AWS Certified Machine Learning Engineer – Associate (MLA-C01)

AWS Certified Machine Learning Engineer – Associate (MLA-C01)

Offered by Linux Training

The AWS Certified Machine Learning Engineer – Associate (MLA-C01) course at Linux Training is designed for developers, data professionals, and aspiring machine learning engineers who want to build, train, and deploy machine learning models using AWS.

This course focuses on implementing end-to-end machine learning solutions, including data preparation, model building, evaluation, deployment, and monitoring using AWS services.


Course Overview

This program provides a comprehensive understanding of machine learning workflows in the AWS cloud, enabling learners to work with real-world datasets and build scalable ML solutions for business applications.


What You Will Learn

  • Fundamentals of Machine Learning
  • Data Preparation and Feature Engineering
  • Model Training and Evaluation
  • AWS Machine Learning Services (SageMaker, etc.)
  • Model Deployment and Monitoring
  • MLOps Concepts
  • Responsible AI and Model Optimization

Why Choose This Course?

  • Industry-recognized AWS certification (MLA-C01)
  • High-demand AI & ML skills
  • Hands-on practical training
  • Real-world machine learning use cases
  • Guidance from experienced trainers

Career Opportunities

After completing this course, you can explore roles such as:

  • Machine Learning Engineer
  • AI Engineer
  • Data Scientist (Entry Level)
  • Cloud ML Engineer
  • AI Solutions Developer

Who Can Join?

  • Developers and data professionals
  • Students interested in AI and ML
  • IT professionals upgrading to AI roles
  • Anyone with basic programming and data knowledge

Build Your Career in AI with AWS

Join Linux Training and gain the skills needed to design, build, and deploy machine learning solutions in the cloud.

AWS Certified Machine Learning Engineer – Associate (MLA-C01)

Modules

1. Data Preparation for Machine Learning (ML) - 28%

Ingest and store data

  • Data formats and ingestion mechanisms (for example, validated and non-validated formats, Apache Parquet, JSON, CSV, Apache ORC, Apache Avro, RecordIO)
  • How to use the core AWS data sources (for example, Amazon S3, Amazon EFS, Amazon FSx for NetApp ONTAP)
  • How to use AWS streaming data sources (for example, Amazon Kinesis, Apache Flink, Apache Kafka)
  • AWS storage options, including use cases and tradeoffs
  • Extracting data from storage (for example, Amazon S3, Amazon EBS, Amazon EFS, Amazon RDS, Amazon DynamoDB)
  • Choosing appropriate data formats (for example, Parquet, JSON, CSV, ORC)
  • Ingesting data into SageMaker Data Wrangler and Feature Store
  • Merging data from multiple sources
  • Troubleshooting ingestion and storage issues
  • Making storage decisions based on cost, performance, and structure
  • Transform data and perform feature engineering

  • Data cleaning and transformation techniques
  • Feature engineering techniques
  • Encoding techniques (for example, one-hot, label encoding, tokenization)
  • Tools for data transformation (Data Wrangler, Glue, DataBrew)
  • Services for streaming transformation (Lambda, Spark)
  • Data annotation and labeling services
  • Transforming data using AWS tools
  • Creating and managing features (Feature Store)
  • Validating and labeling data (Ground Truth, Mechanical Turk)
  • Ensure data integrity and prepare data for modeling

  • Pre-training bias metrics (for example, CI, DPL)
  • Strategies to address class imbalance
  • Techniques to encrypt data
  • Data classification, anonymization, masking
  • Compliance requirements (PII, PHI, residency)
  • Validating data quality (Glue DataBrew, Glue Data Quality)
  • Identifying and mitigating bias (SageMaker Clarify)
  • Preparing data for reduced bias (splitting, shuffling, augmentation)
  • Configuring data for training resources (EFS, FSx)
  • 2. ML Model Development - 26%

    Choose a modeling approach

  • Capabilities and uses of ML algorithms
  • Use AWS AI services (Translate, Transcribe, Rekognition, Bedrock)
  • Consider interpretability in model selection
  • SageMaker built-in algorithms
  • Assess data and feasibility of ML solutions
  • Select appropriate ML models or algorithms
  • Choose foundation models and templates
  • Select models based on cost
  • Select AI services for business needs
  • Train and refine models

  • Training elements (epoch, steps, batch size)
  • Methods to reduce training time
  • Factors influencing model size
  • Methods to improve performance
  • Regularization techniques
  • Hyperparameter tuning methods
  • Effects of hyperparameters
  • Integrating external models into SageMaker
  • Using built-in algorithms and ML libraries
  • Using SageMaker script mode
  • Fine-tuning pre-trained models
  • Performing hyperparameter tuning (AMT)
  • Preventing overfitting and underfitting
  • Combining models (ensembling, boosting)
  • Reducing model size
  • Managing model versions (Model Registry)
  • Analyze model performance

  • Evaluation metrics (accuracy, precision, recall, RMSE, ROC, AUC)
  • Performance baselines
  • Identify overfitting and underfitting
  • Metrics in SageMaker Clarify
  • Convergence issues
  • Selecting and interpreting metrics
  • Assessing tradeoffs between performance and cost
  • Running reproducible experiments
  • Comparing shadow vs production models
  • Using Clarify for interpretation
  • Using Model Debugger
  • 3. Deployment and Orchestration of ML Workflows - 22%

    Select deployment infrastructure

  • Deployment best practices
  • AWS deployment services (SageMaker)
  • Real-time and batch inference methods
  • Provision compute resources (CPU, GPU)
  • Endpoint types (serverless, real-time, async, batch)
  • Choose containers
  • Optimize edge deployments (Neo)
  • Evaluate performance, cost, latency
  • Choose compute environments
  • Select deployment orchestrators
  • Select deployment targets (ECS, EKS, Lambda)
  • Choose deployment strategies
  • Create and script infrastructure

  • On-demand vs provisioned resources
  • Scaling policies comparison
  • IaC tools (CloudFormation, CDK)
  • Containerization concepts
  • Endpoint auto scaling
  • Enable scalable ML solutions
  • Automate provisioning
  • Build and maintain containers
  • Configure endpoints in VPC
  • Deploy models using SDK
  • Select metrics for auto scaling
  • CI/CD pipelines

  • AWS CodePipeline, CodeBuild, CodeDeploy
  • Automation with orchestration services
  • Version control (Git)
  • CI/CD principles
  • Deployment strategies (blue/green, canary)
  • Configure CI/CD pipelines
  • Apply deployment workflows
  • Automate ML pipelines
  • Configure training and inference jobs
  • Create automated tests
  • Build retraining mechanisms
  • 4. ML Solution Monitoring, Maintenance, and Security - 24%

    Monitor model inference

  • Model drift
  • Monitor data quality and performance
  • Design monitoring systems
  • Use Model Monitor
  • Detect anomalies
  • Monitor distribution changes
  • Use A/B testing
  • Monitor and optimize infrastructure and costs

  • Performance metrics (utilization, throughput)
  • Monitoring tools (X-Ray, CloudWatch)
  • Use CloudTrail for logging
  • Instance type differences
  • Cost analysis tools
  • Cost tracking techniques
  • Use monitoring tools
  • Create dashboards
  • Monitor infrastructure
  • Rightsize instances
  • Resolve latency issues
  • Apply tagging strategies
  • Troubleshoot capacity issues
  • Optimize costs
  • Secure AWS resources

  • IAM roles, policies, groups
  • SageMaker security features
  • Network access controls
  • Security best practices for CI/CD
  • Configure least privilege access
  • Configure IAM roles and policies
  • Monitor and audit systems
  • Troubleshoot security issues
  • Build VPCs, subnets, security groups