MLA 019 Cloud, DevOps & Architecture
Machine Learning Guide
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How to Scale a Google Scale Container?
Coubernetts was created to help run gogles infer structure of google, right? Like it's inherited works. So if you started with e c s, and e c s is going to carry you pretty far to match point. Theni says, where doyo want to run this container in the cloud? What wil h container do? Run build jobs. Code, build, run batch jobs. Batch run aps. Ap runner is a very good thing. We have e k sec, s lamde fargate, bean stock, aft runner, lightsale e c two, code built and batch gera savas well.
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The deployment of machine learning models for real-world use involves a sequence of cloud services and architectural choices, where machine learning expertise must be complemented by DevOps and architecture skills, often requiring collaboration with professionals. Key concepts discussed include infrastructure as code, cloud container orchestration, and the distinction between DevOps and architecture, as well as practical advice for machine learning engineers wanting to deploy products securely and efficiently.
Links- Notes and resources at ocdevel.com/mlg/mla-19
- Try a walking desk stay healthy & sharp while you learn & code
;## Translating Machine Learning Models to Production
- After developing and training a machine learning model locally or using cloud tools like AWS SageMaker, it must be deployed to reach end users.
- A typical deployment stack involves the trained model exposed via a SageMaker endpoint, a backend server (e.g., Python FastAPI on AWS ECS with Fargate), a managed database (such as AWS RDS Postgres), an application load balancer (ALB), and a public-facing frontend (e.g., React app hosted on S3 with CloudFront and Route 53).
- Infrastructure as code (IaC) manages deployment and maintenance of cloud resources using tools like Terraform, allowing environments to be version-controlled and reproducible.
- Terraform is favored for its structured approach and cross-cloud compatibility, while other tools like Cloud Formation (AWS-specific) and Pulumi offer alternative paradigms.
- Configuration management tools such as Ansible, Chef, and Puppet automate setup and software installation on compute instances but are increasingly replaced by containerization and Dockerfiles.
- Continuous Integration and Continuous Deployment (CI/CD) pipelines (with tools like AWS CodePipeline or CircleCI) automate builds, testing, and code deployment to infrastructure.
- Containers, enabled by Docker, allow developers to encapsulate applications and dependencies, facilitating consistency across environments from local development to production.
- Deployment options include AWS ECS/Fargate for managed orchestration, Kubernetes for large-scale or multi-cloud scenarios, and simpler services like AWS App Runner and Elastic Beanstalk for small-scale applications.
- Kubernetes provides robust flexibility and cross-provider support but brings high complexity, making it best suited for organizations with substantial infrastructure needs and experienced staff.
- Use of cloud services versus open-source alternatives on Kubernetes (e.g., RDS vs. Postgres containers) affects manageability, vendor lock-in, and required expertise.
- DevOps unites development and operations through common processes and tooling to accelerate safe production deployments and improve coordination.
- Architecture focuses on the holistic design of systems, establishing how different technical components fit together and serve overall business or product goals.
- There is significant overlap, but architecture plans and outlines systems, while DevOps engineers implement, automate, and monitor deployment and operations.
- Cross-functional collaboration is essential, as machine learning engineers, DevOps, and architects must communicate requirements, constraints, and changes, especially regarding production-readiness and security.
- Security is a primary concern when moving to production, especially if handling sensitive data or personally identifiable information (PII); professional DevOps involvement is strongly advised in such cases.
- Common cloud security pitfalls include publicly accessible networks, insecure S3 buckets, and improper handling of secrets and credentials.
- For experimentation or small-scale safe projects, machine learning engineers can use tools like Terraform, Docker, and AWS managed services, but should employ cloud cost monitoring to avoid unexpected bills.
- AWS dominates the cloud market, followed by Azure (strong in enterprise/Microsoft-integrated environments) and Google Cloud Platform (GCP), which offers a strong user interface but has a record of sunsetting products.
- Managed cloud machine learning services, such as AWS SageMaker and GCP Vertex AI, streamline model training, deployment, and monitoring.
- Vendor-specific tools simplify management but limit portability, while Kubernetes and its ML pipelines (e.g., Kubeflow, Apache Airflow) provide open-source, cross-cloud options with greater complexity.
- Learning and prototyping with Terraform, Docker, and basic cloud services is encouraged to understand deployment pipelines, but professional security review is critical before handling production-sensitive data.
- For those entering DevOps, structured learning with platforms like aCloudGuru or AWS’s own curricula can provide certification-ready paths.
- Continual learning is necessary, as tooling and best practices evolve rapidly.
Expert coworkers at Dept
- Matt Merrill - Principal Software Developer
- Jirawat Uttayaya - DevOps Lead
- The Ship It Podcast (frequent discussions on DevOps and architecture)
DevOps Tools
Visual Guides and Comparisons
- Which AWS container service should I use?
- A visual guide on troubleshooting Kubernetes deployments
- Public Cloud Services Comparison
- Killed by Google
Learning Resources
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