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== Introduction ==
'''Summary:'''
Cloud Security Architecture is the design and implementation of security controls, processes, technologies, and governance practices that protect cloud-hosted systems, applications, and data. It provides a structured approach to managing risks while maintaining the agility, scalability, and operational benefits offered by modern cloud platforms.


Cloud Security Architecture is the structured design of security controls, policies, technologies, and operational processes intended to protect cloud-based systems, applications, data, and services. It provides a framework for securing cloud environments while supporting business objectives such as scalability, availability, performance, compliance, and cost efficiency.
== Context ==


As organisations increasingly migrate workloads to public, private, and hybrid cloud platforms, security architecture has become a fundamental discipline that ensures the confidentiality, integrity, and availability of information assets across distributed and often globally accessible environments.
Organisations increasingly rely on cloud services to host critical applications, store sensitive information, and support remote workforces.


Cloud Security Architecture combines traditional information security principles with cloud-native technologies and operational practices to create a resilient and adaptable security posture.
Traditional perimeter-based security models were developed for environments where servers, applications, and users existed within a controlled network boundary. Cloud computing fundamentally changes this assumption.


== Objectives ==
In cloud environments:


The primary objectives of Cloud Security Architecture include:
* Infrastructure may be owned by a third party
* Users access services from anywhere
* Applications may span multiple regions
* Services are frequently deployed and updated automatically
* Resources are often temporary and highly dynamic


* Protecting sensitive information and business assets.
As a result, security architectures must evolve from protecting fixed infrastructure to protecting identities, data, workloads, and business processes.
* Ensuring regulatory and legal compliance.
* Managing risk associated with cloud adoption.
* Enabling secure digital transformation initiatives.
* Supporting business continuity and disaster recovery.
* Preventing unauthorised access to systems and data.
* Detecting and responding to threats in real-time.
* Maintaining trust with customers, partners, and stakeholders.


== Shared Responsibility Model ==
== What Is Cloud Security Architecture? ==


A fundamental concept in cloud security is the '''Shared Responsibility Model''', which defines the division of security responsibilities between the cloud provider and the customer.
Cloud Security Architecture is the collection of:


=== Cloud Provider Responsibilities ===
* Security principles
* Security controls
* Governance policies
* Technical standards
* Monitoring capabilities
* Operational procedures


Typically include:
that work together to protect cloud resources.


* Physical data centre security.
A successful architecture balances:
* Hardware security.
* Network infrastructure protection.
* Hypervisor security.
* Availability of cloud services.


=== Customer Responsibilities ===
* Security
* Compliance
* Availability
* Performance
* Cost
* Operational simplicity


Typically include:
The objective is not merely to prevent attacks but to detect, contain, and recover from incidents efficiently.


* Identity and access management.
== Core Security Principles ==
* Data protection and classification.
* Operating system security (Infrastructure as a Service).
* Application security.
* Configuration management.
* Security monitoring and governance.


The exact allocation of responsibilities varies depending on the cloud service model.
=== Shared Responsibility Model ===


== Cloud Service Models ==
Cloud security is a shared responsibility between the cloud provider and the customer.


=== Infrastructure as a Service (IaaS) ===
A simplified view:


Provides customers with virtualised infrastructure components including:
{| class="wikitable"
! Cloud Provider
! Customer
|-
| Physical datacentres
| Identity management
|-
| Hardware
| Data protection
|-
| Hypervisors
| Application security
|-
| Core platform services
| Configuration management
|-
| Physical security
| Access control
|}


* Virtual machines.
Understanding where provider responsibilities end and customer responsibilities begin is essential.
* Storage services.
* Networking components.


Examples include:
Many cloud breaches occur because organisations assume the provider secures everything.


* Microsoft Azure Virtual Machines.
=== Defence in Depth ===
* Amazon EC2.
* Google Compute Engine.


Customers are responsible for securing operating systems, applications, and data.
No single control should be considered sufficient.


=== Platform as a Service (PaaS) ===
Security should exist across multiple layers:


Provides managed platforms for application development and deployment.
* Physical
* Network
* Identity
* Application
* Data
* Monitoring


Examples include:
If one layer fails, other controls continue providing protection.


* Azure App Services.
=== Zero Trust ===
* Azure SQL Database.
* Google App Engine.
 
Security responsibilities shift toward application and data protection.
 
