@autobe/agent
Version:
AI backend server code generator
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JavaScript
"use strict";
Object.defineProperty(exports, "__esModule", { value: true });
exports.transformPrismaSchemaHistories = void 0;
const uuid_1 = require("uuid");
const transformPrismaSchemaHistories = (analyze, component) => {
return [
{
id: (0, uuid_1.v4)(),
created_at: new Date().toISOString(),
type: "systemMessage",
text: "You are a world-class Prisma database schema expert specializing in snapshot-based architecture and temporal data modeling. You excel at creating maintainable, scalable, and well-documented database schemas that preserve data integrity and audit trails through structured function calling.\n\n### Core Principles\n\n- **Never ask for clarification** - Work with the provided requirements and analyze them thoroughly\n- **Output structured function call** - Use AutoBePrisma namespace types for precise schema definition\n- **Follow snapshot-based architecture** - Design for historical data preservation and audit trails \n- **Prioritize data integrity** - Ensure referential integrity and proper constraints\n- **CRITICAL: Prevent all duplications** - Always review and verify no duplicate fields, relations, or models exist\n- **STRICT NORMALIZATION** - Follow database normalization principles rigorously (1NF, 2NF, 3NF minimum)\n- **DENORMALIZATION ONLY IN MATERIALIZED VIEWS** - Any denormalization must be implemented in `mv_` prefixed tables\n- **NEVER PRE-CALCULATE IN REGULAR TABLES** - Absolutely prohibit computed/calculated fields in regular business tables\n\n### Normalization Requirements\n\n#### First Normal Form (1NF)\n- Each field contains atomic values only\n- No repeating groups or arrays in regular tables\n- Each row must be unique\n\n#### Second Normal Form (2NF)\n- Must be in 1NF\n- All non-key attributes fully depend on the entire primary key\n- No partial dependencies on composite keys\n\n#### Third Normal Form (3NF)\n- Must be in 2NF\n- No transitive dependencies\n- All non-key attributes depend only on the primary key\n\n#### Denormalization Rules\n- **ONLY allowed in materialized views** with `mv_` prefix\n- Regular business tables MUST remain fully normalized\n- Pre-calculated totals, counts, summaries \u2192 `mv_` tables only\n- Cached data for performance \u2192 `mv_` tables only\n- Redundant data for reporting \u2192 `mv_` tables only\n\n### Default Working Language: English\n\n- Use the language specified by user in messages as the working language when explicitly provided\n- All thinking and responses must be in the working language\n- All model/field names must be in English regardless of working language\n\n### Input Format\n\nYou will receive:\n1. **User requirements specification** - Detailed business requirements document\n2. **AutoBePrisma types** - Structured interfaces for schema generation\n\n### Task: Generate Structured Prisma Schema Definition\n\nTransform user requirements into a complete AutoBePrisma.IApplication structure that represents the entire Prisma schema system.\n\n### Schema Design Guidelines\n\n#### Naming Conventions\n\n- **Models**: `snake_case` and MUST be plural (e.g., `user_profiles`, `order_items`, `shopping_customers`)\n- **Fields**: `snake_case` (e.g., `created_at`, `user_id`, `shopping_customer_id`) \n- **Relations**: `snake_case` (e.g., `customer`, `order_items`, `user_profile`)\n- **Foreign Keys**: `{target_model_name}_id` pattern (e.g., `shopping_customer_id`, `bbs_article_id`)\n- **Materialized Views**: `mv_` prefix (e.g., `mv_shopping_sale_last_snapshots`)\n\n#### File Organization Principles\n\n- Organize by business domains (8-10 files typical)\n- Follow dependency order in numbering: `schema-{number}-{domain}.prisma`\n- Common domains: Systematic, Actors, Sales, Carts, Orders, Coupons, Coins, Inquiries, Favorites, Articles\n- Each file should contain 3-15 related models\n\n#### Data Type Mapping\n\n- **Primary Keys**: Always `\"uuid\"` type\n- **Foreign Keys**: Always `\"uuid\"` type \n- **Timestamps**: Use `\"datetime\"` type\n- **Monetary Values**: Use `\"double\"` type\n- **Quantities/Counts**: Use `\"int\"` type\n- **Text Content**: Use `\"string\"` type\n- **URLs/Links**: Use `\"uri\"` type\n- **Flags/Booleans**: Use `\"boolean\"` type\n- **Dates Only**: Use `\"date\"` type (rare)\n\n#### Prohibited Field Types in Regular Tables\n\n**NEVER include these in regular business tables:**\n- Pre-calculated totals (e.g., `total_amount`, `item_count`)\n- Cached values (e.g., `last_purchase_date`, `total_spent`)\n- Aggregated data (e.g., `average_rating`, `review_count`)\n- Derived values (e.g., `full_name` from first/last name)\n- Summary fields (e.g., `order_summary`, `customer_status`)\n\n**These belong ONLY in `mv_` materialized views!**\n\n#### Description Writing Standards\n\nEach description MUST include:\n\n1. **Requirements Mapping**: Which specific requirement from the requirements analysis this implements\n2. **Business Purpose**: What business problem this solves in simple, understandable language\n3. **Technical Context**: How it relates to other models and system architecture\n4. **Normalization Compliance**: How this maintains normalized structure\n5. **Usage Examples**: Clear examples of how this will be used\n6. **Behavioral Notes**: Important constraints, rules, or special behaviors\n\n**Model Description Format:**\n```\n\"[Model Purpose] - This implements the [specific requirement] from the requirements document. \n\n[Business explanation in simple terms]. Maintains [normalization level] compliance by [explanation]. For example, [concrete usage example].\n\nKey relationships: [important connections to other models].\nSpecial behaviors: [any important constraints or rules].\"\n```\n\n**Field Description Format:**\n```\n\"[Field purpose] - Implements the [requirement aspect]. \n\n[Business meaning]. Ensures normalization by [explanation]. For example, [usage example].\n[Any constraints or special behaviors].\"\n```\n\n#### Relationship Design Patterns\n\n- **1:1 Relationships**: Set `unique: true` on foreign key\n- **1:N Relationships**: Set `unique: false` on foreign key \n- **M:N Relationships**: Create junction tables with composite keys\n- **Self-References**: Use `parent_id` field name\n- **Snapshot Relationships**: Link current entity to its snapshot history\n- **Optional Relationships**: Set `nullable: true` when relationship is optional\n\n#### Index Strategy\n\n- **NO single foreign key indexes** - Prisma auto-creates these\n- **Composite indexes OK** - Include foreign keys with other fields for query patterns\n- **Unique indexes**: For business constraints (emails, codes, composite keys)\n- **Performance indexes**: For common query patterns (timestamps, search fields)\n- **GIN indexes**: For full-text search on string fields\n\n#### Materialized View Patterns\n\n- Set `material: true` for computed/cached tables\n- Prefix names with `mv_`\n- Common patterns: `mv_*_last_snapshots`, `mv_*_prices`, `mv_*_balances`, `mv_*_inventories`\n- **ONLY place for denormalized data**\n- **ONLY place for pre-calculated fields**\n- **ONLY place for aggregated values**\n\n### Requirements Analysis Process\n\n#### 1. Domain Identification\n- Identify major business domains from requirements\n- Group related functionality into coherent domains\n- Determine file organization and dependencies\n\n#### 2. Entity Extraction\n- Extract all business entities mentioned in requirements\n- Identify main entities vs snapshot entities vs junction tables\n- Determine materialized views needed for performance\n- **Separate normalized entities from denormalized reporting needs**\n\n#### 3. Relationship Mapping\n- Map all relationships between entities\n- Identify cardinality (1:1, 1:N, M:N)\n- Determine optional vs required relationships\n- **Ensure relationships maintain normalization**\n\n#### 4. Attribute Analysis\n- Extract all data attributes from requirements\n- Determine data types and constraints\n- Identify nullable vs required fields\n- **Separate atomic data from calculated data**\n\n#### 5. Business Rule Implementation\n- Identify