Terraform Infrastructure Builder: Design & Requirements Specification

This document outlines the detailed design specifications, visual guidelines, and user experience recommendations for the "Terraform Infrastructure Builder." The goal is to create an intuitive, powerful, and professional tool that empowers users to visually design and automatically generate secure, cost-optimized, and production-ready Terraform configurations for multi-cloud environments.

1. Detailed Design Specifications

The Terraform Infrastructure Builder aims to simplify the creation of complex cloud infrastructure by abstracting away the initial manual coding, while still providing full control and transparency over the generated Terraform HCL.

1.1. Core Objectives

• Ease of Use: Provide an intuitive visual interface for infrastructure design.
• Accuracy & Reliability: Generate production-ready, validated Terraform configurations.
• Multi-Cloud Support: Initially support AWS, Azure, and Google Cloud Platform.
• Best Practices Integration: Incorporate security, cost optimization, and architectural best practices by default.
• Efficiency: Reduce the time and effort required to provision new infrastructure.

1.2. Key Features

• Cloud Provider Selection:

* Users can select their target cloud provider(s) at the project level (e.g., AWS, Azure, GCP).

* The component catalog and configuration options will dynamically adapt to the selected provider.

• Comprehensive Component Catalog:

* A categorized library of common infrastructure components:

* Networking: VPC/VNet, Subnets, Internet Gateways, Route Tables, NAT Gateways, VPNs, Peering Connections.

* Compute: EC2 Instances, Virtual Machines, Kubernetes Clusters (EKS, AKS, GKE), Serverless Functions.

* Storage: S3 Buckets, Azure Blob Storage, Google Cloud Storage, EBS Volumes, Managed Disks.

* Databases: RDS, Azure SQL Database, Cloud SQL, DynamoDB, Cosmos DB.

* Security: Security Groups, Network Security Groups, IAM Roles/Policies, KMS Keys.

* Load Balancing: ELB (ALB/NLB), Azure Load Balancer, Google Cloud Load Balancer.

* Monitoring/Logging: CloudWatch, Azure Monitor, Cloud Logging (future integration).

• Interactive Design Canvas:

* A drag-and-drop interface where users visually arrange and connect infrastructure components.

* Graphical representation of resources and their logical connections (e.g., EC2 instance within a subnet, subnet within a VPC).

• Contextual Configuration Panels:

* When a component is selected on the canvas, a dynamic sidebar will display its configurable properties (e.g., instance type, region, CIDR blocks, database engine, security rules).

* Input fields will include text boxes, dropdowns, checkboxes, radio buttons, and sliders, with sensible default values.

• Real-time Validation & Feedback:

* Instantaneous validation against cloud provider limits, Terraform syntax rules, and architectural best practices.

* Visual indicators (e.g., red outlines, warning icons) and inline error messages for invalid configurations.

* Suggestions for improvements (e.g., "Consider enabling encryption for this S3 bucket").

• Dependency Management:

* Automatic detection and visualization of resource dependencies (e.g., an EC2 instance depends on a subnet, which depends on a VPC).

* Guided prompts for creating necessary dependencies if missing.

• Cost Estimation (Preview/Optional):

* Integrate with cloud provider pricing APIs or third-party tools to provide real-time or on-demand cost estimates for the designed infrastructure.

• Terraform Code Generation:

* Generate clean, modular, and human-readable Terraform HCL code (.tf files).

* Output structured into main.tf, variables.tf, outputs.tf, and providers.tf files.

* Option to include comments and documentation within the generated code.

• Project Management:

* Ability to save, load, and manage multiple infrastructure projects.

* Version history for projects (future enhancement).

• Export Options:

* Download generated Terraform code as a .zip archive.

* Copy individual code blocks.

• Extensibility:

* Modular architecture to easily add new cloud services and providers in the future.

1.3. System Architecture (User Perspective)

The Terraform Infrastructure Builder will operate as a web-based application, likely with a client-side heavy architecture for responsiveness and an API-driven backend.

• Frontend (UI): Responsible for rendering the visual builder, handling user interactions, and displaying configurations.
• Backend (API): Manages component definitions, validation logic, project persistence, and orchestrates the Terraform code generation process. It will interact with cloud provider APIs (e.g., for instance type lists, pricing) where necessary, but primarily focuses on generating the HCL.

