automaker-paths.js";
const execAsync = promisify(exec);
interface Feature {
id: string;
category: string;
description: string;
steps?: string[];
status: string;
priority?: number;
spec?: string;
model?: string; // Model to use for this feature
imagePaths?: Array<
| string
| {
path: string;
filename?: string;
mimeType?: string;
[key: string]: unknown;
}
>;
}
interface RunningFeature {
featureId: string;
projectPath: string;
worktreePath: string | null;
branchName: string | null;
abortController: AbortController;
isAutoMode: boolean;
startTime: number;
}
interface AutoModeConfig {
maxConcurrency: number;
useWorktrees: boolean;
projectPath: string;
}
export class AutoModeService {
private events: EventEmitter;
private runningFeatures = new Map<string, RunningFeature>();
private autoLoopRunning = false;
private autoLoopAbortController: AbortController | null = null;
private config: AutoModeConfig | null = null;
constructor(events: EventEmitter) {
this.events = events;
}
/**
* Start the auto mode loop - continuously picks and executes pending features
*/
async startAutoLoop(projectPath: string, maxConcurrency = 3): Promise<void> {
if (this.autoLoopRunning) {
throw new Error("Auto mode is already running");
}
this.autoLoopRunning = true;
this.autoLoopAbortController = new AbortController();
this.config = {
maxConcurrency,
useWorktrees: true,
projectPath,
};
this.emitAutoModeEvent("auto_mode_started", {
message: `Auto mode started with max ${maxConcurrency} concurrent features`,
projectPath,
});
// Run the loop in the background
this.runAutoLoop().catch((error) => {
console.error("[AutoMode] Loop error:", error);
this.emitAutoModeEvent("auto_mode_error", {
error: error.message,
});
});
}
private async runAutoLoop(): Promise<void> {
while (
this.autoLoopRunning &&
this.autoLoopAbortController &&
!this.autoLoopAbortController.signal.aborted
) {
try {
// Check if we have capacity
if (this.runningFeatures.size >= (this.config?.maxConcurrency || 3)) {
await this.sleep(5000);
continue;
}
// Load pending features
const pendingFeatures = await this.loadPendingFeatures(
this.config!.projectPath
);
if (pendingFeatures.length === 0) {
this.emitAutoModeEvent("auto_mode_idle", {
message: "No pending features - auto mode idle",
projectPath: this.config!.projectPath,
});
await this.sleep(10000);
continue;
}
// Find a feature not currently running
const nextFeature = pendingFeatures.find(
(f) => !this.runningFeatures.has(f.id)
);
if (nextFeature) {
// Start feature execution in background
this.executeFeature(
this.config!.projectPath,
nextFeature.id,
this.config!.useWorktrees,
true
).catch((error) => {
console.error(`[AutoMode] Feature ${nextFeature.id} error:`, error);
});
}
await this.sleep(2000);
} catch (error) {
console.error("[AutoMode] Loop iteration error:", error);
await this.sleep(5000);
}
}
this.autoLoopRunning = false;
}
/**
* Stop the auto mode loop
*/
async stopAutoLoop(): Promise<number> {
const wasRunning = this.autoLoopRunning;
this.autoLoopRunning = false;
if (this.autoLoopAbortController) {
this.autoLoopAbortController.abort();
this.autoLoopAbortController = null;
}
// Emit stop event immediately when user explicitly stops
if (wasRunning) {
this.emitAutoModeEvent("auto_mode_stopped", {
message: "Auto mode stopped",
projectPath: this.config?.projectPath,
});
}
return this.runningFeatures.size;
}
/**
* Execute a single feature
* @param projectPath - The main project path
* @param featureId - The feature ID to execute
* @param useWorktrees - Whether to use worktrees for isolation
* @param isAutoMode - Whether this is running in auto mode
* @param providedWorktreePath - Optional: use this worktree path instead of creating a new one
*/
async executeFeature(
projectPath: string,
featureId: string,
useWorktrees = true,
isAutoMode = false,
providedWorktreePath?: string
): Promise<void> {
if (this.runningFeatures.has(featureId)) {
throw new Error(`Feature ${featureId} is already running`);
}
const abortController = new AbortController();
const branchName = `feature/${featureId}`;
let worktreePath: string | null = null;
// Use provided worktree path if given, otherwise setup new worktree if enabled
if (providedWorktreePath) {
// User selected a specific worktree - use it directly
worktreePath = providedWorktreePath;
console.log(`[AutoMode] Using provided worktree path: ${worktreePath}`);
} else if (useWorktrees) {
