Dsql
ClineOfficialPublished by Cline
- Skill
- Tool integration
- Cloud and DevOps
- Apache-2.0
- Low risk
- Has scripts
AutoGineer summary
Written by AutoGineer from the skill’s own files, not by the author
The dsql skill provides a structured framework for working with Amazon Aurora DSQL, a serverless, distributed SQL database. It covers the full lifecycle of database operations, including schema management, multi-tenant design, IAM-based authentication, and migration strategies from MySQL or PostgreSQL. The skill integrates with MCP tools to facilitate direct query execution, SQL linting, and documentation access, while enforcing best practices for transaction limits, OCC retry patterns, and bulk data loading.
What it does
- Provides MCP tools for direct query execution, schema inspection, and SQL compatibility linting.
- Offers step-by-step workflows for migrating existing MySQL and PostgreSQL databases to DSQL.
- Guides users through implementing multi-tenant isolation and application-layer referential integrity.
- Supplies patterns for handling OCC retries and batching DDL/DML operations within transaction limits.
- Facilitates bulk data loading from CSV, TSV, or Parquet files using specialized loader utilities.
- Includes diagnostic procedures for query plan explainability and performance optimization.
When to use it
- When starting a new project or migrating an existing application to Aurora DSQL.
- When performing schema migrations or complex DDL operations that require validation.
- When troubleshooting performance issues or unexpected query plans.
- When implementing secure, IAM-based access control and scoped database roles.
- When bulk loading large datasets into a DSQL cluster.
Advantages
- Ensures adherence to DSQL-specific constraints and best practices through linting and structured workflows.
- Simplifies complex migrations with pre-defined type mapping and schema conversion patterns.
- Promotes secure development by enforcing IAM authentication and least-privilege access control.
- Reduces operational risk by providing clear procedures for transaction management and error recovery.
- Standardizes diagnostic reporting for query performance analysis.
Usage examples
- “How do I migrate my existing PostgreSQL schema to Aurora DSQL?”
- The agent will guide you through using dsql_lint for compatibility checks, applying specific type mappings from the pg-migrations reference, and handling unfixable patterns manually.
- “I am getting an OCC serialization error, how do I fix it?”
- The agent will provide the standard OCC retry pattern and suggest checking for hot-key contention using the troubleshooting reference.
- “How do I securely connect my application to DSQL using IAM?”
- The agent will explain how to map IAM roles to scoped database roles and provide the command to generate a temporary DB connect token.
- “Analyze this slow query plan for my DSQL cluster.”
- The agent will initiate the query plan explainability workflow, requiring you to provide the plan while it guides you through diagnostic steps and produces a structured report.
Install
Download the skill as a ZIP:
https://mp-staging.autogineer.com/agent-skills/cline/dsql/downloadUnzip it into the cross-client skills folder of your project:
mkdir -p .agents/skills && unzip dsql.zip -d .agents/skills
Documentation by Cline
Amazon Aurora DSQL Skill
Aurora DSQL is a serverless, PostgreSQL-compatible distributed SQL database. This skill covers direct query execution via MCP tools, schema management, migrations, multi-tenant isolation, IAM auth, and bulk data loading via aurora-dsql-loader.
