API Gateway
AWS LabsOfficialPublished by AWS Labs
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- Cloud and DevOps
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AutoGineer summary
Written by AutoGineer from the skill’s own files, not by the author
This skill provides comprehensive support for Amazon API Gateway, covering the full lifecycle of API development. It helps users choose between REST, HTTP, and WebSocket APIs based on specific requirements like cost, latency, and management features. The skill includes guidance on architecture patterns, security configurations (including mTLS and Lambda authorizers), performance tuning, and observability. It also provides troubleshooting steps for common errors and supports IaC implementation using SAM, CloudFormation, and CDK.
What it does
- Assists in selecting the appropriate API type (REST, HTTP, or WebSocket) based on enterprise needs.
- Provides architectural patterns for multi-tenant SaaS, private APIs, and cross-account deployments.
- Offers troubleshooting workflows for common 4xx and 5xx errors, including CORS and timeout issues.
- Guides the implementation of security controls like Lambda authorizers, JWT, and mTLS.
- Generates IaC templates for API Gateway resources using SAM, CloudFormation, or CDK.
- Configures performance settings such as throttling, usage plans, and caching strategies.
When to use it
- When designing or deploying APIs on AWS using API Gateway.
- When you need to troubleshoot API Gateway errors like 403, 502, 504, or CORS failures.
- When implementing security, authentication, or authorization for serverless APIs.
- When you need to optimize API performance, scaling, or observability.
- When you require Infrastructure as Code templates for API Gateway resources.
Advantages
- Reduces development time by providing clear decision trees for API types and auth methods.
- Minimizes configuration errors by highlighting common pitfalls and service limits.
- Ensures consistent deployment practices through standardized IaC patterns.
- Simplifies complex tasks like setting up mTLS or cross-account API routing.
- Provides a structured approach to observability and logging for production readiness.
Usage examples
- “I need to build a REST API that requires per-consumer throttling and request validation. Which API type should I use?”
- The agent will recommend the REST API (v1) and explain how to configure usage plans and request validation to meet your requirements.
- “My API is returning a 504 timeout error. How can I fix this?”
- The agent will guide you through checking backend latency, suggest optimizing the integration, or explain how to request a timeout increase for Regional/Private endpoints.
- “Generate a SAM template for a private API Gateway REST API.”
- The agent will provide a complete SAM/CloudFormation YAML template configured for a private endpoint, including necessary VPC link resources.
- “How do I set up mTLS for my API Gateway?”
- The agent will explain the requirements for Regional custom domains, S3 truststore configuration, and the necessary security policies.
Install
Download the skill as a ZIP:
https://mp-staging.autogineer.com/agent-skills/awslabs/api-gateway/downloadUnzip it into the cross-client skills folder of your project:
mkdir -p .agents/skills && unzip api-gateway.zip -d .agents/skills
Documentation by AWS Labs
Amazon API Gateway Development
Expert guidance for building, managing, governing, and operating APIs with Amazon API Gateway. Covers REST APIs (v1), HTTP APIs (v2), and WebSocket APIs.
How to Use This Skill
When answering API Gateway questions:
Read the relevant reference file(s) before responding, do not rely solely on this summary
For tasks spanning multiple concerns (e.g., "private API with mTLS and custom domain"), read all relevant references
When the user needs IaC templates, consult
references/sam-cloudformation.mdorreferences/sam-service-integrations.mdand provide complete, working SAM/CloudFormation YAMLAlways mention relevant pitfalls and limits that affect the user's design
Quick Decision: Which API Type?
Choose the right API type first. This decision affects every downstream choice.
REST API is the full-featured API management platform for enterprises. It provides the governance, security, monetization, and operational controls that organizations need to build, publish, and manage APIs at scale, including usage plans with per-consumer throttling and quotas, API keys, request validation, WAF integration, resource policies, caching, canary deployments, and private endpoints.
