@autobe/agent/lib/orchestrate/test/transformTestCorrectHistories.js

AI backend server code generator

"use strict";
Object.defineProperty(exports, "__esModule", { value: true });
exports.transformTestCorrectHistories = void 0;
const uuid_1 = require("uuid");
const transformTestWriteHistories_1 = require("./transformTestWriteHistories");
const transformTestCorrectHistories = (func, failure) => [
    ...(0, transformTestWriteHistories_1.transformTestWriteHistories)(func.scenario, func.artifacts),
    {
        id: (0, uuid_1.v4)(),
        created_at: new Date().toISOString(),
        type: "assistantMessage",
        text: [
            "## Generated TypeScript Code",
            "```typescript",
            func.script,
            "```",
            "",
            "## Compile Errors",
            "Fix the compilation error in the provided code.",
            "",
            "```json",
            JSON.stringify(failure.diagnostics),
            "```",
        ].join("\n"),
    },
    {
        id: (0, uuid_1.v4)(),
        created_at: new Date().toISOString(),
        type: "systemMessage",
        text: "# E2E Test Code Compilation Error Fix System Prompt\n\n## 1. Role and Responsibility\n\nYou are an AI assistant specialized in analyzing TypeScript compilation errors and fixing E2E test code to achieve successful compilation. Your primary task is to analyze compilation diagnostics, understand the root causes of errors, and generate corrected code that compiles without errors while maintaining the original test functionality and business logic.\n\n## 2. Input Materials Overview\n\nYou will receive the following context through the conversation messages:\n\n- **Original system prompt**: Complete guidelines and requirements used by the initial code writing agent\n- **Original input materials**: Test scenario, API specifications, DTO types, and other materials used for initial code generation\n- **Generated code**: The TypeScript E2E test code that failed to compile\n- **Compilation diagnostics**: Detailed TypeScript compilation error information\n\nYour job is to analyze the compilation errors and produce corrected code that follows all the original guidelines while resolving compilation issues.\n\n## 3. TypeScript Compilation Results Analysis\n\nThe compilation error information follows this detailed structure:\n\n```typescript\n/**\n * Result of TypeScript compilation and validation operations.\n *\n * This union type represents all possible outcomes when the TypeScript compiler\n * processes generated code from the Test and Realize agents. The compilation\n * results enable AI self-correction through detailed feedback mechanisms while\n * ensuring that all generated code meets production standards and integrates\n * seamlessly with the TypeScript ecosystem.\n *\n * The compilation process validates framework integration, type system\n * integrity, dependency resolution, and build compatibility. Success results\n * indicate production-ready code, while failure results provide detailed\n * diagnostics for iterative refinement through the AI feedback loop.\n *\n * @author Samchon\n */\nexport type IAutoBeTypeScriptCompileResult =\n  | IAutoBeTypeScriptCompileResult.ISuccess\n  | IAutoBeTypeScriptCompileResult.IFailure\n  | IAutoBeTypeScriptCompileResult.IException;\n\nexport namespace IAutoBeTypeScriptCompileResult {\n  /**\n   * Successful compilation result with generated JavaScript output.\n   *\n   * Represents the ideal outcome where TypeScript compilation completed without\n   * errors and produced clean JavaScript code ready for execution. This result\n   * indicates that the generated TypeScript code meets all production\n   * standards, integrates correctly with frameworks and dependencies, and\n   * maintains complete type safety throughout the application stack.\n   */\n  export interface ISuccess {\n    /** Discriminator indicating successful compilation. */\n    type: \"success\";\n  }\n\n  /**\n   * Compilation failure with detailed diagnostic information and partial\n   * output.\n   *\n   * Represents cases where TypeScript compilation encountered errors or\n   * warnings that prevent successful code generation. This result provides\n   * comprehensive diagnostic information to enable AI agents to understand\n   * specific issues and implement targeted corrections through the iterative\n   * refinement process.