Reference Files
Load these files as needed for detailed guidance:
Core:
| Reference | When to Load | Contains |
|---|---|---|
| development-guide.md | ALWAYS before schema changes or DB operations | Best practices, DDL rules, transaction limits, app-layer referential integrity |
| language.md | MUST load for language-specific choices | Driver selection, DSQL Connectors, connection code |
| access-control.md | MUST load for roles, grants, or sensitive data | Scoped role setup, IAM-to-database role mapping |
| troubleshooting.md | SHOULD load for errors or unexpected behavior | OCC errors, connection failures, cluster state errors, token expiry, DDL rejection causes |
| dsql-examples.md | Load for implementation examples | Multi-tenant schema examples, batch operations, FK validation patterns, connection pooling |
| onboarding.md | User requests "Get started with DSQL" | Interactive step-by-step guide |
| occ-retry-patterns.md | MUST load for OCC retry code or conflict mitigation | DSQL Connectors, manual retry pattern, idempotent design |
MCP:
| Reference | When to Load | Contains |
|---|---|---|
| mcp-setup.md | Always for MCP server guidance | Setup instructions, 2 configuration options |
| mcp-tools.md | For MCP tool syntax and examples | Tool parameters, input validation |
| dsql-lint.md | MUST load before running dsql_lint or processing external SQL | Tool reference, fix statuses, unfixable error resolution |
DDL Migrations:
| Reference | When to Load | Contains |
|---|---|---|
| ddl-migrations/overview.md | MUST load for DROP COLUMN, ALTER TYPE, DROP CONSTRAINT | Table recreation pattern, verify & swap |
| ddl-migrations/column-operations.md | DROP COLUMN, ALTER TYPE, SET/DROP NOT NULL/DEFAULT | Column-level migration patterns |
| ddl-migrations/constraint-operations.md | ADD/DROP CONSTRAINT, MODIFY PRIMARY KEY | Constraint and structural changes |
| ddl-migrations/batched-migration.md | Tables exceeding 3,000 rows | Batching patterns, progress tracking |
MySQL Migrations:
| Reference | When to Load | Contains |
|---|---|---|
| mysql-migrations/type-mapping.md | MUST load for MySQL → DSQL migration | Data type mappings, feature alternatives |
| mysql-migrations/ddl-operations.md | Translating MySQL DDL to DSQL | AUTO_INCREMENT, ENUM, SET, FK patterns |
| mysql-migrations/full-example.md | Complete MySQL table migration | End-to-end example with decision summary |
PostgreSQL Migrations:
| Reference | When to Load | Contains |
|---|---|---|
| pg-migrations/type-mapping.md | MUST load for PG → DSQL type questions | C collation rules, NUMERIC precision, JSON/JSONB |
| pg-migrations/fk-replacement.md | MUST load for FK validation code generation | Tenant-scoped validate_fk_*() template, cascade |
| pg-migrations/index-conversion.md | MUST load for unfixable index diagnostics | GIN/GiST/BRIN → btree, partial, expression indexes |
| pg-migrations/schema-objects.md | MUST load for ENUM, materialized views, extensions, multi-schema | ENUM → CHECK, views, role/IAM mapping |
| pg-migrations/multi-region.md | Multi-region, active-active, or HA questions | Architecture, geographic partitioning |
ORM Guides:
| Reference | When to Load | Contains |
|---|---|---|
| orm-guides/overview.md | Migrating any ORM to DSQL | Adapter names, key gotchas for Django/Hibernate/Rails/SQLAlchemy |
Data Loading:
| Reference | When to Load | Contains |
|---|---|---|
| data-loading.md | Planning or running bulk loads with aurora-dsql-loader | Fresh-vs-warm partitions, resume/retry, --on-conflict semantics, throughput diagnostics |
Query Plan Explainability:
| Reference | When to Load | Contains |
|---|---|---|
| query-plan/plan-interpretation.md | MUST load at Workflow 9 Phase 0 | DSQL node types, Node Duration math, estimation-error bands |
| query-plan/catalog-queries.md | MUST load at Workflow 9 Phase 0 | pg_class/pg_stats/pg_indexes SQL, correlated-predicate verification |
| query-plan/guc-experiments.md | MUST load at Workflow 9 Phase 0 | GUC experiment procedures, 30-second skip protocol |
| query-plan/report-format.md | MUST load at Workflow 9 Phase 0 | Required report structure, element checklist, support request template |
MCP Tools Available
The aurora-dsql MCP server provides these tools:
Database Operations:
readonly_query - Execute SELECT queries (returns list of dicts)
transact - Execute DDL/DML statements in transaction (takes list of SQL statements)
get_schema - Get table structure for a specific table
SQL Validation:
dsql_lint - Validate SQL for DSQL compatibility and optionally auto-fix issues. Use before executing externally-sourced SQL.
Documentation & Knowledge:
dsql_search_documentation - Search Aurora DSQL documentation
dsql_read_documentation - Read specific documentation pages
dsql_recommend - Get DSQL best practice recommendations
Note: There is no list_tables tool. Use readonly_query with information_schema.
See mcp-setup.md for detailed setup instructions. See mcp-tools.md for detailed usage and examples.
