AWS In Practice
Courses
  • Welcome to AWS In Practice by IT Assist Labs!
  • Courses
    • AWS Powered E-commerce Application: A Guided Tour
      • Lesson Learning Paths
        • Lesson Learning Paths - Certification Prep
        • Lesson Learning Paths - Interview Prep
      • Lesson Summaries
        • Introduction
          • E-commerce Application Architecture
        • Multi-Account Strategy
          • Multi-Account Strategy Overview
          • Organization Units
          • Core Accounts
        • Core Microservices
          • Services Overview
          • AWS Well-Architected design framework application
          • Site Reliability Engineering Application
          • DevOps Application
          • Monitoring, Logging and Observability Application
        • AWS Service By Layer
          • AWS Service By Layer Overview
          • Presentation Layer
          • Business Logic Layer
          • Data Layer
        • E-commerce Application Use Cases
          • E-commerce Application Use Cases
          • Roles
      • Lesson Content Navigation Demonstration
    • Explore a Live AWS Environment Powering an E-commerce Application
  • Resources
    • AWS Certification Guide
      • Concepts
        • Security, Identity & Compliance
          • AWS IAM-Related Concepts in Certification Exams
        • Design High-Performing Architectures
          • Designing a high-performing architecture with EC2 and Auto Scaling Groups (ASGs)
    • Insights
      • Zero Trust Architecture (ZTA)
      • Implementing a Zero Trust Architecture(ZTA) with AWS
      • The Modern Application Development Lifecycle - Blue/Green Deployments
      • Microservices Communication Patterns
    • Interview Preparation
      • AWS Solutions Archictect
  • AWS Exploration
    • Use Cases
      • Multi-Region Resiliency with Active-Active Setup
        • Exploration Summary
    • Foundational Solutions Architect Use Cases
    • Security Engineer / Cloud Security Architect Use Cases
    • DevOps / Site Reliability Engineer (SRE) Use Cases
    • Cloud Engineer / Cloud Developer
    • Data Engineer Use Cases
    • Machine Learning Engineer / AI Practitioner Use Cases
    • Network Engineer (Cloud) Use Cases
    • Cost Optimization / FinOps Practitioner Use Cases
    • IT Operations / Systems Administrator Use Cases
  • Study Group
    • AWS Certified Solutions Architect - Associate
      • Study Guide Introduction
      • Domain 1: Design Secure Architectures
        • Task Statement 1.1: Design secure access to AWS resources
          • SecureCart's Journey
          • AWS Identity & Access Management (IAM) Fundamentals
          • AWS Security Token Service (STS)
          • AWS Organization
          • IAM Identity Center
          • AWS Policies
          • Federated Access
          • Directory Service
          • Managing Access Across Multiple Accounts
          • Authorization Models in IAM
          • AWS Control Tower
          • AWS Service Control Policies (SCPs)
          • Use Cases
            • Using IAM Policies and Tags for Access Control in AWS
        • Task Statement 1.2: Design Secure Workloads and Applications
          • SecureCart Journey
          • Application Configuration & Credential Security
          • Copy of Application Configuration & Credential Security
          • Network Segmentation Strategies & Traffic Control
          • Securing Network Traffic & AWS Service Endpoints
          • Protecting Applications from External Threats
          • Securing External Network Connections
          • AWS Network Firewall
          • AWS Firewall Manager
          • IAM Authentication Works with Databases
          • AWS WAF (Web Application Firewall)
          • Use Cases
            • AWS Endpoint Policy for Trusted S3 Buckets
            • Increasing Fault Tolerance for AWS Direct Connect in SecureCart’s Multi-VPC Network
            • Securing Multi-Domain SSL with ALB in SecureCart Using SNI-Based SSL
            • Configuring a Custom Domain Name for API Gateway with AWS Certificate Manager and Route 53
            • Application Load Balancer (ALB) – Redirecting HTTP to HTTPS
            • Security Considerations in ALB Logging & Monitoring
          • Amazon CloudFront and Different Origin Use Cases
          • Security Group
          • CloudFront
          • NACL
          • Amazon Cognito
          • VPC Endpoint
        • Task Statement 1.3: Determine appropriate data security controls
          • SecureCart Journey
          • Data Access & Governance
          • Data Encryption & Key Management
          • Data Retention, Classification & Compliance
          • Data Backup, Replication & Recovery
          • Managing Data Lifecycle & Protection Policies
          • KMS
          • S3 Security Measures
          • KMS Use Cases
          • Use Cases
            • Safely Storing Sensitive Data on EBS and S3
            • Managing Compliance & Security with AWS Config
            • Preventing Sensitive Data Exposure in Amazon S3
            • Encrypting EBS Volumes for HIPAA Compliance
            • EBS Encryption Behavior
            • Using EBS Volume While Snapshot is in Progress
          • Compliance
          • Implementing Access Policies for Encryption Keys
          • Rotating Encryption Keys and Renewing Certificates
          • Implementing Policies for Data Access, Lifecycle, and Protection