HTTP API is the lightweight, low-cost proxy optimized for simpler API workloads. It offers ~70% lower cost and lower latency but trades away the API management features. Choose HTTP API when you need a fast, lightweight proxy to Lambda or HTTP backends and don't require the enterprise controls above.
| Factor | REST API (v1) | HTTP API (v2) | WebSocket API |
|---|---|---|---|
| Positioning | Full API management | Low-cost proxy | Real-time bidirectional |
| Cost | Higher | ~70% cheaper | Per-message pricing |
| Latency | Higher | Lower | Persistent connection |
| Max timeout | 50ms-29s (up to 300s Regional/Private) | 30s hard limit | 29s |
| Payload | 10 MB | 10 MB | 128 KB message / 32 KB frame |
| API Management | |||
| Usage plans/API keys | Yes | No | No |
| Request validation | Yes (JSON Schema draft 4) | No | No |
| Caching | Yes (0.5-237 GB) | No | No |
| Custom gateway responses | Yes | No | No |
| VTL mapping templates | Yes | No (parameter mapping only) | Yes |
| Security & Governance | |||
| WAF | Yes | No (use CloudFront + WAF) | No |
| Resource policies | Yes | No | No |
| Private endpoints | Yes | No | No |
| mTLS | Yes (Regional custom domain only) | Yes (Regional custom domain only) | Via CloudFront viewer mTLS |
| Auth | |||
| Lambda authorizer | Yes (TOKEN + REQUEST) | Yes (REQUEST only, simple + IAM policy format) | Yes (REQUEST on $connect only) |
| JWT authorizer | No (use Cognito authorizer) | Yes (native) | No |
| Cognito authorizer | Yes (native) | Use JWT authorizer | No |
| Operations | |||
| Canary deployments | Yes | No | No |
| Response streaming | Yes | No | No |
| X-Ray tracing | Yes | No | No |
| Execution logging | Yes | No | Yes |
| Custom domain sharing | Not with WebSocket | Not with WebSocket | Not with REST/HTTP |
Use REST API when: you are building APIs for external consumers, partners, or multi-tenant platforms; need to enforce per-consumer rate limits and quotas; require request validation, caching, or WAF at the API layer; need private endpoints, resource policies, or canary deployments; or are building an API product with monetization and governance requirements.
Use HTTP API when: you are building lightweight APIs or simple backend proxies; cost and latency are the primary concerns; you don't need per-consumer throttling, request validation, caching, or WAF at the API layer; and native JWT authorization with OIDC/OAuth 2.0 meets your auth needs. Accept the hard 30s timeout and lack of API management features. For WAF, edge caching, or edge compute, place a CloudFront distribution in front of the HTTP API.
Use WebSocket API when you need: persistent bidirectional connections for real-time use cases (chat, notifications, live dashboards).
Instructions
Step 1: Design the API
Before implementation, gather requirements systematically. Consult references/requirements-gathering.md for the full requirements workflow covering endpoints, auth, data models, performance, security, and deployment needs.
Key design decisions:
API type: Use the decision table above
Endpoint type: Edge-optimized (default for global clients; optimizes TCP connections via CloudFront POPs but does not cache at the edge), Regional (same-region clients, or global clients needing their own CloudFront distribution for edge caching, edge compute, granular WAF control, or geo-based routing), Private (VPC-only access, REST API only)
Topology: Centralized (single domain, path-based routing) vs Distributed (subdomains per service)
Authentication: See
references/authentication.mdfor the decision tree
Step 2: Implement the API
Consult these references based on what you're building:
Architecture patterns:
references/architecture-patterns.md: topology, multi-tenant SaaS, hybrid workloads, private APIs, multi-region, streamingWebSocket API:
references/websocket.md: route selection, @connections management, session management, client resilience, SAM templates, limits, multi-regionService integrations:
references/service-integrations.md: direct AWS service integrations (EventBridge, SQS, SNS, DynamoDB, Kinesis, Step Functions, S3), HTTP proxy, mock, VTL mapping templates, binary media types, Lambda sync/async invocationCustom domains and routing:
references/custom-domains-routing.md: base path mappings, routing rules, header-based versioningSecurity:
references/security.md: mTLS (API Gateway native + CloudFront viewer mTLS), TLS policies, resource policies, WAF, HttpOnly cookies, CRL checksSAM/CloudFormation:
references/sam-cloudformation.md: IaC patterns, OpenAPI extensions, VTL reference, binary dataSAM service integration templates:
references/sam-service-integrations.md: EventBridge, SQS, DynamoDB CRUD, Kinesis, Step Functions (REST + WebSocket) templates
Step 3: Configure Performance and Scaling
Throttling: Account-level default is 10,000 rps / 5,000 burst (adjustable; request increases via AWS Support). Configure stage-level and method-level throttling via usage plans. See
references/performance-scaling.mdCaching (REST only): Default TTL 300s, max 3600s. Only GET methods cached by default. Max cached response 1 MB
Edge caching (all API types): For edge caching, place a self-managed CloudFront distribution in front of a Regional API. CloudFront reduces latency, backend load, AND cost (cached responses never reach API Gateway). Also enables edge compute (CloudFront Functions, Lambda@Edge) and granular cache behaviors per path. Use a Regional endpoint, not edge-optimized, when pairing with your own CloudFront distribution
Scaling: API Gateway scales automatically but plan the entire stack (Lambda concurrency, DynamoDB capacity)
Step 4: Set Up Observability
Always configure access logging. For REST and WebSocket APIs, also enable execution logging (ERROR level for production, INFO only for debugging). HTTP API does not support execution logging; use access logs with enhanced observability variables instead.