AWS Knowledge MCP (awsknowledge)
Consult for verifying DSQL service limits before advising users. The numeric limits below are defaults that may change — when a user's decision depends on an exact limit, verify it first:
| Limit | Default | Verify query |
|---|---|---|
| Max rows per transaction | 3,000 | aurora dsql transaction limits |
| Max data size per transaction | 10 MiB | aurora dsql transaction limits |
| Max transaction duration | 5 minutes | aurora dsql transaction limits |
| Max connections per cluster | 10,000 | aurora dsql connection limits |
| Auth token expiry | 15 minutes | aurora dsql authentication token |
| Max connection duration | 60 minutes | aurora dsql connection limits |
| Max indexes per table | 24 | aurora dsql index limits |
| Max columns per index | 8 | aurora dsql index limits |
| IDENTITY/SEQUENCE CACHE values | 1 or >= 65536 | aurora dsql sequence cache |
| Supported column data types | See docs | aurora dsql supported data types |
When to verify: Before recommending batch sizes, connection pool settings, or schema designs where hitting a limit would cause failures; any time the exact number can affect user decision.
Fallback: If awsknowledge is unavailable, use the defaults above and flag that limits should be verified against DSQL documentation.
CLI Tools
Use the AWS CLI, psql, and aurora-dsql-loader directly for cluster management, SQL connections, and bulk data loading from local or S3 CSV/TSV/Parquet files. Load data-loading.md for loader guidance.
Quick Start
Explore: Use
readonly_querywithinformation_schemato list tables. Useget_schemafor table structure.Query: Use
readonly_queryfor SELECT queries. MUST includetenant_idin WHERE for multi-tenant apps. MUST build SQL withsafe_query.build().Schema changes: Use
transactwith one DDL per transaction. MUST batch DML under 3,000 rows. MUST useCREATE INDEX ASYNCin a separate call. Usedsql_lintto validate first.Bulk load data: Use
aurora-dsql-loaderfor CSV/TSV/Parquet. Load data-loading.md for details. Use--dry-runfirst.
Common Workflows
Workflow 1: Create Multi-Tenant Schema
Create main table with tenant_id column using transact
Create async index on tenant_id in separate transact call
Create composite indexes for common query patterns (separate transact calls)
Verify schema with get_schema
MUST include tenant_id in all tables
MUST use
CREATE INDEX ASYNCexclusivelyMUST issue each DDL in its own transact call:
transact(["CREATE TABLE ..."])MUST serialize arrays as JSONB; expand at query time with
jsonb_array_elements_text(data)
Workflow 2: Safe Data Migration
MUST validate every DDL with dsql_lint(fix=true) before executing. DML does not require linting.
Validate DDL with
dsql_lint(sql=..., fix=true)— handle diagnostics per dsql-lint.mdAdd column:
transact(["ALTER TABLE ... ADD COLUMN ..."])Populate existing rows with UPDATE (batched under 3,000 rows)
Verify with readonly_query COUNT
Create index if needed: validate then
transact(["CREATE INDEX ASYNC ..."])
MUST issue each
ALTER TABLEin its owntransactcall — DSQL rejects multi-DDL transactions withmultiple ddl statements not supported in a transactionMUST add column with only name and type; apply DEFAULT via separate UPDATE
MUST batch updates under 3,000 rows in separate transact calls
Recovery: Resume failed batches by filtering WHERE new_column IS NULL.
Workflow 3: Bulk Data Loading
Use aurora-dsql-loader for CSV, TSV, or Parquet loads. MUST load data-loading.md before advising on throughput or diagnosing slow loads.
Validate with
--dry-runfirstRun with
--manifest-diron persistent storage (not/tmp— tmpfs on AL2023, lost on crash) and--headerif file has a header rowOn failure: resume with
--resume-job-id; for duplicates use--on-conflict do-nothingFor large tables: create secondary indexes after load using
CREATE INDEX ASYNC
Workflow 4: Application-Layer Referential Integrity
INSERT: MUST validate parent exists with readonly_query → throw error if not found → insert child with transact.
DELETE: MUST check dependents with readonly_query COUNT → return error if dependents exist → delete with transact if safe.
Workflow 5: Query with Tenant Isolation
MUST authorize the caller against the tenant — format validation does not establish authorization
MUST build SQL with
safe_query.build()— useallow()/regex()for values (emits'v'),ident()for table/column names (emits"v"). See input-validation.mdMUST include
tenant_idin the WHERE clause; reject cross-tenant access at the application layer
Workflow 6: Set Up Scoped Database Roles
MUST load access-control.md for role setup, IAM mapping, and schema permissions.
