AWS Migration Guide

Introduction

Migration of bioinformatics pipelines to Amazon Web Services (AWS) can achieve significant scalability for next-generation sequencing (NGS) analysis, machine learning (ML) training, digital pathology, etc., with a cost reduction of 40–70% for compute resources. This document presents a clear step-by-step path for the migration of high-performance computing (HPC) environments to the cloud.

Why Migrate Bioinformatics Workflows to AWS?

Current challenges with traditional HPC:

  • Manual resource provisioning for variable workloads
  • Long queue times for peak analysis periods
  • Difficult reproducibility across environments
  • Scaling limitations for 10TB+ datasets

AWS Benefits:

  • Pay-per-use pricing (no idle cluster costs)
  • Auto-scaling for 100 to 100,000 samples
  • Native integration with Nextflow/Snakemake
  • Managed services (HealthOmics, Batch, EMR)

Step-by-Step Migration Process

Phase 1: Assessment and Planning (Week 1)

1. Inventory Current Workflows:

  • List all pipelines (RNA-seq, WGS, ChIP-seq, ML)
  • Document tools (GATK, STAR, BWA, FastQC)
  • Identify input sizes (samples, file formats)
  • Map compute requirements (CPU/GPU cores, RAM)

2. Choose Migration Strategy:

  • Small teams (<10 people): AWS Batch + Nextflow
  • Medium teams: HealthOmics + CI/CD pipeline
  • Enterprise: Full DevOps (CodePipeline + HealthOmics)

3. Set Up AWS Organization:


    # Create accounts via AWS Organizations
    aws organizations create-account --email operations@yourorg.com
    aws organizations create-account --email bioinformatics@yourorg.com
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Phase 2: Foundation Infrastructure (Weeks 2-3)

Networking and Security Baseline:

  • VPC: Multi-AZ with public/private subnets
  • Security Groups: Restrict to workflow ports (22, 443)
  • IAM Roles: Least privilege for EC2/Batch/HealthOmics
  • S3 Bucket Policy: Encrypt + versioning enabled

Storage Strategy:

  • Raw data → S3 Glacier Deep Archive ($0.00099/GB/month)
  • Working data → S3 Standard IA ($0.0125/GB/month)
  • Results → S3 Intelligent-Tiering (auto-optimizes)

AWS CLI Setup:


    # Create S3 buckets
    aws s3 mb s3://your-bioinformatics-bucket/raw/
    aws s3 mb s3://your-bioinformatics-bucket/processed/
    # Enable versioning
    aws s3api put-bucket-versioning --bucket your-bioinformatics-bucket --versioning-configuration Status=Enabled

Phase 3: Containerization (Weeks 4-5)

Dockerize All Tools (Example: GATK container):


    FROM ubuntu:20.04
    RUN apt-get update && apt-get install -y openjdk-11-jre-headless
    RUN wget https://github.com/broadinstitute/gatk/releases/latest/download/gatk-4.5.0.0.zip
    ENTRYPOINT ["gatk"]

Push to Amazon ECR:


    # Create ECR repository
    aws ecr create-repository --repository-name bioinformatics/gatk
    # Tag and push Docker image
    docker tag gatk:latest 123456789012.dkr.ecr.us-east-1.amazonaws.com/bioinformatics/gatk:latest
    docker push 123456789012.dkr.ecr.us-east-1.amazonaws.com/bioinformatics/gatk:latest

Phase 4: Workflow Migration (Weeks 6-8)

Nextflow/Snakemake Cloud Configuration (Nextflow nextflow.config):


  profiles {
    aws {
      process.executor = 'awsbatch'
      aws.batch.jobDefinition = 'bioinformatics-job'
      aws.batch.queue = 'bioinformatics-queue'
      workDir = 's3://your-bioinformatics-bucket/work'
    }
  } 
                  

Test Small Workload (Pilot: 10 samples):

nextflow run rnaseq.nf -profile aws --samples sample_list.csv --outdir s3://your-bioinformatics-bucket/pilot/

Phase 5: Production Deployment (Weeks 9-10)

CI/CD Pipeline Setup:

  • CodeCommit → CodePipeline → CodeBuild → HealthOmics
  • Automatic testing → Manual approval → Production deploy

Scale Testing:

  • 100 samples → 1,000 samples → 10,000 samples
  • Monitor costs via AWS Cost Explorer
  • Optimize instance types (c6i.large → c6g.large ARM)

Cost Optimization Framework

Data Size Recommended Service Monthly Cost (10k samples)
<100GB EC2 Spot + S3 $50-100
100GB-1TB AWS Batch + S3 $300-800
1TB-10TB HealthOmics + S3 $1,500-4,000
10TB+ EMR + S3 $8,000-15,000

Pro Tips:

  • Use Spot Instances (70-90% savings)
  • Right-size instances (c6i.large vs m6i.xlarge)
  • S3 Lifecycle policies to Glacier
  • Reserved Instances for predictable workloads

Common Migration Challenges and Solutions

Challenge Solution
Data Transfer AWS Snowball (100TB+), S3 Transfer Acceleration
Tool Compatibility Docker + BioContainers, Conda Pack
Cost Overruns Budget Alerts, Cost Explorer, Savings Plans
Team Learning Curve AWS Genomics CLI, Nextflow Tower

SyncBio Bioinformatics Migration Results

SyncBio successfully migrated 15 production pipelines processing 25TB NGS data monthly:

Before Migration (On-Prem HPC):

  • Monthly compute: $18,500
  • Processing time: 28 days for 5,000 samples
  • Manual intervention: 40 hours/month

After AWS Migration:

  • Monthly compute: $7,200 (61% savings)
  • Processing time: 4 days for 5,000 samples
  • Hands-free operation: 2 hours/month monitoring
  • Pipeline velocity: 3x faster iterations

Key Infrastructure:

  • GenomeFlow-Prod: Nextflow + AWS Batch (20,000 samples/month)
  • PathoML-Pipeline: GPU Spot + ECR (CNN pathology)
  • VariantML-Pipe: HealthOmics + CI/CD

This migration enables SyncBio's CloudBioML expansion and supports EU research collaborations with reproducible, scalable bioinformatics infrastructure.

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