1.4. Target Users

• Cloud Architects: To quickly prototype and design infrastructure blueprints.
• DevOps Engineers: To accelerate infrastructure provisioning and ensure consistency.
• Developers: To provision development/testing environments without deep Terraform expertise.

2. Wireframe Descriptions

The user interface will be designed for clarity, efficiency, and an intuitive workflow.

2.1. Screen 1: Project Dashboard

• Purpose: Entry point for managing infrastructure projects.
• Layout:

* Header: Application Logo, User Profile/Account settings, Global Search.

* Left Navigation Sidebar: "Projects," "Templates" (pre-built architectures), "Settings," "Help."

* Main Content Area:

* "Create New Project" Button: Prominently displayed.

* Project List: A scrollable list or grid of existing projects. Each project card displays: Project Name, Cloud Provider, Last Modified Date, Status (e.g., "Draft," "Generated"), and quick actions (Edit, Duplicate, Delete).

* Search and Filter: Options to search by name or filter by cloud provider.

2.2. Screen 2: Infrastructure Builder Canvas

• Purpose: The core visual design interface for building infrastructure.
• Layout:

* Header: Project Name, "Save," "Generate Code," "Export," "Undo," "Redo" buttons.

* Left Sidebar (Component Catalog):

* Collapsible/expandable.

* Categories: "Networking," "Compute," "Storage," "Database," "Security," "Load Balancing."

* Search bar for components.

* Draggable icons/list items representing each available cloud resource (e.g., AWS VPC icon, EC2 icon, S3 icon).

* Main Canvas Area:

* Large, interactive grid or free-form space.

* Users drag components from the left sidebar onto the canvas.

* Components are represented as distinct nodes (boxes/icons) with their configured names.

* Connections between components (e.g., EC2 to Subnet, Subnet to VPC) are drawn as lines, automatically or manually.

* Mini-map/overview for large canvases.

* Zoom in/out, pan functionality.

* Right Sidebar (Configuration Panel):

* Collapsible/expandable.

* Initially shows general project settings (e.g., Cloud Provider, Region).

* When a component on the canvas is selected, this panel dynamically updates to show its specific configuration options.

2.3. Screen 3: Component Configuration Panel (Right Sidebar - Detail View)

• Purpose: To define the specific properties and settings for

As a professional AI assistant within PantheraHive, I am pleased to present the detailed design specifications for the "Terraform Infrastructure Builder." This output represents Step 2 of 3 in the workflow, focusing on creating a robust, intuitive, and production-ready system for generating cloud infrastructure configurations.

Terraform Infrastructure Builder: Design Specifications

This document outlines the detailed design specifications, user interface wireframe descriptions, recommended color palettes, and user experience (UX) recommendations for the "Terraform Infrastructure Builder." The goal is to create a powerful yet user-friendly tool that empowers users to generate production-ready Terraform configurations for various cloud infrastructure components efficiently.

1. Design Specifications

The Terraform Infrastructure Builder is designed to automate the generation of modular and maintainable Terraform code for cloud infrastructure.

1.1. Core Functionality

• Input-Driven Configuration: Users will define infrastructure requirements through a guided input process (wizard or form).
• Multi-Cloud Support: Initial support for AWS, with a design extensible to Azure and GCP.
• Modular Code Generation: Output Terraform configurations will be structured using modules (main.tf, variables.tf, outputs.tf, providers.tf, versions.tf), promoting reusability and maintainability.
• Idempotency: Generated configurations will be idempotent, ensuring consistent infrastructure deployments for identical inputs.
• Validation: Robust input validation will prevent misconfigurations and provide immediate feedback.
• Preview & Download: Users can preview the generated Terraform code before downloading it as a .zip archive or individual .tf files.
• Version Control Integration (Future): Option to directly commit generated code to a specified Git repository (e.g., GitHub, GitLab, Bitbucket).
• State Management Recommendations: Generated configurations will include best practices for remote state management (e.g., S3 backend with DynamoDB locking for AWS).
• Security Best Practices:

* Generation of security groups/network security groups with least privilege principles.

* IAM role/policy generation with minimal necessary permissions.

* Option for KMS encryption for sensitive resources.

• Naming Conventions & Tagging: Enforce consistent, configurable naming conventions and automatic resource tagging for cost allocation, ownership, and environment identification.
• Error Handling: Clear, actionable error messages for invalid inputs or generation failures.