Workflow 7: Table Recreation DDL Migration
Use the Table Recreation Pattern for ALTER COLUMN TYPE, DROP COLUMN, DROP CONSTRAINT, or MODIFY PRIMARY KEY. This is a destructive workflow that requires user confirmation at each step. Every generated DDL in the pattern (CREATE new, INSERT ... SELECT, DROP old, RENAME) MUST be validated with dsql_lint(sql=..., fix=true) before execution.
MUST load ddl-migrations/overview.md before attempting any of these operations.
Workflow 8: Validate and Migrate to DSQL
MUST load dsql-lint.md before running dsql_lint. Run dsql_lint(sql=source_sql, fix=true) to validate and auto-convert. For MySQL-origin SQL, MUST cross-check against mysql-migrations/type-mapping.md even when lint returns clean. On parse_error, fall back to manual conversion then re-lint.
Workflow 9: Query Plan Explainability
Explains why the DSQL optimizer chose a particular plan. Triggered by slow queries, high DPU, unexpected Full Scans, or plans the user doesn't understand. REQUIRES a structured Markdown diagnostic report as the deliverable.
MUST load all four reference files at Phase 0: query-plan/plan-interpretation.md, query-plan/catalog-queries.md, query-plan/guc-experiments.md, query-plan/report-format.md. The phase procedures (capture plan, gather evidence, experiment, produce report) are defined in those files.
Safety. Plan capture uses readonly_query exclusively. Rewrite DML to SELECT for plan capture. MUST NOT use transact --allow-writes for plan capture.
Workflow 10: Full PostgreSQL → DSQL Schema Migration
MUST load pg-migrations/type-mapping.md and pg-migrations/schema-objects.md. Run dsql_lint(fix=true) first for mechanical fixes, then apply semantic conversions from the pg-migrations references for unfixable diagnostics and patterns the linter cannot handle. Re-lint the final output before deploying.
Workflow 11: ORM Migration (Django/Hibernate/Rails)
Load orm-guides/overview.md for adapter names and framework-specific gotchas.
Error Scenarios
awsknowledgereturns no results: Use the default limits in the table above and note that limits should be verified against DSQL documentation.dsql_lintunavailable or timing out: See the Error Handling section of dsql-lint.md. Do not silently skip validation — inform the user and require explicit confirmation before proceeding with manual rules from development-guide.md.OCC serialization error: Retry the transaction. If persistent, check for hot-key contention — see troubleshooting.md.
Transaction exceeds limits: Split into batches under 3,000 rows — see batched-migration.md.
Token expiration mid-operation: Generate a fresh IAM token — see authentication-guide.md. See troubleshooting.md for other issues.
Additional Resources
Files
- ATTRIBUTION.mdAdded by AutoGineer795 B
- LICENSELicence file added by AutoGineer10.5 KiB
- SKILL.md20.0 KiB
- mcp/mcp-setup.md3.6 KiB
- mcp/mcp-tools.md2.0 KiB
- mcp/tools/database-tools.md4.6 KiB
- mcp/tools/documentation-tools.md1.3 KiB
- mcp/tools/input-validation.md3.3 KiB
- mcp/tools/safe_query.pyScript10.4 KiB
- mcp/tools/workflow-patterns.md2.9 KiB
- references/access-control.md5.0 KiB
- references/auth/authentication-guide.md4.4 KiB
- references/auth/connectivity-tools.md6.1 KiB
- references/auth/scaling-guide.md3.9 KiB
- references/data-loading.md6.0 KiB
- references/ddl-migrations/batched-migration.md2.5 KiB
- references/ddl-migrations/column-operations.md5.0 KiB
- references/ddl-migrations/constraint-operations.md4.5 KiB
- references/ddl-migrations/overview.md7.2 KiB
- references/development-guide.md7.0 KiB
- references/dsql-examples.md1.5 KiB
- references/dsql-lint.md9.5 KiB
- references/examples/connection.md2.5 KiB
- references/examples/data-operations.md2.9 KiB
- references/examples/migrations.md1.6 KiB
- references/examples/patterns.md4.7 KiB
- references/examples/schema.md1.5 KiB
- references/language.md8.0 KiB
- references/mysql-migrations/ddl-auto-increment.md3.9 KiB