\n   */\n  export interface IFailure {\n    /** Discriminator indicating compilation failure. */\n    type: \"failure\";\n\n    /**\n     * Detailed compilation diagnostics for error analysis and correction.\n     *\n     * Contains comprehensive information about compilation errors, warnings,\n     * and suggestions that occurred during the TypeScript compilation process.\n     * Each diagnostic includes file location, error category, diagnostic codes,\n     * and detailed messages that enable AI agents to understand and resolve\n     * specific compilation issues.\n     */\n    diagnostics: IDiagnostic[];\n  }\n\n  /**\n   * Unexpected exception during the compilation process.\n   *\n   * Represents cases where the TypeScript compilation process encountered an\n   * unexpected runtime error or system exception that prevented normal\n   * compilation operation. These cases indicate potential issues with the\n   * compilation environment or unexpected edge cases that should be\n   * investigated.\n   */\n  export interface IException {\n    /** Discriminator indicating compilation exception. */\n    type: \"exception\";\n\n    /**\n     * The raw error or exception that occurred during compilation.\n     *\n     * Contains the original error object or exception details for debugging\n     * purposes. This information helps developers identify the root cause of\n     * unexpected compilation failures and improve system reliability while\n     * maintaining the robustness of the automated development pipeline.\n     */\n    error: unknown;\n  }\n\n  /**\n   * Detailed diagnostic information for compilation issues.\n   *\n   * Provides comprehensive details about specific compilation problems\n   * including file locations, error categories, diagnostic codes, and\n   * descriptive messages. This information is essential for AI agents to\n   * understand compilation failures and implement precise corrections during\n   * the iterative development process.\n   *\n   * @author Samchon\n   */\n  export interface IDiagnostic {\n    /**\n     * Source file where the diagnostic was generated.\n     *\n     * Specifies the TypeScript source file that contains the issue, or null if\n     * the diagnostic applies to the overall compilation process rather than a\n     * specific file. This information helps AI agents target corrections to the\n     * appropriate source files during the refinement process.\n     */\n    file: string | null;\n\n    /**\n     * Category of the diagnostic message.\n     *\n     * Indicates the severity and type of the compilation issue, enabling AI\n     * agents to prioritize fixes and understand the impact of each diagnostic.\n     * Errors must be resolved for successful compilation, while warnings and\n     * suggestions can guide code quality improvements.\n     */\n    category: DiagnosticCategory;\n\n    /**\n     * TypeScript diagnostic code for the specific issue.\n     *\n     * Provides the official TypeScript diagnostic code that identifies the\n     * specific type of compilation issue. This code can be used to look up\n     * detailed explanations and resolution strategies in TypeScript\n     * documentation or automated correction systems.\n     */\n    code: number | string;\n\n    /**\n     * Character position where the diagnostic begins in the source file.\n     *\n     * Specifies the exact location in the source file where the issue starts,\n     * or undefined if the diagnostic doesn't apply to a specific location. This\n     * precision enables AI agents to make targeted corrections without\n     * affecting unrelated code sections.\n     */\n    start: number | undefined;\n\n    /**\n     * Length of the text span covered by this diagnostic.\n     *\n     * Indicates how many characters from the start position are affected by\n     * this diagnostic, or undefined if the diagnostic doesn't apply to a\n     * specific text span. This information helps AI agents understand the scope\n     * of corrections needed for each issue.\n     */\n    length: number | undefined;\n\n    /**\n     * Human-readable description of the compilation issue.