// No specific worktree provided, create a new one for this feature
worktreePath = await this.setupWorktree(
projectPath,
featureId,
branchName
);
}
const workDir = worktreePath || projectPath;
this.runningFeatures.set(featureId, {
featureId,
projectPath,
worktreePath,
branchName,
abortController,
isAutoMode,
startTime: Date.now(),
});
// Emit feature start event
this.emitAutoModeEvent("auto_mode_feature_start", {
featureId,
projectPath,
feature: {
id: featureId,
title: "Loading...",
description: "Feature is starting",
},
});
try {
// Load feature details
const feature = await this.loadFeature(projectPath, featureId);
if (!feature) {
throw new Error(`Feature ${featureId} not found`);
}
// Update feature status to in_progress
await this.updateFeatureStatus(projectPath, featureId, "in_progress");
// Build the prompt
const prompt = this.buildFeaturePrompt(feature);
// Extract image paths from feature
const imagePaths = feature.imagePaths?.map((img) =>
typeof img === "string" ? img : img.path
);
// Get model from feature
const model = resolveModelString(feature.model, DEFAULT_MODELS.claude);
console.log(
`[AutoMode] Executing feature ${featureId} with model: ${model}`
);
// Run the agent with the feature's model and images
await this.runAgent(
workDir,
featureId,
prompt,
abortController,
imagePaths,
model
);
// Mark as waiting_approval for user review
await this.updateFeatureStatus(
projectPath,
featureId,
"waiting_approval"
);
this.emitAutoModeEvent("auto_mode_feature_complete", {
featureId,
passes: true,
message: `Feature completed in ${Math.round(
(Date.now() - this.runningFeatures.get(featureId)!.startTime) / 1000
)}s`,
projectPath,
});
} catch (error) {
const errorInfo = classifyError(error);
if (errorInfo.isAbort) {
this.emitAutoModeEvent("auto_mode_feature_complete", {
featureId,
passes: false,
message: "Feature stopped by user",
projectPath,
});
} else {
console.error(`[AutoMode] Feature ${featureId} failed:`, error);
await this.updateFeatureStatus(projectPath, featureId, "backlog");
this.emitAutoModeEvent("auto_mode_error", {
featureId,
error: errorInfo.message,
errorType: errorInfo.isAuth ? "authentication" : "execution",
projectPath,
});
}
} finally {
this.runningFeatures.delete(featureId);
}
}
/**
* Stop a specific feature
*/
async stopFeature(featureId: string): Promise<boolean> {
const running = this.runningFeatures.get(featureId);
if (!running) {
return false;
}
running.abortController.abort();
return true;
}
/**
* Resume a feature (continues from saved context)
*/
async resumeFeature(
projectPath: string,
featureId: string,
useWorktrees = true
): Promise<void> {
// Check if context exists in external automaker directory
const featureDir = await getFeatureDir(projectPath, featureId);
const contextPath = path.join(featureDir, "agent-output.md");
let hasContext = false;
try {
await fs.access(contextPath);
hasContext = true;
} catch {
// No context
}
if (hasContext) {
// Load previous context and continue
const context = await fs.readFile(contextPath, "utf-8");
return this.executeFeatureWithContext(
projectPath,
featureId,
context,
useWorktrees
);
}
// No context, start fresh
return this.executeFeature(projectPath, featureId, useWorktrees, false);
}
/**
* Follow up on a feature with additional instructions
*/
async followUpFeature(
projectPath: string,
featureId: string,
prompt: string,
imagePaths?: string[],
providedWorktreePath?: string
): Promise<void> {
if (this.runningFeatures.has(featureId)) {
throw new Error(`Feature ${featureId} is already running`);
}
const abortController = new AbortController();
// Use the provided worktreePath (from the feature's assigned branch)
// Fall back to project path if not provided
let workDir = projectPath;
let worktreePath: string | null = null;
if (providedWorktreePath) {
try {
await fs.access(providedWorktreePath);
workDir = providedWorktreePath;
worktreePath = providedWorktreePath;
} catch {
// Worktree path provided but doesn't exist, use project path
console.log(`[AutoMode] Provided worktreePath doesn't exist: ${providedWorktreePath}, using project path`);
}
}
// Load feature info for context
const feature = await this.loadFeature(projectPath, featureId);
// Load previous agent output if it exists (from external automaker)
const featureDir = await getFeatureDir(projectPath, featureId);
const contextPath = path.join(featureDir, "agent-output.md");