Consult the observability references based on what you need:
Logging setup, log formats, retention:
references/observability-logging.mdMetrics, alarms, metric filters, X-Ray tracing:
references/observability-metrics-alarms.mdLog analysis and insights, analytics pipeline, cross-account, control plane logs:
references/observability-analytics.md
Step 5: Deploy
Use Infrastructure as Code (SAM, CDK, CloudFormation, Terraform) for production
Canary deployments (REST only): Route a percentage of traffic to test new versions
Blue/green deployments: Use custom domain API mappings to switch between environments with zero downtime
Routing rules (preferred for new domains): Declarative header/path-based routing on custom domains for versioning, A/B testing, gradual rollouts, and cell-based routing
See
references/deployment.mdfor detailed patterns
Step 6: Apply Governance
For organization-wide API standards, see references/governance.md covering:
Preventative controls (SCPs, IAM policies)
Proactive controls (CloudFormation Hooks, Guard rules)
Detective controls (AWS Config rules, EventBridge)
Specific enforcement examples for security, observability, and management
Response Format
When responding to API Gateway questions, structure your answer as:
Recommendation: Lead with the recommended approach and why
Code: Include SAM/CloudFormation YAML or code when the user needs implementation (always read the relevant reference file first)
Pitfalls: Warn about relevant gotchas from the pitfalls below or from
references/pitfalls.mdLimits: Mention any service limits that constrain the design
Troubleshooting Quick Reference
When diagnosing API Gateway errors, consult references/troubleshooting.md for detailed resolution steps. Here are the most common issues:
| Error | Most Common Cause | Quick Fix |
|---|---|---|
| 400 Bad Request | Protocol mismatch (HTTP/HTTPS) with ALB | Match protocol to listener type |
| 401 Unauthorized | Wrong token type (ID vs access) or missing identity sources | Check token type matches scope config; verify all identity sources sent |
| 403 Missing Auth Token | Stage name in URL when using custom domain | Remove stage name from URL path |
| 403 from VPC | Private DNS on VPC endpoint intercepts ALL API calls | Use custom domain names for public APIs |
| 403 Access Denied | Resource policy + auth type mismatch or missing redeployment | Review policy, check auth type, redeploy API |
| 403 mTLS | Certificate issuer not in truststore or weak signature algorithm | Verify CA in truststore, use SHA-256+ |
| 429 Too Many Requests | Account/stage/method throttle limits exceeded | Implement jittered exponential backoff; request limit increase |
| 500 Internal Error | Missing Lambda invoke permission (especially with stage variables) | Add resource-based policy to Lambda function |
| 502 Bad Gateway | Lambda response not in required proxy format | Return {statusCode, headers, body} from Lambda |
| 504 Timeout | Backend exceeds 29s (REST, increasable) or 30s (HTTP, hard). HTTP API body says "Service Unavailable" but status is 504 | Optimize backend, request timeout increase (REST Regional/Private), or switch to async invocation |
| CORS errors | Missing CORS headers on Gateway Responses (4XX/5XX) | Add CORS headers to DEFAULT_4XX and DEFAULT_5XX gateway responses |
| SSL/PKIX errors | Incomplete certificate chain on backend | Provide full cert chain; use insecureSkipVerification only for testing |
Critical Pitfalls
REST API default timeout is 29 seconds (increasable up to 300s for Regional/Private endpoints via quota request). Lambda continues running but client gets 504. Request a timeout increase, or consider async patterns (SQS, EventBridge) for better user experience on long operations