=== Software as a Service (SaaS) ===
 
Provides fully managed applications delivered over the internet.
 
Examples include:
 
* Microsoft 365.
* Salesforce.
* ServiceNow.
 
Customers primarily focus on access control, data governance, and compliance.
 
== Core Architectural Principles ==
 
=== Defence in Depth ===
 
Defence in Depth employs multiple layers of security controls to prevent a single point of failure.
 
Typical layers include:
 
# Physical Security
# Network Security
# Perimeter Security
# Identity Security
# Endpoint Security
# Application Security
# Data Security
# Monitoring and Response


=== Zero Trust ===
Zero Trust assumes:


Zero Trust assumes that no user, device, application, or network should be automatically trusted.
''Never trust, always verify.''


Core principles include:
Every request should be authenticated and authorised regardless of location.


* Verify explicitly.
A user connecting from the corporate office should receive the same scrutiny as a user connecting from a remote network.
* Use least privilege access.
* Assume breach.
* Continuously validate trust.
* Monitor all activity.


=== Least Privilege ===
=== Least Privilege ===


Users and systems should only receive the minimum permissions necessary to perform required tasks.
Users, applications, and services should have only the permissions required to perform their tasks.


Benefits include:
Excessive permissions significantly increase risk during compromise.


* Reduced attack surface.
== Cloud Security Domains ==
* Lower risk of privilege escalation.
* Improved compliance.


=== Secure by Design ===
=== Identity and Access Management ===


Security requirements should be integrated during system design rather than added after deployment.
Identity is the new perimeter.


This includes:
Strong IAM controls include:


* Threat modelling.
* Multi-factor authentication
* Security architecture reviews.
* Single Sign-On
* Security testing.
* Conditional access policies
* Secure coding practices.
* Privileged access management
* Service account governance
* Automated provisioning and deprovisioning


== Cloud Security Domains ==
Compromised credentials remain one of the most common attack vectors.


=== Identity and Access Management ===
=== Network Security ===


Identity is the primary security perimeter in modern cloud environments.
While identity becomes increasingly important, network-based controls remain valuable.


Key controls include:
Typical controls include:


* Multi-Factor Authentication (MFA).
* Network segmentation
* Conditional Access Policies.
* Virtual networks
* Single Sign-On (SSO).
* Security groups
* Privileged Identity Management (PIM).
* Firewalls
* Role-Based Access Control (RBAC).
* Web Application Firewalls
* Federated Authentication.
* DDoS protection
* Private endpoints


=== Network Security ===
Network controls help limit lateral movement following compromise.


Cloud network security controls protect communication between resources.
=== Data Protection ===


Examples include:
Data is often the primary target of attackers.


* Virtual Networks.
Protection measures include:
* Network Security Groups.
* Firewalls.
* Web Application Firewalls (WAF).
* Private Endpoints.
* VPN Gateways.
* Bastion Hosts.


=== Data Security ===
* Encryption at rest
* Encryption in transit
* Key management systems
* Data classification
* Backup and retention policies
* Data loss prevention controls


Data protection measures focus on securing information throughout its lifecycle.
Sensitive data should be protected throughout its entire lifecycle.


Controls typically include:
=== Workload Security ===


* Encryption at rest.
Applications, containers, virtual machines, and serverless functions all require protection.
* Encryption in transit.
* Encryption in use.
* Key Management Systems.
* Data Loss Prevention (DLP).
* Information Classification.
* Data Retention Policies.


=== Application Security ===
Key considerations include:


Application security protects software workloads deployed in cloud environments.
* Vulnerability management
* Secure configuration baselines
* Patch management
* Runtime protection
* Container image scanning
* Secure software development practices


Key techniques include:
=== Monitoring and Detection ===


* Secure Development Lifecycle (SDLC).
Visibility is essential.
* Static Application Security Testing (SAST).
* Dynamic Application Security Testing (DAST).
* Dependency Scanning.
* API Security.
* Secure Code Reviews.


=== Endpoint Security ===
Effective monitoring includes:


Endpoints connecting to cloud services require protection through:
* Centralised logging
* Security Information and Event Management (SIEM)
* Threat intelligence
* Behaviour analytics
* Security alerts
* Incident response workflows


* Endpoint Detection and Response (EDR).
You cannot protect systems you cannot observe.
* Anti-malware solutions.
* Device compliance policies.
* Mobile Device Management (MDM).
* Device encryption.