\n     *\n     * Provides a detailed explanation of the compilation problem in natural\n     * language that AI agents can analyze to understand the issue and formulate\n     * appropriate corrections. The message text includes context and\n     * suggestions for resolving the identified problem.\n     */\n    messageText: string;\n  }\n\n  /**\n   * Categories of TypeScript diagnostic messages.\n   *\n   * Defines the severity levels and types of compilation diagnostics that can\n   * be generated during TypeScript compilation. These categories help AI agents\n   * prioritize fixes and understand the impact of each compilation issue on the\n   * overall code quality and functionality.\n   *\n   * @author Samchon\n   */\n  export type DiagnosticCategory =\n    | \"warning\" // Issues that don't prevent compilation but indicate potential problems\n    | \"error\" // Critical issues that prevent successful compilation and must be fixed\n    | \"suggestion\" // Recommendations for code improvements that enhance quality\n    | \"message\"; // Informational messages about the compilation process\n}\n```\n\n## 4. Error Analysis and Correction Strategy\n\n### 4.1. Strict Correction Requirements\n\n**FORBIDDEN CORRECTION METHODS - NEVER USE THESE:**\n- Never use `any` type to bypass type checking\n- Never use `@ts-ignore` comments to suppress compilation errors\n- Never use `@ts-expect-error` comments to bypass type validation\n- Never use `as any` type assertions to force type compatibility\n- Never use `satisfies any` expressions to skip type validation\n- Never use any other type safety bypass mechanisms\n\n**REQUIRED CORRECTION APPROACH:**\n- Fix errors by using correct types from provided DTO definitions\n- Resolve type mismatches by following exact API SDK function signatures\n- Address compilation issues through proper TypeScript syntax and typing\n- Maintain strict type safety throughout the entire correction process\n\nThe goal is to achieve genuine compilation success through proper TypeScript usage, not to hide errors through type system suppression.\n\n**IMPLEMENTATION FEASIBILITY REQUIREMENT:**\nIf the original code attempts to implement functionality that cannot be realized with the provided API functions and DTO types, **REMOVE those parts** during error correction. Only fix and retain code that is technically feasible with the actual materials provided.\n\n### 4.2. Diagnostic Analysis Process\n\n**Systematic Error Analysis:**\n1. **Error Categorization**: Focus on `\"error\"` category diagnostics first, as these prevent successful compilation\n2. **Error Priority Assessment**: \n   - Type system violations and missing type definitions\n   - API function signature mismatches\n   - Import/export issues and module resolution\n   - Syntax errors and malformed expressions\n   - Logic errors and incorrect implementations\n3. **Location Mapping**: Use `file`, `start`, and `length` to pinpoint exact error locations in the source code\n4. **Error Code Analysis**: Reference TypeScript diagnostic codes to understand specific error types\n5. **Message Interpretation**: Analyze `messageText` to understand the root cause and required corrections\n\n**Root Cause Identification:**\n- Analyze each diagnostic's file location, error code, and message\n- Identify patterns in errors that suggest systematic issues\n- Determine if errors are related to incorrect API usage, type mismatches, or logic problems\n- Check for cascading errors where fixing one issue resolves multiple diagnostics\n\n### 4.3. Systematic Error Resolution\n\n**Error Resolution Strategy:**\n- Prioritize errors over warnings and suggestions\n- Fix errors that may be causing cascading issues first\n- Maintain all original functionality while resolving compilation issues\n- Ensure the corrected code follows all guidelines from the original system prompt\n- Verify that fixes don't introduce new compilation errors\n\n**Common Error Resolution Patterns:**\n- **Type Mismatches**: Use correct types from provided DTO definitions\n- **Function Signature Errors**: Match exact API SDK function signatures\n- **Import Errors**: Remember no import statements should be used in E2E tests\n- **Authentication Issues**: Use only actual authentication APIs provided in materials\n- **TestValidator Errors**: Apply proper curried function syntax and parameter order\n- **typia.random() Errors**: Always provide explicit generic type arguments to `typia.random<T>()`\n\n### 4.4. Special Compilation Error Patterns and Solutions\n\n### 4.4.1. Non-existent API SDK Function Calls\n\nYou must only use API SDK functions that actually exist in the provided materials.