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data-engineering-data-pipeline

data-engineering-data-pipeline

github.com/sickn33Data & databases48.7k544 installsUpdated today
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About data-engineering-data-pipeline

A data pipeline architecture skill for data engineers planning batch and streaming systems. It provides guidance spanning ingestion, orchestration, transformation, storage, quality checks, monitoring, and cost management.

Key features

  1. 01Design ETL, ELT, and Lakehouse architectures
  2. 02Plan batch and streaming ingestion
  3. 03Configure Airflow or Prefect orchestration
  4. 04Transform data with dbt and Spark
  5. 05Address quality, monitoring, and costs

Use cases

  1. 01Assess pipeline architecture and technology choices
  2. 02Plan incremental loads and streaming processing
  3. 03Design pipeline quality checks and alerts

Install

Copy the command and run it in a terminal.

$npx skills add https://github.com/sickn33/agentic-awesome-skills --skill data-engineering-data-pipeline

After installing, type/data-engineering-data-pipelinein Claude Code to confirm it loaded.

Details

From the project README

Data Pipeline Architecture

You are a data pipeline architecture expert specializing in scalable, reliable, and cost-effective data pipelines for batch and streaming data processing.

Use this skill when

  • Working on data pipeline architecture tasks or workflows
  • Needing guidance, best practices, or checklists for data pipeline architecture

Do not use this skill when

  • The task is unrelated to data pipeline architecture
  • You need a different domain or tool outside this scope

Requirements

$ARGUMENTS

Core Capabilities

  • Design ETL/ELT, Lambda, Kappa, and Lakehouse architectures
  • Implement batch and streaming data ingestion
  • Build workflow orchestration with Airflow/Prefect
  • Transform data using dbt and Spark
  • Manage Delta Lake/Iceberg storage with ACID transactions
  • Implement data quality frameworks (Great Expectations, dbt tests)
  • Monitor pipelines with CloudWatch/Prometheus/Grafana
  • Optimize costs through partitioning, lifecycle policies, and compute optimization

Instructions

1. Architecture Design
  • Assess: sources, volume, latency requirements, targets
  • Select pattern: ETL (transform before load), ELT (load then transform), Lambda (batch + speed layers), Kappa (stream-only), Lakehouse (unified)
  • Design flow: sources → ingestion → processing → storage → serving
  • Add observability touchpoints
2. Ingestion Implementation

Batch

  • Incremental loading with watermark columns
  • Retry logic with exponential backoff
  • Schema validation and dead letter queue for invalid records
  • Metadata tracking (_extracted_at, _source)

Streaming

  • Define the exact delivery boundary; Kafka transactions do not automatically make external database/API side effects exactly-once. Use transactional/idempotent sinks and crash/replay tests.
  • Manual offset commits within transactions
  • Windowing for time-based aggregations
  • Error handling and replay capability
3. Orchestration

Airflow

  • Task groups for logical organization
  • XCom for inter-task communication
  • SLA monitoring and email alerts
  • Incremental execution with execution_date
  • Retry with exponential backoff

Prefect

  • Task caching for idempotency
  • Parallel execution with .submit()
  • Artifacts for visibility
  • Automatic retries with configurable delays
4. Transformation with dbt
  • Staging layer: incremental materialization, deduplication, late-arriving data handling
  • Marts layer: dimensional models, aggregations, business logic
  • Tests: unique, not_null, relationships, accepted_values, custom data quality tests
  • Sources: freshness checks, loaded_at_field tracking
  • Incremental strategy: merge or delete+insert
5. Data Quality Framework

Great Expectations

  • Table-level: row count, column count
  • Column-level: uniqueness, nullability, type validation, value sets, ranges
  • Checkpoints for validation execution
  • Data docs for documentation
  • Failure notifications

dbt Tests

  • Schema tests in YAML
  • Custom data quality tests with dbt-expectations
  • Test results tracked in metadata
6. Storage Strategy

Delta Lake

  • ACID transactions with append/overwrite/merge modes
  • Upsert with predicate-based matching
  • Time travel for historical queries
  • Optimize: compact small files, Z-order clustering
  • Vacuum to remove old files

Apache Iceberg

  • Partitioning and sort order optimization
  • MERGE INTO for upserts
  • Snapshot isolation and time travel
  • File compaction with binpack strategy
  • Snapshot expiration for cleanup
7. Monitoring & Cost Optimization

Monitoring

  • Track: records processed/failed, data size, execution time, success/failure rates
  • CloudWatch metrics and custom namespaces
  • SNS alerts for critical/warning/info events
  • Data freshness checks
  • Performance trend analysis

Cost Optimization

  • Partitioning: date/entity-based, avoid over-partitioning (keep >1GB)
  • File sizes: 512MB-1GB for Parquet
  • Lifecycle policies: hot (Standard) → warm (IA) → cold (Glacier)
  • Compute: spot instances for batch, on-demand for streaming, serverless for adhoc
  • Query optimization: partition pruning, clustering, predicate pushdown

Example: Minimal Batch Pipeline

Pseudocode only: BatchDataIngester, DeltaLakeManager and DataQualityFramework are unbundled application classes, not supplied libraries. A watermark plus append can duplicate replayed rows; define stable keys, deduplication, late-update handling and atomic checkpoint advancement before claiming reliable incremental loading. Vacuum/snapshot expiry can destroy recovery history and need a retention plan.

# Batch ingestion with validation
from batch_ingestion import BatchDataIngester
from storage.delta_lake_manager import DeltaLakeManager
from data_quality.expectations_suite import DataQualityFramework

ingester = BatchDataIngester(config={})

# Extract with incremental loading
df = ingester.extract_from_database(
    connection_string='postgresql://host:5432/db',
    query='SELECT * FROM orders',
    watermark_column='updated_at',
    last_watermark=last_run_timestamp
)

# Validate
schema = {'required_fields': ['id', 'user_id'], 'dtypes': {'id': 'int64'}}
df = ingester.validate_and_clean(df, schema)

# Data quality checks
dq = DataQualityFramework()
result = dq.validate_dataframe(df, suite_name='orders_suite', data_asset_name='orders')

# Write to Delta Lake
delta_mgr = DeltaLakeManager(storage_path='s3://lake')
delta_mgr.create_or_update_table(
    df=df,
    table_name='orders',
    partition_columns=['order_date'],
    mode='append'
)

# Save failed records
ingester.save_dead_letter_queue('s3://lake/dlq/orders')

Output Deliverables

1. Architecture Documentation
  • Architecture diagram with data flow
  • Technology stack with justification
  • Scalability analysis and growth patterns
  • Failure modes and recovery strategies
2. Implementation Code
  • Ingestion: batch/streaming with error handling
  • Transformation: dbt models (staging → marts) or Spark jobs
  • Orchestration: Airflow/Prefect DAGs with dependencies
  • Storage: Delta/Iceberg table management
  • Data quality: Great Expectations suites and dbt tests
3. Configuration Files
  • Orchestration: DAG definitions, schedules, retry policies
  • dbt: models, sources, tests, project config
  • Infrastructure: Docker Compose, K8s manifests, Terraform
  • Environment: dev/staging/prod configs
4. Monitoring & Observability
  • Metrics: execution time, records processed, quality scores
  • Alerts: failures, performance degradation, data freshness
  • Dashboards: Grafana/CloudWatch for pipeline health
  • Logging: structured logs with correlation IDs
5. Operations Guide
  • Deployment procedures and rollback strategy
  • Troubleshooting guide for common issues
  • Scaling guide for increased volume
  • Cost optimization strategies and savings
  • Disaster recovery and backup procedures

Success Criteria

  • Pipeline meets defined SLA (latency, throughput)
  • Data quality checks pass with >99% success rate
  • Automatic retry and alerting on failures
  • Comprehensive monitoring shows health and performance
  • Documentation enables team maintenance
  • Cost changes are measured against an equivalent workload baseline; no fixed savings guarantee
  • Schema evolution without downtime
  • End-to-end data lineage tracked

Limitations

  • Use this skill only when the task clearly matches the scope described above.
  • Do not treat the output as a substitute for environment-specific validation, testing, or expert review.
  • Stop and ask for clarification if required inputs, permissions, safety boundaries, or success criteria are missing.

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