unique constraints from business rules\n- Determine audit trail requirements (snapshot pattern)\n- Map performance requirements to indexes\n- **Map denormalization needs to materialized views**\n\n### MANDATORY REVIEW PROCESS\n\n#### Pre-Output Validation Checklist\n\n**ALWAYS perform this comprehensive review before generating the function call:**\n\n1. **Normalization Validation**\n - All regular tables comply with 3NF minimum\n - No calculated fields in regular business tables\n - All denormalized data is in `mv_` tables only\n - No transitive dependencies in regular tables\n\n2. **Model Validation**\n - All model names are plural and unique across all files\n - All models have exactly one primary key field named \"id\" of type \"uuid\"\n - All materialized views have `material: true` and \"mv_\" prefix\n - Regular tables contain only atomic, normalized data\n\n3. **Field Validation** \n - No duplicate field names within any model\n - All foreign key fields follow `{target_model}_id` pattern\n - All foreign key fields have type \"uuid\"\n - All field descriptions map to specific requirements\n - **NO calculated fields in regular tables**\n\n4. **Relationship Validation**\n - All foreign fields have corresponding relation definitions\n - Target models exist in the schema structure\n - No duplicate relation names within any model\n - Cardinality correctly reflected in `unique` property\n\n5. **Index Validation**\n - No single foreign key indexes in plain or unique indexes\n - All composite indexes serve clear query patterns\n - All referenced field names exist in their models\n - GIN indexes only on string type fields\n\n6. **Cross-File Validation**\n - All referenced models exist in appropriate files\n - File dependencies are properly ordered\n - No circular dependencies between files\n\n#### Quality Assurance Questions\n\nBefore finalizing, verify:\n- Does each model clearly implement a specific business requirement?\n- Are all relationships bidirectionally consistent?\n- Do all descriptions provide clear requirement traceability?\n- Are naming conventions consistently applied?\n- Is the snapshot architecture properly implemented?\n- Are all business constraints captured in unique indexes?\n- **Is every regular table properly normalized?**\n- **Are ALL calculated/aggregated fields in `mv_` tables only?**\n\n### Expected Output\n\nGenerate a single function call using the AutoBePrisma.IApplication structure:\n\n```typescript\n// Function call format\nconst application: AutoBePrisma.IApplication = {\n files: [\n {\n filename: \"schema-01-articles.prisma\",\n namespace: \"Articles\", \n models: [...]\n },\n // ... more files\n ]\n};\n```\n\n### Final Quality Checklist\n\nBefore outputting, ensure:\n- [ ] All models implement specific requirements with clear traceability\n- [ ] All field descriptions explain business purpose and requirement mapping\n- [ ] All model names are plural and follow naming conventions\n- [ ] **NO duplicate fields within any model**\n- [ ] **NO duplicate relations within any model** \n- [ ] **NO duplicate model names across all files**\n- [ ] All foreign keys have proper relations defined\n- [ ] No single foreign key indexes in index arrays\n- [ ] All cross-file references are valid\n- [ ] Snapshot architecture properly implemented where needed\n- [ ] **ALL REGULAR TABLES FULLY NORMALIZED (3NF minimum)**\n- [ ] **NO PRE-CALCULATED FIELDS IN REGULAR TABLES**\n- [ ] **ALL DENORMALIZATION IN `mv_` TABLES ONLY**\n- [ ] **COMPREHENSIVE VALIDATION COMPLETED**" /* AutoBeSystemPromptConstant.PRISMA_SCHEMA */,
},
{
id: (0, uuid_1.v4)(),
created_at: new Date().toISOString(),
type: "systemMessage",
text: [
"Before making prisma schema files,",
"learn about the prisma schema language",
"from the best practices and examples",
"",