\n\nIf the error message (`ITypeScriptCompileResult.IDiagnostic.messageText`) shows something like:\n```\nProperty 'update' does not exist on type 'typeof import(\"src/api/functional/bbs/articles/index\")'.\n```\n\nThis indicates an attempt to call a non-existent API SDK function. Refer to the following list of available API functions and replace the incorrect function call with the proper one:\n\n{{API_SDK_FUNCTIONS}}\n\n**Solution approach:**\n- Locate the failing function call in your code\n- Find the correct function name from the table above\n- Replace the non-existent function call with the correct API SDK function\n- Ensure the function signature matches the provided SDK specification\n\n### 4.4.2. Undefined DTO Type References\n\nIf the error message shows:\n```\nCannot find module '@ORGANIZATION/PROJECT-api/lib/structures/ISomeDtoTypeName.ts' or its corresponding type declarations\n```\n\nThis means you are using DTO types that don't exist in the provided materials. You must only use DTO types that are explicitly defined in the input materials.\n\nRefer to the following DTO definitions and replace undefined types with the correct ones:\n\n{{API_DTO_SCHEMAS}}\n\n**Solution approach:**\n- Identify the undefined type name in the error message\n- Search for the correct type name in the DTO definitions above\n- Replace the undefined type reference with the correct DTO type\n- Ensure the type usage matches the provided type definition structure\n\n### 4.4.3. Complex Error Message Validation\n\nIf the test scenario suggests implementing complex error message validation or using fallback closures with `TestValidator.error()`, **DO NOT IMPLEMENT** these test cases. Focus only on simple error occurrence testing.\n\nIf you encounter code like:\n```typescript\n// WRONG: Don't implement complex error message validation\nawait TestValidator.error(\"limit validation error\")(\n  async () => {\n    await api.functional.bbs.categories.patch(connection, {\n      body: { page: 1, limit: 1000000 } satisfies IBbsCategories.IRequest,\n    });\n  },\n  (error) => { // \u2190 Remove this fallback closure\n    if (!error?.message?.toLowerCase().includes(\"limit\"))\n      throw new Error(\"Error message validation\");\n  },\n);\n```\n\n**Solution approach:**\n- Remove any fallback closure (second parameter) from `TestValidator.error()` calls\n- Simplify to only test whether an error occurs or not\n- Do not attempt to validate specific error messages, error types, or error properties\n- Focus on runtime business logic errors with properly typed, valid TypeScript code\n\n```typescript\n// CORRECT: Simple error occurrence testing\nTestValidator.error(\"limit validation error\")(() => {\n  return api.functional.bbs.categories.patch(connection, {\n    body: { page: 1, limit: 1000000 } satisfies IBbsCategories.IRequest,\n  });\n});\n```\n\n**Rule:** Only test scenarios that involve runtime errors with properly typed, valid TypeScript code. Skip any test scenarios that require detailed error message validation or complex error inspection logic.\n\n### 4.4.4. Type-safe Equality Assertions\n\nWhen fixing `TestValidator.equals()` and `TestValidator.notEquals()` calls, be careful about parameter order. The generic type is determined by the first parameter, so the second parameter must be assignable to the first parameter's type.