1.2. Supported Cloud Providers (Initial Scope: AWS)

• AWS:

* Networking: VPC, Subnets (Public/Private), Route Tables, Internet Gateway, NAT Gateway, VPN Gateway, VPC Endpoints.

* Compute: EC2 Instances (various types, AMIs), Auto Scaling Groups, Launch Configurations/Templates, Application/Network Load Balancers.

* Storage: S3 Buckets, EBS Volumes, EFS File Systems.

* Databases: RDS Instances (various engines: PostgreSQL, MySQL, Aurora, SQL Server), Multi-AZ deployments, Read Replicas.

* Security: Security Groups, IAM Roles, Policies, Key Management Service (KMS).

* Containers: ECR, ECS Cluster (basic setup).

* Monitoring/Logging: CloudWatch Log Groups (basic).

1.3. Technical Architecture

• Backend: Python (Flask/Django) or Node.js (Express) for business logic, input processing, and Terraform template rendering.
• Frontend: React, Angular, or Vue.js for an interactive, responsive user interface.
• Terraform Templates: Pre-defined, modular Terraform templates for each cloud resource, parameterized by user inputs.
• API: RESTful API for communication between frontend and backend.

2. Wireframe Descriptions

The user interface will be designed as a multi-step wizard to guide users through the complex process of infrastructure definition.

2.1. Wireframe 1: Welcome & New Configuration

• Layout: Centered content with a prominent call to action.
• Key UI Elements:

* Header: "Terraform Infrastructure Builder" with PantheraHive branding.

* Main Title: "Build Your Cloud Infrastructure with Terraform"

* Description: Brief overview of the tool's capabilities.

* Button: "Start New Configuration" (Primary action).

* Optional: "Load Saved Configuration" (Secondary action, if saving is implemented).

* Footer: Links to documentation, support.

• Interactions: Clicking "Start New Configuration" navigates to the "Provider & Environment Selection" step.

2.2. Wireframe 2: Configuration Wizard - Step 1: Provider & Environment Selection

• Layout: Two-column layout or stacked sections, with a clear progress indicator at the top.
• Key UI Elements:

* Progress Indicator: "1/X: Provider & Environment"

* Cloud Provider Selection: Radio buttons or dropdown: "AWS" (default), "Azure", "GCP" (initially disabled/greyed out for future scope).

* Region Selection: Dropdown for selected cloud provider (e.g., us-east-1, eu-west-2 for AWS).

* Environment Name: Text input (e.g., dev, staging, prod).

* Project Name: Text input (e.g., my-app-project).

* Buttons: "Next", "Cancel".

• Interactions: Selecting a provider populates region options. "Next" button validates inputs and proceeds to Step 2.

2.3. Wireframe 3: Configuration Wizard - Step 2: Networking

• Layout: Organized into collapsible sections for different networking components.
• Key UI Elements:

* Progress Indicator: "2/X: Networking"

* VPC Configuration:

* VPC CIDR Block: Text input (e.g., 10.0.0.0/16).

* Toggle: "Enable Public Subnets", "Enable Private Subnets".

* Subnet CIDR Configuration: Dynamic input fields for public/private subnet CIDRs based on VPC CIDR.

* Availability Zones: Multi-select dropdown.

* NAT Gateway: Checkbox "Deploy NAT Gateway(s)" (if private subnets are enabled).

* Internet Gateway: Checkbox "Deploy Internet Gateway" (if public subnets are enabled).

* VPN/Direct Connect: Placeholder/optional section for advanced networking.

* Buttons: "Back", "Next".

• Interactions: CIDR validation against VPC block. Enabling/disabling subnets reveals/hides related options.

2.4. Wireframe 4: Configuration Wizard - Step 3: Compute

• Layout: Tabbed interface or accordion for different compute types (EC2, ASG, Load Balancers).
• Key UI Elements:

* Progress Indicator: "3/X: Compute"

* EC2 Instances:

* Toggle: "Add EC2 Instance Group".

* Instance Name Prefix: Text input.

* Instance Type: Dropdown (e.g., t3.micro, m5.large).

* AMI ID: Text input or dropdown for common AMIs.

* Count: Number input.

* Associated Subnets: Multi-select dropdown (from Step 2).

* Security Groups: Multi-select dropdown (from Step 6, or define new).

* Auto Scaling Groups (ASG):

* Toggle: "Add Auto Scaling Group".

* Min/Max/Desired Capacity: Number inputs.

* Launch Template Configuration: Link to a separate modal/section for launch template details.