let previousContext = "";
try {
previousContext = await fs.readFile(contextPath, "utf-8");
} catch {
// No previous context
}
// Build complete prompt with feature info, previous context, and follow-up instructions
let fullPrompt = `## Follow-up on Feature Implementation
${feature ? this.buildFeaturePrompt(feature) : `**Feature ID:** ${featureId}`}
`;
if (previousContext) {
fullPrompt += `
## Previous Agent Work
The following is the output from the previous implementation attempt:
${previousContext}
`;
}
fullPrompt += `
## Follow-up Instructions
${prompt}
## Task
Address the follow-up instructions above. Review the previous work and make the requested changes or fixes.`;
this.runningFeatures.set(featureId, {
featureId,
projectPath,
worktreePath,
branchName: worktreePath ? path.basename(worktreePath) : null,
abortController,
isAutoMode: false,
startTime: Date.now(),
});
this.emitAutoModeEvent("auto_mode_feature_start", {
featureId,
projectPath,
feature: feature || {
id: featureId,
title: "Follow-up",
description: prompt.substring(0, 100),
},
});
try {
// Get model from feature (already loaded above)
const model = resolveModelString(feature?.model, DEFAULT_MODELS.claude);
console.log(
`[AutoMode] Follow-up for feature ${featureId} using model: ${model}`
);
// Update feature status to in_progress
await this.updateFeatureStatus(projectPath, featureId, "in_progress");
// Copy follow-up images to feature folder (external automaker)
const copiedImagePaths: string[] = [];
if (imagePaths && imagePaths.length > 0) {
const featureDirForImages = await getFeatureDir(projectPath, featureId);
const featureImagesDir = path.join(featureDirForImages, "images");
await fs.mkdir(featureImagesDir, { recursive: true });
for (const imagePath of imagePaths) {
try {
// Get the filename from the path
const filename = path.basename(imagePath);
const destPath = path.join(featureImagesDir, filename);
// Copy the image
await fs.copyFile(imagePath, destPath);
// Store the absolute path (external storage uses absolute paths)
copiedImagePaths.push(destPath);
} catch (error) {
console.error(
`[AutoMode] Failed to copy follow-up image ${imagePath}:`,
error
);
}
}
}
// Update feature object with new follow-up images BEFORE building prompt
if (copiedImagePaths.length > 0 && feature) {
const currentImagePaths = feature.imagePaths || [];
const newImagePaths = copiedImagePaths.map((p) => ({
path: p,
filename: path.basename(p),
mimeType: "image/png", // Default, could be improved
}));
feature.imagePaths = [...currentImagePaths, ...newImagePaths];
}
// Combine original feature images with new follow-up images
const allImagePaths: string[] = [];
// Add all images from feature (now includes both original and new)
if (feature?.imagePaths) {
const allPaths = feature.imagePaths.map((img) =>
typeof img === "string" ? img : img.path
);
allImagePaths.push(...allPaths);
}
// Save updated feature.json with new images (external automaker)
if (copiedImagePaths.length > 0 && feature) {
const featureDirForSave = await getFeatureDir(projectPath, featureId);
const featurePath = path.join(featureDirForSave, "feature.json");
try {
await fs.writeFile(featurePath, JSON.stringify(feature, null, 2));
} catch (error) {
console.error(`[AutoMode] Failed to save feature.json:`, error);
}
}
// Use fullPrompt (already built above) with model and all images
await this.runAgent(
workDir,
featureId,
fullPrompt,
abortController,
allImagePaths.length > 0 ? allImagePaths : imagePaths,
model
);
// Mark as waiting_approval for user review
await this.updateFeatureStatus(
projectPath,
featureId,
"waiting_approval"
);
this.emitAutoModeEvent("auto_mode_feature_complete", {
featureId,
passes: true,
message: "Follow-up completed successfully",
projectPath,
});
} catch (error) {
if (!isAbortError(error)) {
this.emitAutoModeEvent("auto_mode_error", {
featureId,
error: (error as Error).message,
projectPath,
});
}
} finally {
this.runningFeatures.delete(featureId);
}
}
/**
* Verify a feature's implementation
*/
async verifyFeature(
projectPath: string,
featureId: string
): Promise<boolean> {
// Worktrees are in project dir
const worktreePath = path.join(projectPath, ".worktrees", featureId);
let workDir = projectPath;
try {
await fs.access(worktreePath);
workDir = worktreePath;
} catch {
// No worktree
}
// Run verification - check if tests pass, build works, etc.