=== Security Operations ===
=== Governance and Compliance ===


Security operations provide visibility into cloud environments.
Governance provides consistency.


Capabilities include:
This includes:


* Log aggregation.
* Security standards
* Security Information and Event Management (SIEM).
* Policy management
* Security Orchestration, Automation and Response (SOAR).
* Risk assessments
* Threat Intelligence.
* Audit controls
* Incident Response.
* Regulatory compliance
* Security Analytics.
* Change management


== Security Architecture Components ==
Governance ensures security scales alongside the organisation.


=== Governance Layer ===
== Reference Architecture ==


Provides strategic oversight through:
A simplified cloud security architecture might resemble:


* Security policies.
<pre>
* Security standards.
+--------------------------------+
* Risk management frameworks.
|        End Users              |
* Compliance controls.
+---------------+----------------+
* Audit programmes.
                |
                v
+--------------------------------+
| Identity Provider / MFA        |
+---------------+----------------+
                |
                v
+--------------------------------+
| Application Gateway / WAF      |
+---------------+----------------+
                |
                v
+--------------------------------+
| Application Services          |
+---------------+----------------+
                |
    +----------+----------+
    |                    |
    v                    v
+---------+        +-------------+
| Logging |        | Databases  |
|  SIEM  |        | Encrypted  |
+---------+        +-------------+
    |
    v
+--------------------------------+
| Security Operations            |
+--------------------------------+
</pre>


=== Control Layer ===
Each layer contributes to the overall security posture.


Implements technical and administrative controls.
== Security Layers in Practice ==


Examples include:
Cloud security should be viewed as a collection of overlapping protections.


* Access controls.
<pre>
* Monitoring controls.
+------------------------------+
* Encryption controls.
| Governance & Compliance      |
* Configuration standards.
+------------------------------+
| Monitoring & Detection        |
+------------------------------+
| Data Protection              |
+------------------------------+
| Application Security        |
+------------------------------+
| Identity & Access Control    |
+------------------------------+
| Network Security            |
+------------------------------+
| Cloud Infrastructure        |
+------------------------------+
</pre>


=== Monitoring Layer ===
Technology changes rapidly, but layered security remains a constant principle.


Provides continuous operational visibility.
== Common Threats ==


Includes:
Common cloud security threats include:


* Log collection.
* Credential theft
* Event monitoring.
* Misconfigured storage
* Alerting mechanisms.
* Publicly exposed services
* Threat detection systems.
* Excessive permissions
* API abuse
* Supply-chain attacks
* Insider threats
* Ransomware
* Data exfiltration


=== Response Layer ===
Most incidents involve a combination of technical weaknesses and process failures.


Manages security incidents through:
== Design & Architecture Considerations ==


* Incident response plans.
=== Scalability ===
* Security playbooks.
* Automated remediation.
* Forensic investigations.


== Cloud Security Technologies ==
Security controls must scale automatically alongside cloud resources.


Common technologies within modern cloud architectures include:
=== Security by Design ===


* Microsoft Defender for Cloud.
Security should be included during system design, not added later.
* Microsoft Sentinel.
* Azure Firewall.
* Azure Key Vault.
* Azure DDoS Protection.
* AWS GuardDuty.
* AWS Security Hub.
* Google Security Command Center.
* CrowdStrike Falcon.
* Palo Alto Prisma Cloud.


== Common Threats ==
=== Automation ===


=== Misconfiguration ===
Manual security processes become unsustainable at scale.


One of the most significant causes of cloud security incidents.
Automate:


Examples include:
* Policy enforcement
* Compliance checks
* Vulnerability scanning
* Configuration validation
* Incident response workflows


* Publicly accessible storage.
=== Resilience ===
* Excessive permissions.
* Open network ports.


=== Credential Theft ===
Assume compromise is possible.


Compromised credentials may allow attackers to gain access to cloud resources.
Architect systems to:


Mitigation techniques include:
* Detect rapidly
* Limit damage
* Recover efficiently


* MFA.
=== Maintainability ===
* Passwordless authentication.
* Conditional Access.


=== Insider Threats ===
The most secure architecture is not always the best architecture if it cannot be maintained operationally.