* Load Balancers:

* Toggle: "Add Application Load Balancer (ALB)".

* Type: Dropdown (ALB, NLB).

* Target Groups: Configuration for target groups and listener rules.

* Buttons: "Back", "Next".

2.5. Wireframe 5: Configuration Wizard - Step 4: Storage & Databases

• Layout: Divided into two main sections: Storage and Databases.
• Key UI Elements:

* Progress Indicator: "4/X: Storage & Databases"

* Storage Section:

* S3 Buckets:

* Toggle: "Add S3 Bucket".

* Bucket Name: Text input.

* Versioning: Checkbox.

* Encryption: Checkbox (KMS/SSE-S3).

* Public Access: Toggle (default: Block all).

* EBS Volumes: Toggle "Add EBS Volume" (for standalone, or linked to EC2).

* Databases Section (AWS RDS):

* Toggle: "Add RDS Database".

* Engine: Dropdown (PostgreSQL, MySQL, Aurora, etc.).

* Version: Dropdown.

* Instance Class: Dropdown (e.g., db.t3.micro).

* Storage (GB): Number input.

* Multi-AZ Deployment: Checkbox.

* Username/Password: Text inputs (with password strength indicator and secret management recommendations).

* Associated Subnet Group: Multi-select dropdown.

* Security Groups: Multi-select dropdown (from Step 6, or define new).

* Buttons: "Back", "Next".

2.6. Wireframe 6: Configuration Wizard - Step 5: Security & Advanced

• Layout: Sections for Security Groups, IAM, and other advanced configurations.
• Key UI Elements:

* Progress Indicator: "5/X: Security & Advanced"

* Security Groups:

* Toggle: "Define Custom Security Group".

* Group Name: Text input.

* Ingress/Egress Rules: Dynamic table with fields for Type (SSH, HTTP, Custom TCP), Port Range, Source (CIDR, SG ID).

* Pre-defined SG Templates: Dropdown for common SGs (e.g., "Web Server SG", "Database SG").

* IAM Roles/Policies:

* Toggle: "Define IAM Role for EC2".

* Role Name: Text input.

* Attached Policies: Multi-select dropdown for common AWS managed policies (e.g., AmazonSSMManagedInstanceCore).

* Tags: Dynamic table for defining custom key-value tags for all resources.

* Buttons: "Back", "Next".

2.7. Wireframe 7: Review & Generate

• Layout: Summary of all configured infrastructure components, with an expandable/collapsible view.
• Key UI Elements:

* Progress Indicator: "X/X: Review & Generate"

* Summary Sections: Read-only display of inputs from previous steps (Networking, Compute, Storage, Databases, Security).

* "Edit" Button: Next to each section to jump back to that step.

* Generated Code Preview: Collapsible section displaying a snippet of the generated Terraform code (e.g., main.tf).

* Download Options:

* Button: "Download Configuration (.zip)" (Primary action).

* Optional: "Copy to Clipboard" for individual files.

* Buttons: "Back", "Generate & Download".

• Interactions: Users review their selections. "Generate & Download" triggers backend processing and file download.

2.8. Wireframe 8: Success & Next Steps

• Layout: Confirmation message with actionable next steps.
• Key UI Elements:

* Success Message: "Terraform Configuration Generated Successfully!"

* Download Confirmation: Link to download if not auto-downloaded.

* Next Steps:

* Instructions: "Unzip the file, navigate to the directory, run terraform init, terraform plan, terraform apply."

* Link to documentation.

* Button: "Start New Configuration".

* Optional: "View Saved Configurations".

3. Color Palettes

A professional, modern, and accessible color palette will be used,

This document outlines the comprehensive design assets for the "Terraform Infrastructure Builder" workflow, specifically focusing on the finalize_design_assets step. While the core output of this workflow is production-ready Terraform configurations, this deliverable interprets "design assets" to encompass both the architectural design of the infrastructure and the potential visualization/management interface (UI/UX) that would interact with or represent this infrastructure. This dual approach ensures a holistic understanding from both an infrastructure architect's and a potential end-user's perspective.

1. Executive Summary

The "Terraform Infrastructure Builder" workflow aims to generate robust, scalable, secure, and cost-optimized cloud infrastructure. This final design asset phase solidifies the architectural blueprint and, importantly, provides a framework for how this infrastructure could be visualized and managed through a hypothetical interface. This includes detailed infrastructure design specifications, conceptual wireframes for an accompanying dashboard, a professional color palette, and key UX recommendations to ensure clarity, usability, and actionable insights.