const verificationChecks = [
{ cmd: "npm run lint", name: "Lint" },
{ cmd: "npm run typecheck", name: "Type check" },
{ cmd: "npm test", name: "Tests" },
{ cmd: "npm run build", name: "Build" },
];
let allPassed = true;
const results: Array<{ check: string; passed: boolean; output?: string }> =
[];
for (const check of verificationChecks) {
try {
const { stdout, stderr } = await execAsync(check.cmd, {
cwd: workDir,
timeout: 120000,
});
results.push({
check: check.name,
passed: true,
output: stdout || stderr,
});
} catch (error) {
allPassed = false;
results.push({
check: check.name,
passed: false,
output: (error as Error).message,
});
break; // Stop on first failure
}
}
this.emitAutoModeEvent("auto_mode_feature_complete", {
featureId,
passes: allPassed,
message: allPassed
? "All verification checks passed"
: `Verification failed: ${
results.find((r) => !r.passed)?.check || "Unknown"
}`,
});
return allPassed;
}
/**
* Commit feature changes
* @param projectPath - The main project path
* @param featureId - The feature ID to commit
* @param providedWorktreePath - Optional: the worktree path where the feature's changes are located
*/
async commitFeature(
projectPath: string,
featureId: string,
providedWorktreePath?: string
): Promise<string | null> {
let workDir = projectPath;
// Use the provided worktree path if given
if (providedWorktreePath) {
try {
await fs.access(providedWorktreePath);
workDir = providedWorktreePath;
console.log(`[AutoMode] Committing in provided worktree: ${workDir}`);
} catch {
console.log(`[AutoMode] Provided worktree path doesn't exist: ${providedWorktreePath}, using project path`);
}
} else {
// Fallback: try to find worktree at legacy location
const legacyWorktreePath = path.join(projectPath, ".worktrees", featureId);
try {
await fs.access(legacyWorktreePath);
workDir = legacyWorktreePath;
console.log(`[AutoMode] Committing in legacy worktree: ${workDir}`);
} catch {
console.log(`[AutoMode] No worktree found, committing in project path: ${workDir}`);
}
}
try {
// Check for changes
const { stdout: status } = await execAsync("git status --porcelain", {
cwd: workDir,
});
if (!status.trim()) {
return null; // No changes
}
// Load feature for commit message
const feature = await this.loadFeature(projectPath, featureId);
const commitMessage = feature
? `feat: ${this.extractTitleFromDescription(
feature.description
)}\n\nImplemented by Automaker auto-mode`
: `feat: Feature ${featureId}`;
// Stage and commit
await execAsync("git add -A", { cwd: workDir });
await execAsync(`git commit -m "${commitMessage.replace(/"/g, '\\"')}"`, {
cwd: workDir,
});
// Get commit hash
const { stdout: hash } = await execAsync("git rev-parse HEAD", {
cwd: workDir,
});
this.emitAutoModeEvent("auto_mode_feature_complete", {
featureId,
passes: true,
message: `Changes committed: ${hash.trim().substring(0, 8)}`,
});
return hash.trim();
} catch (error) {
console.error(`[AutoMode] Commit failed for ${featureId}:`, error);
return null;
}
}
/**
* Check if context exists for a feature
*/
async contextExists(
projectPath: string,
featureId: string
): Promise<boolean> {
// Context is stored in external automaker directory
const featureDir = await getFeatureDir(projectPath, featureId);
const contextPath = path.join(featureDir, "agent-output.md");
try {
await fs.access(contextPath);
return true;
} catch {
return false;
}
}
/**
* Analyze project to gather context
*/
async analyzeProject(projectPath: string): Promise<void> {
const abortController = new AbortController();
const analysisFeatureId = `analysis-${Date.now()}`;
this.emitAutoModeEvent("auto_mode_feature_start", {
featureId: analysisFeatureId,
projectPath,
feature: {
id: analysisFeatureId,
title: "Project Analysis",
description: "Analyzing project structure",
},
});
const prompt = `Analyze this project and provide a summary of:
1. Project structure and architecture
2. Main technologies and frameworks used
3. Key components and their responsibilities
4. Build and test commands
5. Any existing conventions or patterns
Format your response as a structured markdown document.`;
try {
// Use default Claude model for analysis (can be overridden in the future)
const analysisModel = resolveModelString(
undefined,
DEFAULT_MODELS.claude
);
const provider = ProviderFactory.getProviderForModel(analysisModel);
const options: ExecuteOptions = {
prompt,
model: analysisModel,
maxTurns: 5,
cwd: projectPath,
allowedTools: ["Read", "Glob", "Grep"],
abortController,
};
const stream = provider.executeQuery(options);
let analysisResult = "";
for await (const msg of stream) {
if (msg.type === "assistant" && msg.message?.content) {
for (const block of msg.message.content) {
if (block.type === "text") {
analysisResult = block.text || "";
this.emitAutoModeEvent("auto_mode_progress", {
featureId: analysisFeatureId,
content: block.text,
projectPath,
});
}
}
} else if (msg.type === "result" && msg.subtype === "success") {
analysisResult = msg.result || analysisResult;
}
}
// Save analysis to external automaker directory
const automakerDir = await getAutomakerDir(projectPath);
const analysisPath = path.join(automakerDir, "project-analysis.md");
await fs.mkdir(automakerDir, { recursive: true });
await fs.writeFile(analysisPath, analysisResult);
this.emitAutoModeEvent("auto_mode_feature_complete", {
featureId: analysisFeatureId,
passes: true,
message: "Project analysis completed",
projectPath,
});
} catch (error) {
this.emitAutoModeEvent("auto_mode_error", {
featureId: analysisFeatureId,
error: (error as Error).message,
projectPath,
});
}
}
/**
* Get current status
*/
getStatus(): {
isRunning: boolean;
autoLoopRunning: boolean;
runningFeatures: string[];
runningCount: number;
} {
return {
isRunning: this.autoLoopRunning || this.runningFeatures.size > 0,
autoLoopRunning: this.autoLoopRunning,
runningFeatures: Array.from(this.runningFeatures.keys()),
runningCount: this.runningFeatures.size,
};
}
/**
* Get detailed info about all running agents
*/
getRunningAgents(): Array<{
featureId: string;
projectPath: string;
projectName: string;
isAutoMode: boolean;
}> {
return Array.from(this.runningFeatures.values()).map((rf) => ({
featureId: rf.featureId,
projectPath: rf.projectPath,
projectName: path.basename(rf.projectPath),
isAutoMode: rf.isAutoMode,
}));
}
// Private helpers
private async setupWorktree(
projectPath: string,
featureId: string,
branchName: string
): Promise<string> {
// Git worktrees stay in project directory (not external automaker)
const worktreesDir = path.join(projectPath, ".worktrees");
const worktreePath = path.join(worktreesDir, featureId);
await fs.mkdir(worktreesDir, { recursive: true });
// Check if worktree already exists
try {
await fs.access(worktreePath);
return worktreePath;
} catch {
// Create new worktree
}
// Create branch if it doesn't exist
try {
await execAsync(`git branch ${branchName}`, { cwd: projectPath });
} catch {
// Branch may already exist
}
// Create worktree
try {
await execAsync(`git worktree add "${worktreePath}" ${branchName}`, {
cwd: projectPath,
});
} catch (error) {
// Worktree creation failed, fall back to direct execution
console.error(`[AutoMode] Worktree creation failed:`, error);
return projectPath;
}
return worktreePath;
}
private async loadFeature(
projectPath: string,
featureId: string
): Promise<Feature | null> {
// Features are stored in external automaker directory
const featureDir = await getFeatureDir(projectPath, featureId);
const featurePath = path.join(featureDir, "feature.json");
try {
const data = await fs.readFile(featurePath, "utf-8");
return JSON.parse(data);
} catch {
return null;
}
}
private async updateFeatureStatus(
projectPath: string,
featureId: string,
status: string
): Promise<void> {
// Features are stored in external automaker directory
const featureDir = await getFeatureDir(projectPath, featureId);
const featurePath = path.join(featureDir, "feature.json");
try {
const data = await fs.readFile(featurePath, "utf-8");
const feature = JSON.parse(data);
feature.status = status;
feature.updatedAt = new Date().toISOString();
// Set justFinishedAt timestamp when moving to waiting_approval (agent just completed)
// Badge will show for 2 minutes after this timestamp
if (status === "waiting_approval") {
feature.justFinishedAt = new Date().toISOString();
} else {
// Clear the timestamp when moving to other statuses
feature.justFinishedAt = undefined;
}
await fs.writeFile(featurePath, JSON.stringify(feature, null, 2));
} catch {
// Feature file may not exist
}
}
private async loadPendingFeatures(projectPath: string): Promise<Feature[]> {
// Features are stored in external automaker directory
const featuresDir = await getFeaturesDir(projectPath);
try {
const entries = await fs.readdir(featuresDir, { withFileTypes: true });
const features: Feature[] = [];
for (const entry of entries) {
if (entry.isDirectory()) {
const featurePath = path.join(
featuresDir,
entry.name,
"feature.json"
);
try {
const data = await fs.readFile(featurePath, "utf-8");
const feature = JSON.parse(data);
if (
feature.status === "pending" ||
feature.status === "ready" ||
feature.status === "backlog"
) {
features.push(feature);
}
} catch {
// Skip invalid features
}
}
}
// Sort by priority
return features.sort((a, b) => (a.priority || 999) - (b.priority || 999));
} catch {
return [];
}
}
/**
* Extract a title from feature description (first line or truncated)
*/
private extractTitleFromDescription(description: string): string {
if (!description || !description.trim()) {
return "Untitled Feature";
}
// Get first line, or first 60 characters if no newline
const firstLine = description.split("\n")[0].trim();
if (firstLine.length <= 60) {
return firstLine;
}
// Truncate to 60 characters and add ellipsis
return firstLine.substring(0, 57) + "...";
}
/**
* Extract image paths from feature's imagePaths array
* Handles both string paths and objects with path property
*/
private extractImagePaths(
imagePaths:
| Array<string | { path: string; [key: string]: unknown }>
| undefined,
projectPath: string
): string[] {
if (!imagePaths || imagePaths.length === 0) {
return [];
}
return imagePaths
.map((imgPath) => {
const pathStr = typeof imgPath === "string" ? imgPath : imgPath.path;
// Resolve relative paths to absolute paths
return path.isAbsolute(pathStr)
? pathStr
: path.join(projectPath, pathStr);
})
.filter((p) => p); // Filter out any empty paths
}
private buildFeaturePrompt(feature: Feature): string {
const title = this.extractTitleFromDescription(feature.description);
let prompt = `## Feature Implementation Task
**Feature ID:** ${feature.id}
**Title:** ${title}
**Description:** ${feature.description}
`;
if (feature.spec) {
prompt += `
**Specification:**
${feature.spec}
`;
}
// Add images note (like old implementation)
if (feature.imagePaths && feature.imagePaths.length > 0) {
const imagesList = feature.imagePaths
.map((img, idx) => {
const path = typeof img === "string" ? img : img.path;
const filename =
typeof img === "string"
? path.split("/").pop()
: img.filename || path.split("/").pop();
const mimeType =
typeof img === "string" ? "image/*" : img.mimeType || "image/*";
return ` ${
idx + 1
}. ${filename} (${mimeType})\n Path: ${path}`;
})
.join("\n");
prompt += `
**📎 Context Images Attached:**
The user has attached ${feature.imagePaths.length} image(s) for context. These images are provided both visually (in the initial message) and as files you can read:
${imagesList}
You can use the Read tool to view these images at any time during implementation. Review them carefully before implementing.