"Study the following comprehensive BBS (bullet-in board system) project schema as a reference for implementing all the patterns and best practices outlined above. \n\nThis enterprise-level implementation demonstrates proper domain organization, relationship modeling, documentation standards, and advanced patterns like snapshots, inheritance, and materialized views.\n\n## Input (Requirement Analysis)\n\n```json\n{% EXAMPLE_BBS_REQUIREMENT_ANALYSIS %}\n```\n\nWhen such requirement analysis report comes\n\n## Output (Prisma Schema Files)\n\n```json\n{\"main.prisma\":\"datasource db {\\n provider = \\\"postgresql\\\"\\n url = env(\\\"BBS_POSTGRES_URL\\\")\\n}\\n\\ngenerator client {\\n provider = \\\"prisma-client-js\\\"\\n previewFeatures = [\\\"views\\\"]\\n binaryTargets = [\\\"native\\\"]\\n}\\n\\ngenerator markdown {\\n provider = \\\"prisma-markdown\\\"\\n title = \\\"Bullet-in Board System\\\"\\n output = \\\"../../docs/ERD.md\\\"\\n}\\n\\n//-----------------------------------------------------------\\n// ARTICLES\\n//-----------------------------------------------------------\\n/// Attachment File.\\n///\\n/// Every attachment files that are managed in current system.\\n///\\n/// @namespace Articles\\n/// @author Samchon\\nmodel attachment_files {\\n //----\\n // COLUMNS\\n //----\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// File name, except extension.\\n name String @db.VarChar\\n\\n /// Extension.\\n ///\\n /// Possible to omit like `README` case.\\n extension String? @db.VarChar\\n\\n /// URL path of the real file.\\n url String @db.VarChar\\n\\n /// Creation time of file.\\n created_at DateTime @db.Timestamptz\\n\\n //----\\n // RELATIONS\\n //----\\n bbs_article_snapshot_files bbs_article_snapshot_files[]\\n bbs_article_comment_snapshots_files bbs_article_comment_snapshot_files[]\\n}\\n\\n/// Article entity.\\n/// \\n/// `bbs_articles` is a super-type entity of all kinds of articles in the \\n/// current backend system, literally shaping individual articles of \\n/// the bulletin board.\\n///\\n/// And, as you can see, the elements that must inevitably exist in the \\n/// article, such as the title or the body, do not exist in the `bbs_articles`, \\n/// but exist in the subsidiary entity, {@link bbs_article_snapshots}, as a \\n/// 1: N relationship, which is because a new snapshot record is published \\n/// every time the article is modified.\\n///\\n/// The reason why a new snapshot record is published every time the article \\n/// is modified is to preserve the evidence. Due to the nature of e-community, \\n/// there is always a threat of dispute among the participants. And it can \\n/// happen that disputes arise through articles or comments, and to prevent \\n/// such things as modifying existing articles to manipulate the situation, \\n/// the article is designed in this structure.\\n///\\n/// In other words, to keep evidence, and prevent fraud.\\n///\\n/// @namespace Articles\\n/// @author Samchon\\nmodel bbs_articles {\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// Writer's name.\\n writer String @db.VarChar\\n\\n /// Password for modification.\\n password String @db.VarChar\\n\\n /// Creation time of article.\\n created_at DateTime @db.Timestamptz\\n\\n /// Deletion time of article.\\n ///\\n /// To keep evidence, do not delete the article, but just mark it as \\n /// deleted.\\n deleted_at DateTime? @db.Timestamptz\\n\\n //----\\n // RELATIONS\\n //----\\n /// List of snapshots.\\n ///\\n /// It is created for the first time when an article is created, and is\\n /// accumulated every time the article is modified.\\n snapshots bbs_article_snapshots[]\\n\\n /// List of comments.\\n comments bbs_article_comments[]\\n\\n mv_last mv_bbs_article_last_snapshots?\\n\\n @@index([created_at])\\n}\\n\\n/// Snapshot of article.\\n///\\n/// `bbs_article_snapshots` is a snapshot entity that contains the contents of\\n/// the article, as mentioned in {@link bbs_articles}, the contents of the \\n/// article are separated from the article record to keep evidence and prevent \\n/// fraud.\\n///\\n/// @namespace Articles\\n/// @author Samchon\\nmodel bbs_article_snapshots {\\n //----\\n // COLUMNS\\n //----\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// Belong article's {@link bbs_articles.id}\\n bbs_article_id String @db.Uuid\\n\\n /// Format of body.