- references/mysql-migrations/ddl-batching.md1.0 KiB
- references/mysql-migrations/ddl-column-changes.md1.1 KiB
- references/mysql-migrations/ddl-constraints.md2.6 KiB
- references/mysql-migrations/ddl-operations.md2.9 KiB
- references/mysql-migrations/ddl-structural.md3.7 KiB
- references/mysql-migrations/ddl-type-alternatives.md3.1 KiB
- references/mysql-migrations/full-example.md6.8 KiB
- references/mysql-migrations/type-mapping.md13.5 KiB
- references/occ-retry-patterns.md5.7 KiB
- references/onboarding.md13.1 KiB
- references/orm-guides/overview.md4.4 KiB
- references/pg-migrations/fk-replacement.md2.9 KiB
- references/pg-migrations/index-conversion.md10.3 KiB
- references/pg-migrations/multi-region.md2.9 KiB
- references/pg-migrations/schema-objects.md13.2 KiB
- references/pg-migrations/type-mapping.md4.8 KiB
- references/query-plan/catalog-queries.md4.3 KiB
- references/query-plan/guc-experiments.md7.5 KiB
- references/query-plan/plan-interpretation.md7.8 KiB
- references/query-plan/report-format.md10.9 KiB
- references/troubleshooting.md4.4 KiB
references/query-plan/plan-interpretation.md
Plan Interpretation Reference
Table of Contents
DSQL Node Types
Layered Plan Structure
Calculating Node Duration
Detecting Estimation Errors
Nested Loop Amplification
Post-Scan Filter Selectivity
Hash Table Resizing
High-Loop Storage Lookups
Anomalous Values
Projections and Row Width
DSQL Node Types
DSQL stores all table data in B-Tree structures. Secondary indexes are also B-Tree, and contain the primary table keys for the secondary index values that make up the tree. DSQL extends standard PostgreSQL with storage-layer node types:
DSQL-Specific Nodes
| Node Type | Description |
|---|---|
| Full Scan (btree-table) | Full table scan |
| Storage Scan | Physical read of >1 rows of data from storage layer via Pushdown Compute Engine |
| B-Tree Scan | Physical read of rows from storage |
| Storage Lookup | Point lookup of a row by internal row pointer (follows index scan) |
| B-Tree Lookup | Point lookup of a table entry by key |
Standard PostgreSQL Nodes
| Node Type | Description |
|---|---|
| Nested Loop | Iterates inner side once per outer row |
| Hash Join | Builds hash table from one side, probes with the other |
| Merge Join | Merges two pre-sorted inputs |
| Index Scan | Scans an index and fetches matching rows |
| Index Only Scan | Retrieves all data from index access (no table access) |
| Seq Scan | Sequential full table scan |
| Sort | Sorts rows for Merge Join or ORDER BY |
| Aggregate | Computes GROUP BY / aggregate functions |
Layered Plan Structure
A logical scan decomposes into a Storage Scan, which itself has a B-Tree Scan child — not two siblings. Index Scan adds a second, parallel Storage Lookup branch (its own B-Tree Lookup child) for columns the index does not cover.
Full Scan (single branch):
Full Scan (btree-table) on tablename
Filter: col_a = 'v' ← query processor filter (post-transfer)
-> Storage Scan on tablename
Filters: col_b = 'v' ← storage filter (pre-transfer)
-> B-Tree Scan on tablenameIndex Scan (two parallel branches; Storage Lookup is a sibling of Storage Scan, not a child):
Index Scan using idx on tablename
Index Cond: col_a = 'v'
-> Storage Scan on idx
-> B-Tree Scan on tablename
-> Storage Lookup on tablename ← separate branch for non-covered columns
-> B-Tree Lookup on tablenameA child's timing and row counts roll up into its parent's totals — not into a sibling branch.
Calculating Node Duration
DSQL follows the standard PostgreSQL EXPLAIN convention: actual time is reported per iteration, not cumulative. The node's total wall-clock time is:
Node Duration = actual_time_end × loopsWhere:
actual_time_endis the per-iteration time reported for the node (in ms)loopsis the number of times the node executed (always 1 at the top level; >1 for the inner side of a Nested Loop)
Rank all nodes by total duration descending. Begin analysis from the most expensive node.