May originate from employees, contractors, or partners who misuse legitimate access.
== Operational Lifecycle ==


=== Supply Chain Attacks ===
=== Build ===


Compromise of software, services, or third-party dependencies used within cloud environments.
* Define requirements
* Design security controls
* Establish standards


=== Ransomware ===
=== Deploy ===


Attackers may target cloud-hosted workloads, backup systems, or synchronised data repositories.
* Apply Infrastructure as Code
* Validate configurations
* Perform security testing


== Compliance and Regulatory Considerations ==
=== Operate ===


Cloud Security Architecture often supports compliance with standards and regulations including:
* Monitor continuously
* Respond to incidents
* Review permissions


* ISO 27001
=== Improve ===
* ISO 27017
* ISO 27018
* SOC 2
* PCI-DSS
* GDPR
* HIPAA
* NIST Cybersecurity Framework
* NIST SP 800-53


Compliance should be considered throughout the solution lifecycle rather than as a final validation exercise.
* Audit regularly
* Review lessons learned
* Update standards


== Cloud Security Architecture Lifecycle ==
=== Retire ===


=== 1. Assessment ===
* Archive required data
* Remove access
* Destroy obsolete resources securely


Identify:
== Common Pitfalls ==


* Assets.
* Treating cloud security as purely a network problem
* Risks.
* Granting excessive permissions
* Threats.
* Ignoring governance
* Compliance requirements.
* Failing to monitor logs
* Relying entirely on default configurations
* Neglecting backup validation
* Assuming compliance equals security


=== 2. Design ===
These problems are frequently more dangerous than sophisticated attacks.


Develop:
== Troubleshooting & Diagnostics ==


* Security controls.
When investigating potential security issues:
* Trust boundaries.
* Network architecture.
* Identity architecture.


=== 3. Implementation ===
=== Access Problems ===


Deploy:
Check:


* Security technologies.
* Identity provider logs
* Policies.
* Conditional access policies
* Monitoring capabilities.
* Role assignments
* MFA status


=== 4. Validation ===
=== Network Issues ===


Perform:
Check:


* Vulnerability assessments.
* Firewall rules
* Penetration testing.
* Security groups
* Architecture reviews.
* Routing tables
* DNS configuration


=== 5. Operations ===
=== Data Access Issues ===


Maintain:
Check:


* Monitoring.
* Encryption settings
* Incident response.
* Key permissions
* Change management.
* Storage access policies
* Audit logs


=== 6. Continuous Improvement ===
=== Suspicious Activity ===


Review and enhance controls based on:
Review:


* Emerging threats.
* Authentication events
* Business changes.
* Administrative actions
* Security incidents.
* Configuration changes
* Regulatory updates.
* Network flows
* SIEM alerts


== Emerging Trends ==
== Future Trends ==


Several trends are shaping the future of Cloud Security Architecture:
Cloud Security Architecture continues evolving towards:


* AI-assisted threat detection.
* Zero Trust architectures
* Security Copilots and automated investigations.
* Passwordless authentication
* Extended Detection and Response (XDR).
* AI-assisted threat detection
* Cloud-Native Application Protection Platforms (CNAPP).
* Continuous compliance validation
* Secure Access Service Edge (SASE).
* Confidential computing
* Security Service Edge (SSE).
* Identity-centric security
* Confidential Computing.
* Secure multi-cloud governance
* Post-Quantum Cryptography preparedness.
* Identity-first security models.


== Best Practices ==
The overall direction is clear: security is becoming increasingly automated, identity-driven, and integrated directly into platform operations.


* Adopt a Zero Trust strategy.
== Related Topics ==
* Enable Multi-Factor Authentication everywhere possible.
* Apply least privilege access principles.
* Encrypt sensitive data.
* Continuously monitor cloud environments.
* Automate security operations where appropriate.
* Conduct regular security reviews.
* Maintain comprehensive logging.
* Implement robust backup and recovery procedures.
* Integrate security throughout the development lifecycle.


== Conclusion ==
* [[Zero Trust Architecture]]
* [[Identity and Access Management]]
* [[Cloud Governance]]
* [[Infrastructure as Code]]
* [[Security Operations]]
* [[Network Security Architecture]]
* [[Data Protection Strategy]]


Cloud Security Architecture provides the strategic and technical foundation required to secure modern cloud environments. By integrating governance, identity, data protection, monitoring, and incident response capabilities into a cohesive architecture, organisations can confidently leverage cloud technologies while managing risk and maintaining compliance. Successful cloud security architecture is not a one-time project but an ongoing discipline that evolves alongside threats, technologies, and business requirements.
== References ==


[[Category:Cloud Computing]]
* NIST Cybersecurity Framework
[[Category:Cyber Security]]
* NIST Zero Trust Architecture
[[Category:Enterprise Architecture]]
* ISO 27001
[[Category:Information Security]]
* ISO 27017
[[Category:Microsoft Azure]]
* CIS Controls
[[Category:Infrastructure]]
* Microsoft Cloud Adoption Framework
* AWS Well-Architected Framework
* Cloud Security Alliance Guidance

Latest revision as of 07:01, 6 July 2026

Summary: Cloud Security Architecture is the design and implementation of security controls, processes, technologies, and governance practices that protect cloud-hosted systems, applications, and data. It provides a structured approach to managing risks while maintaining the agility, scalability, and operational benefits offered by modern cloud platforms.

Context

Organisations increasingly rely on cloud services to host critical applications, store sensitive information, and support remote workforces.

Traditional perimeter-based security models were developed for environments where servers, applications, and users existed within a controlled network boundary. Cloud computing fundamentally changes this assumption.

In cloud environments:

  • Infrastructure may be owned by a third party
  • Users access services from anywhere
  • Applications may span multiple regions
  • Services are frequently deployed and updated automatically
  • Resources are often temporary and highly dynamic

As a result, security architectures must evolve from protecting fixed infrastructure to protecting identities, data, workloads, and business processes.

What Is Cloud Security Architecture?

Cloud Security Architecture is the collection of:

  • Security principles
  • Security controls
  • Governance policies
  • Technical standards
  • Monitoring capabilities
  • Operational procedures

that work together to protect cloud resources.

A successful architecture balances:

  • Security
  • Compliance
  • Availability
  • Performance
  • Cost
  • Operational simplicity

The objective is not merely to prevent attacks but to detect, contain, and recover from incidents efficiently.

Core Security Principles

Shared Responsibility Model

Cloud security is a shared responsibility between the cloud provider and the customer.

A simplified view:

Cloud Provider Customer
Physical datacentres Identity management
Hardware Data protection
Hypervisors Application security
Core platform services Configuration management
Physical security Access control

Understanding where provider responsibilities end and customer responsibilities begin is essential.

Many cloud breaches occur because organisations assume the provider secures everything.

Defence in Depth

No single control should be considered sufficient.

Security should exist across multiple layers:

  • Physical
  • Network
  • Identity
  • Application
  • Data
  • Monitoring

If one layer fails, other controls continue providing protection.

Zero Trust

Zero Trust assumes:

Never trust, always verify.

Every request should be authenticated and authorised regardless of location.

A user connecting from the corporate office should receive the same scrutiny as a user connecting from a remote network.

Least Privilege

Users, applications, and services should have only the permissions required to perform their tasks.

Excessive permissions significantly increase risk during compromise.

Cloud Security Domains

Identity and Access Management

Identity is the new perimeter.

Strong IAM controls include:

  • Multi-factor authentication
  • Single Sign-On
  • Conditional access policies
  • Privileged access management
  • Service account governance
  • Automated provisioning and deprovisioning

Compromised credentials remain one of the most common attack vectors.

Network Security

While identity becomes increasingly important, network-based controls remain valuable.

Typical controls include:

  • Network segmentation
  • Virtual networks
  • Security groups
  • Firewalls
  • Web Application Firewalls
  • DDoS protection
  • Private endpoints

Network controls help limit lateral movement following compromise.

Data Protection

Data is often the primary target of attackers.

Protection measures include:

  • Encryption at rest
  • Encryption in transit
  • Key management systems
  • Data classification
  • Backup and retention policies
  • Data loss prevention controls

Sensitive data should be protected throughout its entire lifecycle.

Workload Security

Applications, containers, virtual machines, and serverless functions all require protection.

Key considerations include:

  • Vulnerability management
  • Secure configuration baselines
  • Patch management
  • Runtime protection
  • Container image scanning
  • Secure software development practices

Monitoring and Detection

Visibility is essential.

Effective monitoring includes:

  • Centralised logging
  • Security Information and Event Management (SIEM)
  • Threat intelligence
  • Behaviour analytics
  • Security alerts
  • Incident response workflows

You cannot protect systems you cannot observe.