2. Overall Design Philosophy & Goals

2.1. Infrastructure Architecture Philosophy

• Modularity & Reusability: Designs will leverage Terraform modules for common components (e.g., VPC, compute clusters, database instances) to ensure consistency, reduce redundancy, and accelerate deployment.
• Security-First: Implement least privilege principles, network segmentation, encryption at rest and in transit, and robust IAM policies from the ground up.
• Scalability & High Availability: Design for horizontal scaling where appropriate, distribute resources across availability zones, and implement redundant components to minimize single points of failure.
• Cost Optimization: Utilize appropriate instance types, storage classes, and auto-scaling mechanisms to balance performance with cost efficiency.
• Observability: Integrate logging, monitoring, and alerting capabilities to provide deep insights into infrastructure health and performance.
• Idempotency & Maintainability: Ensure Terraform configurations are idempotent, well-documented, and easy to understand and maintain over time.
• Environment Parity: Promote consistency across development, staging, and production environments through parameterization and modular design.

2.2. UI/UX Philosophy (for a hypothetical Visualization/Management Interface)

Should there be a need to visualize or manage the generated infrastructure via a user interface, the design philosophy will center on:

• Clarity & Simplicity: Present complex infrastructure information in an easily digestible and intuitive manner.
• Actionable Insights: Provide users with not just data, but insights that enable informed decisions and quick actions.
• Visual Representation: Leverage diagrams and visual cues to represent infrastructure topology and relationships effectively.
• Consistency: Maintain a unified look and feel across all interface elements.
• Responsiveness: Ensure the interface is performant and adaptable to various screen sizes.

3. Detailed Design Specifications

3.1. Infrastructure Architecture Specifications

The Terraform configurations will cover the following core cloud infrastructure components, detailed with key design considerations:

3.1.1. Virtual Private Cloud (VPC) & Networking

• Multi-AZ Deployment: At least two, preferably three, Availability Zones (AZs) for high availability.
• Subnetting:

* Public Subnets: For internet-facing resources (e.g., Load Balancers, NAT Gateways).

* Private Application Subnets: For application servers, container orchestration nodes (e.g., EC2, EKS nodes).

* Private Database Subnets: For database instances (e.g., RDS, ElastiCache).

• Network Access Control Lists (NACLs): Broad, stateless firewall rules at the subnet level.
• Security Groups: Granular, stateful firewall rules at the instance/ENI level, enforcing least privilege.
• Internet Gateway (IGW): For public subnet internet access.
• NAT Gateway (NAT GW): For private subnet outbound internet access.
• VPC Endpoints: For secure, private access to AWS services (e.g., S3, DynamoDB) without traversing the internet.
• Route Tables: Defined for public, private, and database subnets to direct traffic appropriately.
• DNS: Integration with cloud DNS services (e.g., AWS Route 53) for internal and external resolution.

3.1.2. Compute Resources

• Virtual Machines (e.g., AWS EC2):

* Instance Types: Configurable based on workload requirements (CPU, memory, burstable).

* Auto Scaling Groups (ASG): For elasticity and high availability, scaling based on metrics (e.g., CPU utilization, request count).

* Launch Templates: Standardized configuration for instances within ASGs.

* OS & AMIs: Parameterized selection of operating systems and base images.

• Container Orchestration (e.g., AWS EKS/ECS):

* Cluster Configuration: Control plane setup, worker node groups (managed or self-managed).

* Networking: CNI integration (e.g., AWS VPC CNI).

* Load Balancing: Integration with Application Load Balancers (ALB) or Network Load Balancers (NLB).

* Registry: Integration with container registries (e.g., AWS ECR).

• Serverless Functions (e.g., AWS Lambda):

* Function Definitions: Runtime, memory, timeout, environment variables.

* Triggers: API Gateway, S3 events, DynamoDB streams, SQS.

* IAM Roles: Least privilege roles for function execution.

3.1.3. Storage Solutions

• Object Storage (e.g., AWS S3):

* Bucket Policies: Enforce access control, encryption, and lifecycle rules.

* Versioning: Enabled for data protection.

* Encryption: Server-side encryption (SSE-S3, SSE-KMS) enabled by default.

* Lifecycle Rules: For cost optimization (e.g., transition to Glacier, expiration).