          • Rotating encryption keys and renewing certificates
          • Instance Store
          • AWS License Manager
          • Glacier
          • AWS CloudHSM Key Management & Zeroization Protection
          • EBS
        • AWS Security Services
        • Use Cases
          • IAM Policy & Directory Setup for S3 Access via Single Sign-On (SSO)
          • Federating AWS Access with Active Directory (AD FS) for Hybrid Cloud Access
      • Domain 2
        • Task Statement 2.1: Design Scalable and Loosely Coupled Architectures
          • SecureCart Journey
          • API Creation & Management
          • Microservices & Event-Driven Architectures
          • Load Balancing & Scaling Strategies
          • Caching Strategies & Edge Acceleration
          • Serverless & Containerization
          • Workflow Orchestration & Multi-Tier Architectures
        • Task Statement 2.2: Design highly available and/or fault-tolerant architectures
          • SecureCart Journey
          • AWS Global Infrastructure & Distributed Design
          • Load Balancing & Failover Strategies
          • Disaster Recovery (DR) Strategies & Business Continuity
          • Automation & Immutable Infrastructure
          • Monitoring & Workload Visibility
          • Use Cases
            • Amazon RDS Failover Events & Automatic Failover Mechanism
      • Domain 3
        • Task Statement 3.1: Determine high-performing and/or scalable storage solutions
          • SecureCart Journey
          • Understanding AWS Storage Types & Use Cases
          • Storage Performance & Configuration Best Practices
          • Scalable & High-Performance Storage Architectures
          • Hybrid & Multi-Cloud Storage Solutions
          • Storage Optimization & Cost Efficiency
          • Hands-on Labs & Final Challenge
        • Task Statement 3.2: Design High-Performing and Elastic Compute Solutions
          • SecureCart
          • AWS Compute Services & Use Cases
          • Elastic & Auto-Scaling Compute Architectures
          • Decoupling Workloads for Performance
          • Serverless & Containerized Compute Solutions
          • Compute Optimization & Cost Efficiency
        • Task Statement 3.3: Determine High-Performing Database Solutions
          • SecureCart Journey
          • AWS Database Types & Use Cases
          • Database Performance Optimization
          • Caching Strategies for High-Performance Applications
          • Database Scaling & Replication
          • High Availability & Disaster Recovery for Databases
        • Task Statement 3.4: Determine High-Performing and/or Scalable Network Architectures
          • SecureCart Journey
          • AWS Networking Fundamentals & Edge Services
          • Network Architecture & Routing Strategies
          • Load Balancing for Scalability & High Availability
          • Hybrid & Private Network Connectivity
          • Optimizing Network Performance
          • Site-to-Site VPN Integration for SAP HANA in AWS
        • Task Statement 3.5: Determine High-Performing Data Ingestion and Transformation Solutions
          • SecureCart Journey
          • Data Ingestion Strategies & Patterns
          • Data Transformation & ETL Pipelines
          • Secure & Scalable Data Transfer
          • Building & Managing Data Lakes
          • Data Visualization & Analytics
      • Domain 4
        • Task Statement 4.1: Design Cost-Optimized Storage Solutions
          • SecureCart Journey
          • AWS Storage Services & Cost Optimization
          • Storage Tiering & Auto Scaling
          • Data Lifecycle Management & Archival Strategies
          • Hybrid Storage & Data Migration Cost Optimization
          • Cost-Optimized Backup & Disaster Recovery
        • Task Statement 4.2: Design Cost-Optimized Compute Solutions
          • SecureCart Journey
          • AWS Compute Options & Cost Management Tools
          • Compute Purchasing Models & Optimization
          • Scaling Strategies for Cost Efficiency
          • Serverless & Container-Based Cost Optimization
          • Hybrid & Edge Compute Cost Strategies
          • AWS License Manager
        • Task Statement 4.3: Design cost-optimized database solutions
          • SecureCart Journey
          • AWS Database Services & Cost Optimization Tools
          • Database Sizing, Scaling & Capacity Planning
          • Caching Strategies for Cost Efficiency
          • Backup, Retention & Disaster Recovery
          • Cost-Optimized Database Migration Strategies
        • Task Statement 4.4: Design Cost-Optimized Network Architectures
          • SecureCart Journey
          • AWS Network Cost Management & Monitoring
          • Load Balancing & NAT Gateway Cost Optimization
          • Network Connectivity & Peering Strategies
          • Optimizing Data Transfer & Network Routing Costs
          • Content Delivery Network & Edge Caching
      • Week Nine
        • Final Review Session
        • Final Practice Test
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On this page
  • Key Characteristics of Zero Trust Architecture
  • Why is Zero Trust Architecture Important
  • How Does Zero Trust Differ from Traditional Network Security Models?
  • Origins of Zero Trust
  • Factors Leading to Prevalence
  • Modern Prevalence
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  2. Insights

Zero Trust Architecture (ZTA)

A security framework that assumes no user, device, or system—inside or outside the network—should be inherently trusted

PreviousInsightsNextImplementing a Zero Trust Architecture(ZTA) with AWS

Last updated 4 months ago

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Zero Trust Architecture (ZTA) is a security framework that assumes no user, device, or system—inside or outside the network—should be inherently trusted. Every access request is continuously verified based on identity, context, and adherence to security policies.

Key Characteristics of Zero Trust Architecture

  1. "Never Trust, Always Verify"

    • Authentication and authorization are required for every access request, regardless of the user's location.

  2. Least-Privilege Access

    • Users and devices are granted only the permissions necessary for their tasks.

  3. Continuous Monitoring

    • Security is an ongoing process with real-time visibility into user behavior, device health, and network activity.

  4. Micro-Segmentation

    • Networks are divided into smaller segments, limiting lateral movement if a breach occurs.

  5. Secure Resource Access

    • Resources are protected with encryption, secure tunnels, and dynamic policies based on real-time context.

Why is Zero Trust Architecture Important

  1. Evolving Threat Landscape

    • Modern attacks, such as phishing and insider threats, can bypass traditional perimeter defenses.

  2. Cloud and Remote Work

    • Traditional perimeter security is ineffective in hybrid and multi-cloud environments or for remote workers.

  3. Data Protection

    • Zero Trust ensures sensitive data is accessed securely, mitigating risks of breaches or unauthorized access.

  4. Regulatory Compliance

    • Frameworks like GDPR and PCI DSS emphasize strong access controls and data protection, which Zero Trust supports.

  5. Minimizing Breach Impact

    • Micro-segmentation and least-privilege access reduce the scope and impact of security incidents.

How Does Zero Trust Differ from Traditional Network Security Models?

Aspect

Traditional Network Security

Zero Trust Architecture

Trust Model

Assumes trust for devices and users inside the network perimeter.

Assumes no trust for any entity, whether inside or outside the network.

Perimeter-Based Security

Relies on a secure network perimeter (firewalls, VPNs) to control access.

Eliminates the concept of a trusted perimeter; every access is authenticated and verified.

Access Control

Broad, static access based on IP addresses or locations.

Granular, dynamic access based on identity, device posture, and context.

Authentication Frequency

Single authentication (e.g., at login).

Continuous authentication and authorization for every resource request.

Network Design

Flat or segmented networks with weak isolation.

Micro-segmented networks to isolate workloads and limit lateral movement.

User Access

Implicit trust once a user gains network access.

Continuous verification of user, device, and session integrity.

Device Verification

Minimal or no device health checks.

Enforces strong verification of device health and security posture.

Visibility and Monitoring

Limited visibility; reactive response to threats.

Continuous monitoring and real-time threat detection with proactive incident response.

Scalability

Struggles with scaling in hybrid or multi-cloud environments.

Adapts easily to cloud, hybrid environments, and remote work scenarios.

Origins of Zero Trust

  • 2009: The term "Zero Trust" was first coined by John Kindervag, a Forrester Research analyst. The model emphasized the "never trust, always verify" principle to reduce the implicit trust granted to users and devices within an organization's network.

  • Early Adoption: Organizations with high-security requirements, such as government agencies and financial institutions, began exploring ZTA principles during the 2010s.

Factors Leading to Prevalence

  • Rise of Cloud and Remote Work: The adoption of cloud-based services and increased remote work forced organizations to rethink traditional perimeter-based security models, as traditional firewalls were insufficient for securing remote access.

  • Sophistication of Threats: Advanced Persistent Threats (APTs), ransomware, and insider threats highlighted the need for more granular access controls and real-time monitoring.

  • Regulatory Pressure: Compliance standards like GDPR, HIPAA, and CCPA have driven organizations to adopt architectures that enforce strict data security and access controls.

  • Technology Advancements: Innovations in identity and access management (IAM), multifactor authentication (MFA), and micro-segmentation have made Zero Trust easier to implement.

Modern Prevalence

  • 2020s Surge: The COVID-19 pandemic accelerated Zero Trust adoption due to the rapid shift to remote work and the need for secure, scalable remote access.

  • Government Endorsements:

    • The U.S. government formally adopted Zero Trust principles in Executive Order 14028 in May 2021, mandating federal agencies to implement ZTA as part of their cybersecurity strategies.

    • The National Institute of Standards and Technology (NIST) released its ZTA guidelines in SP 800-207 in August 2020, solidifying its importance in modern security practices.

  • Enterprise Adoption: Large tech companies (e.g., Google with BeyondCorp) and security vendors have embraced ZTA as a core component of their offerings, further driving its adoption across industries.


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AWS Powered E-commerce Application: A Guided Tour
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