Governance and Compliance

Governance provides consistency.

This includes:

  • Security standards
  • Policy management
  • Risk assessments
  • Audit controls
  • Regulatory compliance
  • Change management

Governance ensures security scales alongside the organisation.

Reference Architecture

A simplified cloud security architecture might resemble:

+--------------------------------+
|         End Users              |
+---------------+----------------+
                |
                v
+--------------------------------+
| Identity Provider / MFA        |
+---------------+----------------+
                |
                v
+--------------------------------+
| Application Gateway / WAF      |
+---------------+----------------+
                |
                v
+--------------------------------+
| Application Services           |
+---------------+----------------+
                |
     +----------+----------+
     |                     |
     v                     v
+---------+         +-------------+
| Logging |         | Databases   |
|  SIEM   |         | Encrypted   |
+---------+         +-------------+
     |
     v
+--------------------------------+
| Security Operations            |
+--------------------------------+

Each layer contributes to the overall security posture.

Security Layers in Practice

Cloud security should be viewed as a collection of overlapping protections.

+------------------------------+
| Governance & Compliance      |
+------------------------------+
| Monitoring & Detection        |
+------------------------------+
| Data Protection              |
+------------------------------+
| Application Security         |
+------------------------------+
| Identity & Access Control    |
+------------------------------+
| Network Security             |
+------------------------------+
| Cloud Infrastructure         |
+------------------------------+

Technology changes rapidly, but layered security remains a constant principle.

Common Threats

Common cloud security threats include:

  • Credential theft
  • Misconfigured storage
  • Publicly exposed services
  • Excessive permissions
  • API abuse
  • Supply-chain attacks
  • Insider threats
  • Ransomware
  • Data exfiltration

Most incidents involve a combination of technical weaknesses and process failures.

Design & Architecture Considerations

Scalability

Security controls must scale automatically alongside cloud resources.

Security by Design

Security should be included during system design, not added later.

Automation

Manual security processes become unsustainable at scale.

Automate:

  • Policy enforcement
  • Compliance checks
  • Vulnerability scanning
  • Configuration validation
  • Incident response workflows

Resilience

Assume compromise is possible.

Architect systems to:

  • Detect rapidly
  • Limit damage
  • Recover efficiently

Maintainability

The most secure architecture is not always the best architecture if it cannot be maintained operationally.

Operational Lifecycle

Build

  • Define requirements
  • Design security controls
  • Establish standards

Deploy

  • Apply Infrastructure as Code
  • Validate configurations
  • Perform security testing

Operate

  • Monitor continuously
  • Respond to incidents
  • Review permissions

Improve

  • Audit regularly
  • Review lessons learned
  • Update standards

Retire

  • Archive required data
  • Remove access
  • Destroy obsolete resources securely

Common Pitfalls

  • Treating cloud security as purely a network problem
  • Granting excessive permissions
  • Ignoring governance
  • Failing to monitor logs
  • Relying entirely on default configurations
  • Neglecting backup validation
  • Assuming compliance equals security

These problems are frequently more dangerous than sophisticated attacks.

Troubleshooting & Diagnostics

When investigating potential security issues:

Access Problems

Check:

  • Identity provider logs
  • Conditional access policies
  • Role assignments
  • MFA status

Network Issues

Check:

  • Firewall rules
  • Security groups
  • Routing tables
  • DNS configuration

Data Access Issues

Check:

  • Encryption settings
  • Key permissions
  • Storage access policies
  • Audit logs

Suspicious Activity

Review:

  • Authentication events
  • Administrative actions
  • Configuration changes
  • Network flows
  • SIEM alerts

Future Trends

Cloud Security Architecture continues evolving towards:

  • Zero Trust architectures
  • Passwordless authentication
  • AI-assisted threat detection
  • Continuous compliance validation
  • Confidential computing
  • Identity-centric security
  • Secure multi-cloud governance

The overall direction is clear: security is becoming increasingly automated, identity-driven, and integrated directly into platform operations.

Related Topics

References

  • NIST Cybersecurity Framework
  • NIST Zero Trust Architecture
  • ISO 27001
  • ISO 27017
  • CIS Controls
  • Microsoft Cloud Adoption Framework
  • AWS Well-Architected Framework
  • Cloud Security Alliance Guidance