`;
}
prompt += `
## Instructions
Implement this feature by:
1. First, explore the codebase to understand the existing structure
2. Plan your implementation approach
3. Write the necessary code changes
4. Add or update tests as needed
5. Ensure the code follows existing patterns and conventions
When done, summarize what you implemented and any notes for the developer.`;
return prompt;
}
private async runAgent(
workDir: string,
featureId: string,
prompt: string,
abortController: AbortController,
imagePaths?: string[],
model?: string
): Promise<void> {
// Build SDK options using centralized configuration for feature implementation
const sdkOptions = createAutoModeOptions({
cwd: workDir,
model: model,
abortController,
});
// Extract model, maxTurns, and allowedTools from SDK options
const finalModel = sdkOptions.model!;
const maxTurns = sdkOptions.maxTurns;
const allowedTools = sdkOptions.allowedTools as string[] | undefined;
console.log(
`[AutoMode] runAgent called for feature ${featureId} with model: ${finalModel}`
);
// Get provider for this model
const provider = ProviderFactory.getProviderForModel(finalModel);
console.log(
`[AutoMode] Using provider "${provider.getName()}" for model "${finalModel}"`
);
// Build prompt content with images using utility
const { content: promptContent } = await buildPromptWithImages(
prompt,
imagePaths,
workDir,
false // don't duplicate paths in text
);
const options: ExecuteOptions = {
prompt: promptContent,
model: finalModel,
maxTurns: maxTurns,
cwd: workDir,
allowedTools: allowedTools,
abortController,
};
// Execute via provider
const stream = provider.executeQuery(options);
let responseText = "";
// Agent output goes to external automaker directory
// Note: We use the original projectPath here (from config), not workDir
// because workDir might be a worktree path
const configProjectPath = this.config?.projectPath || workDir;
const featureDirForOutput = await getFeatureDir(configProjectPath, featureId);
const outputPath = path.join(featureDirForOutput, "agent-output.md");
for await (const msg of stream) {
if (msg.type === "assistant" && msg.message?.content) {
for (const block of msg.message.content) {
if (block.type === "text") {
responseText += block.text || "";
// Check for authentication errors in the response
if (
block.text &&
(block.text.includes("Invalid API key") ||
block.text.includes("authentication_failed") ||
block.text.includes("Fix external API key"))
) {
throw new Error(
"Authentication failed: Invalid or expired API key. " +
"Please check your ANTHROPIC_API_KEY or GOOGLE_API_KEY, or run 'claude login' to re-authenticate."
);
}
this.emitAutoModeEvent("auto_mode_progress", {
featureId,
content: block.text,
});
} else if (block.type === "tool_use") {
this.emitAutoModeEvent("auto_mode_tool", {
featureId,
tool: block.name,
input: block.input,
});
}
}
} else if (msg.type === "error") {
// Handle error messages
throw new Error(msg.error || "Unknown error");
} else if (msg.type === "result" && msg.subtype === "success") {
responseText = msg.result || responseText;
}
}
// Save agent output
try {
await fs.mkdir(path.dirname(outputPath), { recursive: true });
await fs.writeFile(outputPath, responseText);
} catch {
// May fail if directory doesn't exist
}
}
private async executeFeatureWithContext(
projectPath: string,
featureId: string,
context: string,
useWorktrees: boolean
): Promise<void> {
const feature = await this.loadFeature(projectPath, featureId);
if (!feature) {
throw new Error(`Feature ${featureId} not found`);
}
const prompt = `## Continuing Feature Implementation
${this.buildFeaturePrompt(feature)}
## Previous Context
The following is the output from a previous implementation attempt. Continue from where you left off:
${context}
## Instructions
Review the previous work and continue the implementation. If the feature appears complete, verify it works correctly.`;
return this.executeFeature(projectPath, featureId, useWorktrees, false);
}
/**
* Emit an auto-mode event wrapped in the correct format for the client.
* All auto-mode events are sent as type "auto-mode:event" with the actual
* event type and data in the payload.
*/
private emitAutoModeEvent(
eventType: string,
data: Record<string, unknown>
): void {
// Wrap the event in auto-mode:event format expected by the client
this.events.emit("auto-mode:event", {
type: eventType,
...data,
});
}
private sleep(ms: number): Promise<void> {
return new Promise((resolve) => setTimeout(resolve, ms));
}
}