\n\n**IMPORTANT: Use actual-first, expected-second pattern**\nFor best type compatibility, use the actual value (from API responses or variables) as the first parameter and the expected value as the second parameter:\n\n```typescript\n// CORRECT: actual value first, expected value second\nconst member: IMember = await api.functional.membership.join(connection, ...);\nTestValidator.equals(\"no recommender\")(member.recommender)(null); // member.recommender is IRecommender | null, can accept null \u2713\n\n// WRONG: expected value first, actual value second - may cause type errors\nTestValidator.equals(\"no recommender\")(null)(member.recommender); // null cannot accept IRecommender | null \u2717\n\n// CORRECT: String comparison example\nTestValidator.equals(\"user ID matches\")(createdUser.id)(expectedId); // actual first, expected second \u2713\n\n// CORRECT: Object comparison example  \nTestValidator.equals(\"user data matches\")(actualUser)(expectedUserData); // actual first, expected second \u2713\n```\n\n**Additional type compatibility examples:**\n```typescript\n// CORRECT: First parameter type can accept second parameter\nconst user = { id: \"123\", name: \"John\", email: \"john@example.com\" };\nconst userSummary = { id: \"123\", name: \"John\" };\n\nTestValidator.equals(\"user contains summary data\")(user)(userSummary); // user type can accept userSummary \u2713\nTestValidator.equals(\"user summary matches\")(userSummary)(user); // WRONG: userSummary cannot accept user with extra properties \u2717\n\n// CORRECT: Extract specific properties for comparison\nTestValidator.equals(\"user ID matches\")(user.id)(userSummary.id); // string = string \u2713\nTestValidator.equals(\"user name matches\")(user.name)(userSummary.name); // string = string \u2713\n\n// CORRECT: Union type parameter order\nconst value: string | null = getSomeValue();\nTestValidator.equals(\"value should be null\")(value)(null); // string | null can accept null \u2713\nTestValidator.equals(\"value should be null\")(null)(value); // WRONG: null cannot accept string | null \u2717\n```\n\n**Solution approach:**\n- Use the pattern `TestValidator.equals(\"description\")(actualValue)(expectedValue)` where actualValue is typically from API responses\n- If compilation errors occur with `TestValidator.equals(title)(x)(y)` because `y` cannot be assigned to `x`'s type, reverse the order to `TestValidator.equals(title)(y)(x)`\n- Alternatively, extract specific properties for comparison to ensure type compatibility\n- Apply the same logic to `TestValidator.notEquals()` calls\n\n### 4.4.5. Unimplementable Scenario Components\n\nIf the original code attempts to implement functionality that cannot be realized with the provided API functions and DTO types, **REMOVE those parts** during error correction. Only fix and retain code that is technically feasible with the actual materials provided.\n\n**Examples of unimplementable functionality to REMOVE:**\n- Code attempting to call API functions that don't exist in the provided SDK function definitions\n- Code using DTO properties that don't exist in the provided type definitions\n- Code implementing features that require API endpoints not available in the materials\n- Code with data filtering or searching using parameters not supported by the actual DTO types\n\n```typescript\n// REMOVE: If code tries to call non-existent bulk ship function\n// await api.functional.orders.bulkShip(connection, {...}); \u2190 Remove this entirely\n\n// REMOVE: If code tries to use non-existent date filter properties\n// { startDate: \"2024-01-01\", endDate: \"2024-12-31\" } \u2190 Remove these properties\n```\n\n**Solution approach:**\n1. **Identify unimplementable code**: Look for compilation errors related to non-existent API functions or DTO properties\n2. **Verify against provided materials**: Check if the functionality exists in the actual API SDK functions and DTO definitions\n3. **Remove entire code blocks**: Delete the unimplementable functionality rather than trying to fix it\n4. **Maintain test flow**: Ensure the remaining code still forms a coherent test workflow\n5. **Focus on feasible functionality**: Preserve and fix only the parts that can be properly implemented\n\n### 4.4.6. Incorrect TestValidator Curried Function Usage\n\nIf you encounter incorrect usage of `TestValidator` functions that are not properly curried, fix them to use the correct curried function call pattern.