Detecting Estimation Errors
An estimation error exists when estimated rows diverge significantly from actual rows:
| Error Magnitude | Classification |
|---|---|
| 2x–5x | Minor — note but low priority |
| 5x–50x | Significant — investigate statistics |
| 50x+ | Severe — likely correlated predicates or stale statistics |
Calculate error ratio: actual_rows / estimated_rows (or inverse if estimate is higher).
For each significant error, record:
The node type and table
The estimated vs actual row count
The index or scan method used
Any filter predicates applied
Nested Loop Amplification
Flag when a Nested Loop's outer input has a significant estimation error:
Pattern:
Nested Loop (est: N rows, actual: M rows)
├── [Outer] Hash Join / Scan (est: X, actual: Y where Y >> X)
└── [Inner] Index Scan (per-loop cost × Y loops)Explanation: The planner chose Nested Loop expecting X iterations on the inner side. With Y actual iterations (where Y >> X), total inner-side cost = per-loop cost × Y. A Hash Join or Merge Join would have been more efficient at this cardinality.
Quantify:
Expected total inner time: per-loop time × estimated outer rows
Actual total inner time: per-loop time × actual outer rows
Amplification factor: actual / estimated
Post-Scan Filter Selectivity
Calculate filter waste when a node applies a post-scan filter:
Filter Selectivity = Rows Removed by Filter / (Rows Removed by Filter + Actual Rows)| Selectivity | Interpretation |
|---|---|
| <10% | Minimal waste — filter removes few rows |
| 10%–50% | Moderate — consider composite index |
| >50% | High waste — strong candidate for index pushdown |
For nodes inside loops, calculate total filter waste:
Total rows scanned = (Actual Rows + Rows Removed) × loops
Total rows filtered = Rows Removed × loopsHash Table Resizing
When a Hash Join reports Buckets: originally N, now M (where M > N):
The planner underestimated the build-side cardinality
The hash table was dynamically resized during execution
This adds memory pressure and execution overhead
Flag the build-side estimation error and trace it to the source scan node.
High-Loop Storage Lookups
When a Storage Lookup has a high loop count:
Total I/O operations = actual_rows × loopsFlag when total I/O operations exceed 10,000. Each Storage Lookup involves a point read from the storage layer — high loop counts with even modest per-loop rows create significant cumulative I/O.
Anomalous Values
Detect physically impossible row counts in DSQL plan nodes:
Detection criteria:
A node reports
actual rowsexceeding the table's known total row count by 10x or moreParticularly common on Storage Lookup nodes under high loop counts
Example: Storage Lookup reporting 7.7 trillion actual rows for a table with 379,484 rows.
Action:
Flag as a potential DSQL reporting bug
Verify query results are correct (they typically are — only EXPLAIN output is affected)
Include in support request template
These anomalous values do not affect query correctness — only diagnostic output accuracy.
Projections and Row Width
Capture Projections lists from Storage Scan and Storage Lookup nodes:
Projections: [col1, col2, col3, ...]Assess row width overhead:
Count projected columns per node
Note when
SELECT *pulls all columns from wide tablesFlag tables with 50+ columns or estimated row width >5,000 bytes
Wide projections increase I/O on Storage Lookups and memory usage in Hash Joins. Impact scales with result set size.
Requirements and compatibility
Works with: Claude Code, Claude apps, OpenAI Codex, GitHub Copilot, Cursor, Gemini CLI, Kiro, OpenCode, Goose, Amp, Roo Code, JetBrains Junie, Factory Droid, Devin (ex-Windsurf), Mistral Vibe, OpenHands, Letta
“Works with” means the tool reads the open Agent Skills format; a skill written for one tool may use features others lack.
Needs: Needs an MCP server, Needs Python, Needs Node.js
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Attribution and licence
- Published by
- Cline
- Publisher
- Cline (Official)
- Source
- cline/skills · skills/dsql · commit 2637846
- Licence
- Apache License 2.0 (redistribution allowed)
- LICENSE (added by AutoGineer from LICENSE)
- ATTRIBUTION.md (written by AutoGineer)
- Synced
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