HTTP API hard timeout is 30 seconds. Returns
{"message":"Service Unavailable"}while Lambda continues/pingand/spingare reserved paths. Do not use for API resourcesExecution log events truncated at 1,024 bytes. Use access logs for complete data
413
REQUEST_TOO_LARGEis the only gateway response that cannot be customized. Use DEFAULT_4XX as a catch-all to add CORS headers for all 4xx errors including 413maxItems/minItemsnot validated in REST API request validationRoot-level
securityin OpenAPI is ignored. Must set per-operationJWT authorizer public keys cached 2 hours. Account for this in key rotation
Management API rate limit: 10 rps / 40 burst. Heavy automation can hit this
Always redeploy REST API after configuration changes. Changes don't take effect until deployed
Edge-optimized endpoints do NOT cache at the edge — they only optimize TCP connections via CloudFront POPs. If you need edge caching, edge compute (CloudFront Functions, Lambda@Edge), or granular CloudFront control, use a Regional API with your own CloudFront distribution instead
For additional pitfalls (header handling, URL encoding, caching charges, canary deployments, usage plans), see references/pitfalls.md.
IaC Framework Selection
Default: CDK TypeScript
Override syntax:
"use SAM" → Generate SAM/CloudFormation YAML templates
"use CloudFormation" → Generate CloudFormation YAML templates
"use Terraform" → Generate Terraform HCL
When not specified, ALWAYS use CDK TypeScript.
Error Scenarios
MCP Server Unavailable
Inform user: "AWS Serverless MCP not responding"
Ask: "Proceed without MCP support?"
DO NOT continue without user confirmation
Service Limits Quick Reference
See references/service-limits.md for the complete table. Most numeric quotas below are default values and adjustable; check with your AWS account team and the latest quotas page before using them for architectural decisions. Key limits:
| Resource | REST API | HTTP API | WebSocket |
|---|---|---|---|
| Payload size | 10 MB | 10 MB | 128 KB |
| Integration timeout | 50ms-29s (up to 300s Regional/Private) | 30s hard | 29s |
| APIs per region | 600 Regional/Private; 120 Edge-optimized | 600 | 600 |
| Stages per API | 10 | 10 | 10 |
| Routes/resources per API | 300 | 300 | 300 |
| Custom domains (public) | 120 | 120 | 120 |
| Account throttle | 10,000 rps / 5,000 burst | Same | Same (shared quota) |
| API keys per region | 10,000 | N/A | N/A |
| Usage plans per region | 300 | N/A | N/A |
| Cache sizes | 0.5 GB - 237 GB | N/A | N/A |
Files
- ATTRIBUTION.mdAdded by AutoGineer908 B
- LICENSELicence file added by AutoGineer9.9 KiB
- NOTICELicence file added by AutoGineer89 B
- SKILL.md19.3 KiB
- references/architecture-patterns.md19.0 KiB
- references/authentication.md9.4 KiB
- references/custom-domains-routing.md8.5 KiB
- references/deployment.md14.9 KiB
- references/governance.md9.8 KiB
- references/observability-analytics.md4.2 KiB
- references/observability-logging.md11.2 KiB
- references/observability-metrics-alarms.md5.5 KiB
- references/performance-scaling.md9.0 KiB
- references/pitfalls.md2.0 KiB
- references/requirements-gathering.md14.8 KiB
- references/sam-cloudformation.md7.8 KiB
- references/sam-service-integrations.md22.5 KiB
- references/security.md18.2 KiB
- references/service-integrations.md24.4 KiB
- references/service-limits.md11.5 KiB
- references/troubleshooting.md14.5 KiB
- references/websocket.md7.4 KiB
references/performance-scaling.md
Performance and Scaling
Throttling
Account-Level Defaults
Note: Throttling values below are default quotas; most are adjustable via AWS Support or Service Quotas console. Do not use defaults for capacity planning without checking your account's current limits. See latest quotas.