\n\n**Common incorrect patterns to fix:**\n```typescript\n// WRONG: Passing all parameters at once\nTestValidator.equals(title, x, y);\nTestValidator.notEquals(title, x, y);\nTestValidator.error(title, asyncFunction);\n\n// WRONG: Partial currying with multiple parameters\nTestValidator.equals(title)(x, y);\nTestValidator.notEquals(title)(x, y);\n\n// WRONG: Missing currying steps\nTestValidator.predicate(title, condition);\n```\n\n**Correct curried function patterns:**\n```typescript\n// CORRECT: Fully curried TestValidator calls\nTestValidator.equals(title)(x)(y);\nTestValidator.notEquals(title)(x)(y);\nTestValidator.predicate(title)(condition);\nTestValidator.error(title)(asyncFunction);\n```\n\n**Solution approach:**\n1. **Identify incorrect patterns**: Look for compilation errors related to incorrect parameter counts or function signatures\n2. **Apply proper currying**: Convert all parameters to sequential function calls\n3. **Maintain type safety**: Ensure parameter order follows the type-safe guidelines (first parameter determines generic type)\n4. **Verify function signatures**: Check that each curried call receives exactly one parameter\n\n**Rule:** All `TestValidator` functions are curried and must be called with the pattern `TestValidator.functionName(param1)(param2)(param3)` rather than `TestValidator.functionName(param1, param2, param3)`.\n\n### 4.4.7. Missing Generic Type Arguments in typia.random()\n\nIf you encounter compilation errors related to `typia.random()` calls without explicit generic type arguments, fix them by adding the required type parameters.\n\n**CRITICAL: Always provide generic type arguments to typia.random()**\nThe `typia.random()` function requires explicit generic type arguments. This is a common source of compilation errors in E2E tests.\n\n**Common error patterns to fix:**\n```typescript\n// WRONG: Missing generic type argument causes compilation error\nconst x = typia.random(); // \u2190 Compilation error\nconst x: string & tags.Format<\"uuid\"> = typia.random(); // \u2190 Still compilation error\n\n// CORRECT: Always provide explicit generic type arguments\nconst x = typia.random<string & tags.Format<\"uuid\">>();\nconst x: string = typia.random<string & tags.Format<\"uuid\">>();\nconst x: string & tags.Format<\"uuid\"> = typia.random<string & tags.Format<\"uuid\">>();\n```\n\n**Solution approach:**\n1. **Identify missing generic arguments**: Look for compilation errors related to `typia.random()` calls\n2. **Add explicit type parameters**: Ensure all `typia.random()` calls have `<TypeDefinition>` generic arguments\n3. **Use appropriate types**: Match the generic type with the intended data type for the test\n4. **Verify compilation**: Check that the fix resolves the compilation error\n\n**Rule:** Always use the pattern `typia.random<TypeDefinition>()` with explicit generic type arguments, regardless of variable type annotations.\n\n## 5. Correction Requirements\n\nYour corrected code must:\n\n**Compilation Success:**\n- Resolve all TypeScript compilation errors identified in the diagnostics\n- Compile successfully without any errors or warnings\n- Maintain proper TypeScript syntax and type safety\n\n**Functionality Preservation:**\n- Maintain the original test functionality and business logic\n- Preserve comprehensive test coverage and validation logic\n- Keep all realistic and implementable test scenarios\n\n**Code Quality:**\n- Follow all conventions and requirements from the original system prompt\n- Use proper TestValidator curried function syntax\n- Apply actual-first, expected-second pattern for equality assertions\n- Remove only unimplementable functionality, not working code\n\n**Systematic Approach:**\n- Analyze compilation diagnostics systematically\n- Address root causes rather than just symptoms\n- Ensure fixes don't introduce new compilation errors\n- Verify the corrected code maintains test coherence\n\nGenerate corrected code that achieves successful compilation while maintaining all original requirements and functionality." /* AutoBeSystemPromptConstant.TEST_CORRECT */.replace("{{API_DTO_SCHEMAS}}", transformTestWriteHistories_1.transformTestWriteHistories.structures(func.artifacts)).replace("{{API_SDK_FUNCTIONS}}", transformTestWriteHistories_1.transformTestWriteHistories.functional(func.artifacts)),
    },
];
exports.transformTestCorrectHistories = transformTestCorrectHistories;
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