Step-by-Step Guide: Migrating from x86 to AWS Graviton πŸš€

πŸ”Ή Step-by-Step Guide: Migrating from x86 to AWS Graviton πŸš€

Migrating from x86-based EC2 instances (Intel/AMD) to Graviton (ARM64) can improve performance and reduce costs. Follow this step-by-step guide to migrate your workloads smoothly.


βœ… Step 1: Check Compatibility of Your Applications

Before migrating, ensure your applications and dependencies support ARM64 architecture.

Check Your Current System

Run the following command on your x86 instance:

uname -m

If it returns x86_64, you are using an Intel/AMD processor.

Verify Software & Dependencies

  • Check if your programming languages support ARM64:
    • βœ… Python, Node.js, Java, Golang, PHP all support ARM64.
    • ⚠️ Some compiled languages (C/C++) may need re-compilation.
  • Check your packages: dpkg --print-architecture # Ubuntu/Debian rpm -q --queryformat '%{ARCH}\n' glibc # RHEL/CentOS
  • Databases: MySQL, PostgreSQL, Redis, and MongoDB support ARM64.

βœ… Step 2: Choose a Graviton-Based Instance

AWS offers different Graviton instance types:

InstanceUse Case
M7g, M6gGeneral-purpose workloads
C7g, C6gCompute-intensive applications
R7g, R6gMemory-intensive applications
T4gSmall workloads and testing

βœ… Step 3: Launch a Graviton-Based EC2 Instance

1️⃣ Go to AWS Console β†’ EC2 β†’ Launch Instance
2️⃣ Choose an ARM64-supported AMI:

  • Amazon Linux 2 (Recommended)
  • Ubuntu 20.04+
  • Debian, SUSE, RHEL, or AWS Bottlerocket
    3️⃣ Select a Graviton instance type (e.g., t4g.small, m7g.medium).
    4️⃣ Configure security groups and storage.
    5️⃣ Launch the instance.

Once the instance is running, connect via SSH:

ssh -i my-key.pem ec2-user@graviton-instance-ip

βœ… Step 4: Migrate Your Applications

Option 1: Rebuild from Source (Recommended for Native Apps)

If your application is compiled, rebuild it for ARM64:

docker build --platform linux/arm64 -t myapp:latest .

Option 2: Use Multi-Architecture Docker Images

If you’re using containers, create an ARM-compatible Docker image:

docker buildx create --use
docker buildx build --platform linux/amd64,linux/arm64 -t myapp:latest --push .

Option 3: Deploy Using AWS Lambda (If Serverless)

AWS Lambda supports ARM64 functions, reducing costs by 20%.

To migrate:

aws lambda update-function-configuration --function-name myFunction --architectures arm64

βœ… Step 5: Test & Benchmark Performance

Run performance tests to compare x86 vs. Graviton:

sysbench --test=cpu run

Graviton should show better performance at lower costs!


βœ… Step 6: Update Infrastructure & Automate Deployment

  • CI/CD Pipelines: Modify your GitHub Actions / Jenkins / Terraform scripts to deploy ARM64 instances.
  • Auto Scaling: Update AWS Auto Scaling Groups to use Graviton-based AMIs.

🎯 Final Thoughts

βœ… Graviton reduces costs & improves performance πŸš€
βœ… Most applications can migrate easily πŸ’‘
βœ… Use multi-arch Docker or rebuild binaries for ARM64 πŸ—οΈ
βœ… Automate deployment & scale using AWS tools πŸ”„

Would you like a Terraform script to automate Graviton instance setup? πŸ€–

About Anant 443 Articles
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