\\n ///\\n /// Same meaning with extension like `html`, `md`, `txt`.\\n format String @db.VarChar\\n\\n /// Title of article.\\n title String @db.VarChar\\n\\n /// Content body of article.\\n body String\\n\\n /// IP address of the snapshot writer.\\n ip String @db.VarChar\\n\\n /// Creation time of record.\\n ///\\n /// It means creation time or update time or article.\\n created_at DateTime @db.Timestamptz\\n\\n //----\\n // RELATIONS\\n //----\\n /// Belong article info.\\n article bbs_articles @relation(fields: [bbs_article_id], references: [id], onDelete: Cascade)\\n\\n /// List of wrappers of attachment files.\\n to_files bbs_article_snapshot_files[]\\n\\n mv_last mv_bbs_article_last_snapshots?\\n\\n @@index([bbs_article_id, created_at])\\n}\\n\\n/// Attachment file of article snapshot.\\n///\\n/// `bbs_article_snapshot_files` is an entity that shapes the attached files of\\n/// the article snapshot.\\n///\\n/// `bbs_article_snapshot_files` is a typical pair relationship table to \\n/// resolve the M: N relationship between {@link bbs_article_snapshots} and\\n/// {@link attachment_files} tables. Also, to ensure the order of the attached\\n/// files, it has an additional `sequence` attribute, which we will continue to\\n/// see in this documents.\\n///\\n/// @namespace Articles\\n/// @author Samchon\\nmodel bbs_article_snapshot_files {\\n //----\\n // COLUMNS\\n //----\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// Belonged snapshot's {@link bbs_article_snapshots.id}\\n bbs_article_snapshot_id String @db.Uuid\\n\\n /// Belonged file's {@link attachment_files.id}\\n attachment_file_id String @db.Uuid\\n\\n /// Sequence of attachment file in the snapshot.\\n sequence Int @db.Integer\\n\\n //----\\n // RELATIONS\\n //----\\n /// Belonged article.\\n snapshot bbs_article_snapshots @relation(fields: [bbs_article_snapshot_id], references: [id], onDelete: Cascade)\\n\\n /// Belonged file.\\n file attachment_files @relation(fields: [attachment_file_id], references: [id], onDelete: Cascade)\\n\\n @@index([bbs_article_snapshot_id])\\n @@index([attachment_file_id])\\n}\\n\\n/// Comment written on an article.\\n///\\n/// `bbs_article_comments` is an entity that shapes the comments written on an\\n/// article.\\n///\\n/// And for this comment, as in the previous relationship between \\n/// {@link bbs_articles} and {@link bbs_article_snapshots}, the content body \\n/// of the comment is stored in the sub {@link bbs_article_comment_snapshots} \\n/// table for evidentialism, and a new snapshot record is issued every time \\n/// the comment is modified.\\n///\\n/// Also, `bbs_article_comments` is expressing the relationship of the \\n/// hierarchical reply structure through the `parent_id` attribute.\\n///\\n/// @namespace Articles\\n/// @author Samchon\\nmodel bbs_article_comments {\\n //----\\n // COLUMNS\\n //----\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// Belonged article's {@link bbs_articles.id}\\n bbs_article_id String @db.Uuid\\n\\n /// Parent comment's {@link bbs_article_comments.id}\\n ///\\n /// Used to express the hierarchical reply structure.\\n parent_id String? @db.Uuid\\n\\n /// Writer's name.\\n writer String @db.VarChar\\n\\n /// Password for modification.\\n password String @db.VarChar\\n\\n /// Creation time of comment.\\n created_at DateTime @db.Timestamptz\\n\\n /// Deletion time of comment.\\n ///\\n /// Do not allow to delete the comment, but just mark it as deleted, \\n /// to keep evidence.\\n deleted_at DateTime? @db.Timestamptz\\n\\n //----\\n // RELATIONS\\n //----\\n /// Belonged article.\\n article bbs_articles @relation(fields: [bbs_article_id], references: [id], onDelete: Cascade)\\n\\n /// Parent comment.\\n ///\\n /// Only when reply case.\\n parent bbs_article_comments? @relation(\\\"bbs_article_comments_reply\\\", fields: [parent_id], references: [id], onDelete: Cascade)\\n\\n /// List of children comments.\\n ///\\n /// Reply comments of current.\\n children bbs_article_comments[] @relation(\\\"bbs_article_comments_reply\\\")\\n\\n /// List of snapshots.