10,000 requests per second steady-state across all REST APIs, HTTP APIs, WebSocket APIs, and WebSocket callback APIs in a region (shared quota)
5,000 burst capacity (token bucket algorithm)
These are defaults; request increases via AWS Support or Service Quotas
Stage-Level and Method-Level
Stage/method-level default throttle: configure via MethodSettings on the stage (REST API)
Per-consumer throttle: configure via usage plans (REST API only)
Method-level throttling overrides stage-level
Max method-level throttle settings per stage: 20
Format:
resourcePath/httpMethod(e.g.,/pets/GET)
HTTP API Throttling
Route-level throttling only (no usage plans or API keys)
Configure via stage settings
Limits apply globally across all callers, with no per-consumer throttling. For per-consumer rate limiting on HTTP API, implement in a Lambda authorizer or backend
Usage Plans (REST API Only)
Quota: Requests per day, week, or month
Throttle: Rate (requests/second) + burst
RPS limits are per API key, not split across keys. If a usage plan allows 100 rps and has 10 keys, each key gets 100 rps (not 10 rps each)
Combine with API keys to track and limit per-consumer usage
Max 300 usage plans per region (adjustable), 10,000 API keys per region
API key source:
HEADER(default,x-api-key) orAUTHORIZER(Lambda returns key inusageIdentifierKey)Do not associate one API key with multiple usage plans that cover the same API stage; API Gateway picks one plan non-deterministically. One key per plan per stage is safe; a usage plan can have many keys
Token Bucket Algorithm
Bucket size = burst capacity (5,000 tokens). Refill rate = steady-state rate (10,000 tokens/second)
Each request consumes one token. If the bucket is empty, the request is throttled (429)
The burst capacity (5,000) is the maximum number of requests that can be served in a single instant. The steady-state rate (10,000 rps) is the maximum sustained throughput. Burst is lower than steady-state because the bucket refills faster (10,000/s) than it can be drained in one instant (5,000). Over any one-second window you can sustain 10,000 rps, but an instantaneous spike cannot exceed 5,000 concurrent requests
Throttled requests receive 429 Too Many Requests
Caching (REST API Only)
Configuration
Cache sizes: 0.5 GB, 1.6 GB, 6.1 GB, 13.5 GB, 28.4 GB, 58.2 GB, 118 GB, 237 GB
Default TTL: 300 seconds
Max TTL: 3,600 seconds
TTL=0: Disables caching
Max cached response size: 1,048,576 bytes (1 MB)
Only GET methods cached by default
Cache is best-effort, not guaranteed to cache every response
Cache charges apply per hour regardless of usage; only provision when you have a clear caching use case
Cache Keys
Default: resource path
Add headers, query strings, and path parameters as additional cache keys
More cache keys = more granular caching but lower hit rate
Include client identity into cache keys to avoid data leaks across clients
Cache Invalidation
Client sends
Cache-Control: max-age=0headerCan require authorization for invalidation requests
Entire stage cache can be flushed via console or API
Automatic flush on redeployment: Creating a new deployment to a stage flushes the entire cache, causing a temporary backend load spike ("thundering herd"). See
references/deployment.mdfor mitigations
Cache Encryption
Encryption at rest available as option when provisioning cache
Metrics
CacheHitCount,CacheMissCountin CloudWatchMonitor miss rate to determine if cache size is adequate
Capacity Selection
Run a load test against the API
Monitor
CacheHitCount,CacheMissCount,LatencyStart with smaller cache, scale up based on miss rates
Cache resizing takes time; plan ahead of peak traffic
Scaling Considerations
API Gateway Scales Automatically
Managed service, no capacity provisioning needed
Be aware of service quotas and request increases proactively
Scale the Entire Stack
No point having high API Gateway quotas if backend cannot handle the load
Consider: Lambda concurrency limits, DynamoDB provisioned capacity, RDS connection limits, ECS/EKS scaling policies
Automatic quota management via AWS Service Quotas for proactive adjustment
Strategies for Global Scale
Edge-optimized endpoints: Route to nearest CloudFront POP. Note: Edge-optimized endpoints do NOT cache at the edge; they only route through CloudFront POPs to optimize TCP connections. For edge caching, use a separate CloudFront distribution in front of a Regional API