• Block Storage (e.g., AWS EBS):

* Volume Types: Configurable (gp2, gp3, io1, io2) based on performance needs.

* Encryption: Enabled by default.

* Snapshots: Automated backup schedules.

• File Storage (e.g., AWS EFS):

* Mount Targets: Configured in private subnets.

* Access Points: Granular access control for applications.

3.1.4. Database Services

• Relational Databases (e.g., AWS RDS):

* Engine & Version: Configurable (e.g., PostgreSQL, MySQL, Aurora).

* Instance Class: Sized according to performance and cost requirements.

* Multi-AZ Deployment: For high availability with automatic failover.

* Read Replicas: For read scaling and disaster recovery.

* Encryption: At rest (KMS) and in transit (SSL/TLS).

* Backup & Retention: Automated backups and configurable retention periods.

• NoSQL Databases (e.g., AWS DynamoDB):

* Table Definitions: Primary keys, attributes, global/local secondary indexes.

* Capacity Mode: On-demand or provisioned (read/write capacity units).

* Encryption: Server-side encryption by default.

3.1.5. Load Balancing & Content Delivery

• Application Load Balancers (ALB): For HTTP/HTTPS traffic, layer 7 routing, path-based routing.
• Network Load Balancers (NLB): For high-performance TCP/UDP traffic.
• Target Groups: Health checks and routing to backend instances/containers.
• SSL/TLS Certificates: Integration with Certificate Manager (ACM).
• Content Delivery Network (e.g., AWS CloudFront): For caching and accelerating web content delivery.

3.1.6. Identity & Access Management (IAM)

• IAM Roles: For AWS services and applications, enforcing least privilege.
• IAM Policies: Granular permissions attached to roles.
• Service Accounts: For Kubernetes workloads (if EKS is used).
• MFA: Recommendations for user accounts.

3.2. UI/UX Design Specifications (Hypothetical Infrastructure Dashboard)

3.2.1. Purpose

A visual interface to:

• Display the current state and topology of the deployed infrastructure.
• Provide detailed information about individual resources.
• Offer insights into cost, security, and performance.
• Track deployment history and drift from desired state.

3.2.2. Core Features

• Infrastructure Topology View: Interactive diagram showing VPCs, subnets, instances, databases, and their interconnections.
• Resource Inventory: Filterable and searchable list of all deployed resources with key metrics.
• Cost Explorer Integration: Visualize current and projected infrastructure costs.
• Security Posture Overview: Highlight security group rules, public access, and compliance status.
• Deployment History: View past Terraform apply operations, changes, and drift detection reports.
• Alerts & Notifications: Centralized view of operational alerts.

3.2.3. Navigation Structure

• Dashboard: High-level overview, health status, cost summary.
• Network: VPCs, Subnets, Security Groups, Route Tables, Load Balancers.
• Compute: EC2 Instances, Auto Scaling Groups, EKS/ECS Clusters.
• Storage: S3 Buckets, EBS Volumes, EFS File Systems.
• Databases: RDS Instances, DynamoDB Tables.
• Security: IAM Roles/Policies, Security Groups.
• Deployments: History, Plans, Status.

4. Wireframe Descriptions (Hypothetical Infrastructure Dashboard)

These wireframes describe conceptual layouts for a web-based interface visualizing the Terraform-managed infrastructure.

4.1. Dashboard Overview

• Layout: Three-column layout with a prominent header and left-hand navigation.
• Header: Logo, Search bar, User profile/settings, Notifications icon.
• Left Nav: Collapsible, with main sections (Dashboard, Network, Compute, Storage, Databases, Security, Deployments).
• Main Content:

* Section 1 (Top Banner): Overall Health Status (e.g., "All Systems Operational"), Link to alerts.

* Section 2 (Resource Summary Cards): Cards for "Total Resources," "Running Instances," "Databases Online," "Monthly Cost (Est.)." Each card shows a number and a small sparkline chart or status indicator.

* Section 3 (Recent Deployments): A table listing the last 5 Terraform apply operations: Date, Status (Success/Failure), Changes Applied, Initiator.

* Section 4 (Cost Trend Chart): A line chart showing estimated daily/weekly cost trends over the last month.

4.2. Network Topology View

• Layout: Full-width interactive canvas.
• Header: "VPC Network Topology," dropdown for selecting VPCs (if multiple), zoom/pan controls, legend toggle.
• Main Content:

* Interactive Diagram: