Understand AWS foundations
Learn how cloud resources are organized, accessed, connected, and monitored.
Learn core AWS services including IAM, EC2, VPC, S3, RDS, monitoring, load balancing, Auto Scaling, security, cost awareness, and cloud architecture.
Build a practical understanding of how cloud resources are connected, secured, monitored, scaled, and reviewed for real-world application workloads.
AWS Cloud provides services for computing, storage, networking, databases, identity, monitoring, and application delivery. This course introduces how those services can be combined to build practical cloud workloads.
You will begin with cloud concepts, AWS regions, Availability Zones, accounts, and identity management. You will then explore EC2, VPC, S3, RDS, load balancing, Auto Scaling, monitoring, logging, security, and cost awareness.
The course finishes with an AWS-hosted application project that brings together compute, storage, networking, database, access control, monitoring, and documentation.
Cloud architecture is not only about selecting services. It also requires understanding access, failure, performance, cost, operations, security, and the responsibilities shared between the provider and the customer.
The course is designed for learners starting with cloud concepts. The following knowledge will make the practical activities easier.
Draw a simple architecture for a web application with a browser, application server, database, and object storage. Mark which components need public access and which should remain private.
Learn how cloud resources are organized, accessed, connected, and monitored.
Explore compute, storage, databases, networking, and application delivery options.
Connect server, identity, networking, and monitoring knowledge with AWS services.
Explore automation, deployment, logging, scaling, reliability, and cost awareness.
The ten-module outline moves from AWS foundations to a complete hosted application. Exercises should be performed in an authorized account with spending controls and resources removed after practice.
Build a foundation in cloud terminology, shared responsibility, service categories, accounts, regions, and Availability Zones.
Practice: Draw a basic AWS architecture and label its users, compute, storage, database, network, and monitoring components.
Prepare a safe learning environment and understand the account-level controls needed before launching resources.
Practice: Create a project naming convention, define environment tags, and prepare a checklist for deleting resources after each lab.
Learn how AWS identities and permissions control access to cloud resources and services.
Practice: Create a restricted lab identity, test permitted and denied actions, and document why each permission is needed.
Explore virtual servers, machine images, storage, access, security groups, and application setup.
Practice: Launch a lab instance, install a small web service, test access through a controlled port, and terminate the resource after verification.
Understand how AWS resources are placed inside a logically isolated virtual network.
Practice: Design a two-tier network with a public application layer and a private database layer. Explain the route and access decisions.
Explore object storage for static assets, backups, uploads, logs, and application content.
Practice: Create a private storage bucket, upload sample objects, apply tags, test controlled access, and document the protection settings.
Learn how managed relational databases can support applications while separating data services from application compute.
Practice: Design an application-to-database connection path and explain why the database should not be directly exposed to the public internet.
Explore how applications can distribute traffic, detect unhealthy targets, and adjust compute capacity.
Practice: Draw an architecture with a load balancer and multiple application targets. Explain how unhealthy targets should be handled.
Develop an operational view of a workload by reviewing metrics, logs, alarms, and activity history.
Practice: Define three useful monitoring signals for a hosted application and create a response checklist for each possible warning.
Bring the services together and review the application across security, reliability, performance, operations, cost, and sustainability.
Practice: Complete the hosted-application capstone, perform a six-pillar review, and explain the main trade-offs in your architecture.
Complete these smaller activities before building the complete hosted-application project.
Create a restricted identity and verify which AWS actions are allowed or denied.
Review focus: policies, roles, MFA, and safe credential handling.
Launch a lab instance, configure a web service, verify access, and clean up the resource.
Review focus: AMIs, security groups, access, storage, and lifecycle.
Design public application and private database subnets with appropriate routing.
Review focus: isolation, routes, gateways, and controlled communication.
Store sample objects privately and document how an application could access them safely.
Review focus: policies, encryption, versioning, and lifecycle.
Plan a private relational database connection for an application running on cloud compute.
Review focus: subnet placement, security groups, backups, and secrets.
Select useful metrics, logs, alarms, and response actions for a sample workload.
Review focus: signal quality, incident response, and operational ownership.
This is an illustrative sequence for organizing learning and practice. Confirm the academy's actual timetable, class hours, and lab access before publishing.
| Week | Focus | Suggested milestone |
|---|---|---|
| 01 | Cloud and AWS fundamentals | Draw a basic cloud architecture and review shared responsibility. |
| 02 | Account, tools, and cost awareness | Prepare tags, budgets, CLI concepts, and cleanup procedures. |
| 03 | IAM and access control | Create and test a restricted lab identity. |
| 04 | EC2 compute | Launch, configure, test, and terminate a lab instance. |
| 05 | VPC networking | Design public and private subnet architecture. |
| 06 | S3 and storage | Create a protected object-storage workflow. |
| 07 | RDS and application data | Design a private application-to-database connection. |
| 08 | Load balancing and scaling | Review healthy targets, scaling, and failure scenarios. |
| 09 | Monitoring and operations | Define metrics, logs, alarms, and response procedures. |
| 10 | Capstone and architecture review | Deploy, document, review, and present the architecture. |
Deploy a small web application using a practical AWS architecture. The project should demonstrate compute, storage, database connectivity, networking, identity, monitoring, documentation, and responsible resource management.
Add a load balancer, Auto Scaling, a managed DNS workflow, HTTPS planning, infrastructure as code, a CI/CD pipeline, container deployment, or a serverless alternative. Extend the project only after the basic architecture is understood and stable.
Cloud resources can create charges. Use budgets, permissions, tags, and cleanup checklists. Never leave temporary lab resources running without understanding their billing and access implications.
Organize diagrams, application code, deployment notes, configuration examples, and operational documentation so another person can understand and reproduce the project.
aws-cloud-project/
├── app/
│ ├── src/
│ └── README.md
├── architecture/
│ ├── architecture-diagram.png
│ └── decisions.md
├── infrastructure/
│ ├── templates/
│ └── configuration.example
├── operations/
│ ├── monitoring.md
│ ├── runbook.md
│ └── cleanup.md
├── security/
│ └── access-review.md
├── README.md
└── .gitignore
Do not commit access keys, passwords, private certificates, database credentials, personal data, or other secrets to a public repository.
Use a structured review to understand the trade-offs in your design. AWS Well-Architected organizes architecture guidance around six pillars: operational excellence, security, reliability, performance efficiency, cost optimization, and sustainability. [62][63]
Review deployment, monitoring, logging, runbooks, ownership, and change procedures.
Review identity, permissions, network exposure, encryption, secrets, and audit activity.
Review failure scenarios, backups, health checks, redundancy, and recovery procedures.
Review resource selection, latency, throughput, scaling behavior, and bottlenecks.
Review resource usage, tagging, budgets, cleanup, and cost-to-value decisions.
Review efficient resource selection, utilization, lifecycle, and unnecessary capacity.
Cloud learning should include access protection and spending awareness from the beginning. A working deployment is not complete if access is excessive, secrets are exposed, or temporary resources are left running without review.
Grant only the permissions needed for the current task and review them as the project changes.
Never hardcode secrets in application files, public repositories, or screenshots.
Keep databases and internal services private unless public access is explicitly required.
Use logs, metrics, alarms, and audit information to understand system behavior.
Use budgets, tags, and cost review to understand which resources create charges.
Terminate lab instances, delete temporary storage, and review related networking resources.
The course focuses on AWS services while introducing supporting tools for development, deployment, monitoring, documentation, and automation.
By completing the proposed lessons and exercises, aim to demonstrate the following abilities:
These are learning objectives, not guarantees of employment, certification, placement, or a specific cloud role. Results depend on practice, lab access, project quality, and continued learning.
This course can support exploration of cloud, infrastructure, operations, and DevOps-related work.
It is suitable for beginners to cloud computing, developers, system administrators, DevOps learners, and anyone who wants to understand AWS application infrastructure.
No. The course begins with cloud and AWS fundamentals. Basic computer knowledge is required, while Linux, networking, and Git familiarity are helpful.
The main topics include IAM, EC2, VPC, S3, RDS, load balancing, Auto Scaling, CloudWatch, CloudTrail concepts, and related architecture practices.
The proposed capstone is an AWS-hosted web application covering compute, networking, storage, database access, identity, monitoring, documentation, and cleanup.
Practical labs may require access to an authorized AWS account. Confirm account, billing, lab, and free-tier arrangements with the academy before beginning hands-on work.
Yes. AWS services and resources may incur charges depending on usage, region, account status, and pricing terms. Use budgets, alerts, permission controls, and cleanup procedures.
A VPC is a logically isolated section of the AWS Cloud where you can launch resources in a virtual network that you define. [71]
Elastic Load Balancing distributes incoming traffic across registered targets and can route traffic toward healthy targets based on health checks. [68]
Yes. It includes IAM, least privilege, MFA concepts, security groups, private networking, secret handling, monitoring, audit concepts, and architecture review.
It introduces budgets, tagging, resource selection, cleanup, utilization review, and the importance of understanding workload costs. Verify current AWS pricing before deployment.
The supplied course information proposes a duration of 10 weeks. Confirm the official schedule and practical-lab duration before publishing or enrolling.
This page is a frontend course-information demonstration. Enrollment, payment, scheduling, and admission workflows are not implemented here.
No. The course can support practical learning and portfolio development, but it does not guarantee employment, placement, certification, or salary.
Learn how AWS services connect, how cloud resources are protected and monitored, and how to document an application architecture with clear trade-offs.