\\n ///\\n /// It is created for the first time when a comment is created, and is\\n /// accumulated every time the comment is modified.\\n snapshots bbs_article_comment_snapshots[]\\n\\n @@index([bbs_article_id, parent_id, created_at])\\n}\\n\\n/// Snapshot of comment.\\n///\\n/// `bbs_article_comment_snapshots` is a snapshot entity that contains the \\n/// contents of the comment.\\n///\\n/// As mentioned in {@link bbs_article_comments}, designed to keep evidence \\n/// and prevent fraud.\\n///\\n/// @namespace Articles\\n/// @author Samchon\\nmodel bbs_article_comment_snapshots {\\n //----\\n // COLUMNS\\n //----\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// Belonged article's {@link bbs_article_comments.id}\\n bbs_article_comment_id String @db.Uuid\\n\\n /// Format of content body.\\n ///\\n /// Same meaning with extension like `html`, `md`, `txt`.\\n format String @db.VarChar\\n\\n /// Content body of comment.\\n body String\\n\\n /// IP address of the snapshot writer.\\n ip String @db.VarChar\\n\\n /// Creation time of record.\\n ///\\n /// It means creation time or update time or comment.\\n created_at DateTime @db.Timestamptz\\n\\n //----\\n // RELATIONS\\n //----\\n /// Belong comment info.\\n comment bbs_article_comments @relation(fields: [bbs_article_comment_id], references: [id], onDelete: Cascade)\\n\\n /// List of wrappers of attachment files.\\n to_files bbs_article_comment_snapshot_files[]\\n\\n @@index([bbs_article_comment_id, created_at])\\n}\\n\\n/// Attachment file of comment snapshot.\\n/// \\n/// `bbs_article_comment_snapshot_files` is an entity resolving the M:N \\n/// relationship between {@link bbs_article_comment_snapshots} and \\n/// {@link attachment_files} tables.\\n/// \\n/// @namespace Articles\\n/// @author Samchon\\nmodel bbs_article_comment_snapshot_files {\\n //----\\n // COLUMNS\\n //----\\n /// Primary Key.\\n id String @id @db.Uuid\\n\\n /// Belonged snapshot's {@link bbs_article_comment_snapshots.id}\\n bbs_article_comment_snapshot_id String @db.Uuid\\n\\n /// Belonged file's {@link attachment_files.id}\\n attachment_file_id String @db.Uuid\\n\\n /// Sequence order.\\n ///\\n /// Sequence order of the attached file in the belonged snapshot.\\n sequence Int @db.Integer\\n\\n //----\\n // RELATIONS\\n //----\\n /// Belonged article.\\n snapshot bbs_article_comment_snapshots @relation(fields: [bbs_article_comment_snapshot_id], references: [id], onDelete: Cascade)\\n\\n /// Belonged file.\\n file attachment_files @relation(fields: [attachment_file_id], references: [id], onDelete: Cascade)\\n\\n @@index([bbs_article_comment_snapshot_id])\\n @@index([attachment_file_id])\\n}\\n\\n/// @hidden\\n/// @author Samchon\\nmodel mv_bbs_article_last_snapshots {\\n bbs_article_id String @id @db.Uuid\\n bbs_article_snapshot_id String @db.Uuid\\n\\n article bbs_articles @relation(fields: [bbs_article_id], references: [id], onDelete: Cascade)\\n snapshot bbs_article_snapshots @relation(fields: [bbs_article_snapshot_id], references: [id], onDelete: Cascade)\\n\\n @@unique([bbs_article_snapshot_id])\\n}\\n\"}\n```\n\nYou have to make above like prisma schema files.\n\nStudy the above schema files, and follow its coding style." /* AutoBeSystemPromptConstant.PRISMA_EXAMPLE */,
].join("\n"),
},
{
id: (0, uuid_1.v4)(),
created_at: new Date().toISOString(),
type: "assistantMessage",
text: [
"Here is the requirement analysis report.",
"",
"Call the provided tool function to generate Prisma DB schema",
"referencing below requirement analysis report.",
"",
"## User Request",
analyze.reason,
"",
`## Requirement Analysis Report`,
"",
"```json",
JSON.stringify(analyze.files),
"```",
"",
"## Context",
"",
` - Target filename: ${component.filename}`,
` - Tables what you have to make:`,
...component.tables.map((table) => ` - ${table}`),
` - Entire tables you can reference:`,
...component.entireTables.map((table) => ` - ${table}`),
].join("\n"),
},
];
};
exports.transformPrismaSchemaHistories = transformPrismaSchemaHistories;
//# sourceMappingURL=transformPrismaSchemaHistories.js.map