Self-managed CloudFront distribution: More control over caching, WAF, and custom behaviors. This is the only way to get actual edge caching
Multi-region deployment: Active-active with Route 53 latency-based routing
Multi-Layer Caching Strategy
For maximum performance, layer caches:
CloudFront: Edge caching (reduces latency, load, AND cost, since the request never reaches API Gateway)
API Gateway cache (REST only): Regional caching (reduces latency and load but NOT cost, as the request is still counted)
Application-level cache: ElastiCache or DAX for database query caching
CloudFront caching should be the first choice, as it provides the most benefit
API Gateway Billing Notes
Lambda authorizer invocations are billed by Lambda even if the request is ultimately rejected by the authorizer or by throttling. This is the "Distributed Denial of Wallet" vector below
Load Shedding
Use API Gateway request validation to reject invalid requests early (before hitting backend)
Configure appropriate throttle limits per consumer tier
Use WAF rate-based rules for DDoS protection
"Distributed Denial of Wallet" risk: Without WAF, DDoS traffic invokes Lambda authorizers for every request, driving up Lambda costs (even though API Gateway itself doesn't charge for the rejected requests). WAF blocks malicious traffic before it reaches the authorizer
Cell-Based Architecture
Use multi-account approaches for blast radius control
Each cell has its own API Gateway, Lambda, and database
Route traffic to cells via custom domain and routing rules
Payload Compression
API Gateway Native Compression
minimumCompressionSize: Set the smallest payload size (in bytes) to compress automatically. Range: 0 bytes to 10 MBTest with real payloads: compressing very small payloads can actually increase the final size. Find the optimal threshold for your data
Works bidirectionally: API Gateway decompresses incoming requests (client sends
Content-Encodingheader) before applying mapping templates, and compresses outgoing responses (client sendsAccept-Encoding: gzip) after applying response mapping templatesMost effective for text-based formats (JSON, XML, HTML, YAML). Binary data (PDF, JPEG) compresses poorly
Set on the API level (REST API and HTTP API)
Benchmark: 1 MB JSON payload compressed to 220 KB (78% reduction), response latency improved by 110 ms
Compressed Passthrough to Lambda
With native compression, API Gateway decompresses payloads before delivering to Lambda, so the decompressed payload is still subject to Lambda's 6 MB synchronous invoke limit
To bypass this limit, configure
binaryMediaTypes: ["application/gzip"]so API Gateway passes compressed payloads directly to Lambda without decompressingLambda then handles decompression in function code, enabling transport of payloads several times larger than the 6 MB limit
Lambda returns compressed responses with
isBase64Encoded: trueandContent-Encoding: gzipheaders
Compression Trade-offs
Compression is CPU-intensive in Lambda, adding ~124 ms for 1 MB JSON on 1 GB ARM architecture
Always benchmark with payloads representative of your workload before enabling
Handling Large Payloads
10 MB API Gateway limit (REST and HTTP): For payloads exceeding this, use S3 presigned URLs. Client uploads/downloads directly to S3, API returns the presigned URL
6 MB Lambda synchronous invoke limit: Use compressed passthrough (binary media types) to transport larger payloads, or use S3 presigned URLs
Response streaming (REST API only): Supports up to 15-minute sessions, first 10 MB unrestricted then bandwidth-limited to 2 MB/s. Useful for LLM responses and large datasets
Lambda Function URLs: Response streaming removes the 6 MB buffered response limit; streamed responses can be much larger (subject to function timeout and bandwidth)
For SQS/EventBridge/Lambda async invocations (1 MB limit): Use compression or store payload in S3 and pass a reference in the message
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 an API key
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- AWS Labs (Official)
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- awslabs/agent-plugins · plugins/aws-serverless/skills/api-gateway · commit fbefb37
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- Apache License 2.0 (redistribution allowed)
- LICENSE (added by AutoGineer from LICENSE)
- NOTICE (added by AutoGineer from NOTICE)
- ATTRIBUTION.md (written by AutoGineer)
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