Terraform Compliance Audits for AWS Cloud Governance

blog post illustration of asset inventory

Cloud usage is growing fast, but so are the challenges that come with it. According to the Flexera 2024 State of the Cloud Report, 89% of organizations now use multiple cloud providers. At the same time, 81% of businesses struggle with managing their security and cloud governance. Without strong governance, organizations risk a lot of security breaches, compliance failures, and unexpected costs at the same time. One example of poor cloud governance is the Capital One data breach in 2019, where a misconfigured AWS S3 bucket exposed over 100 million customer records. Misconfigurations like this are among the top causes of cloud security failures. They happen because policies are either missing or not enforced properly. This is where compliance audits come in. By defining governance policies in code, organizations can automate security checks, prevent misconfigurations, and ensure compliance in AWS environments.

What is Cloud Governance?

Cloud governance is the set of rules and controls that organizations use to manage cloud resources efficiently. These rules ensure that every resource follows security, compliance, and operational standards. Without governance, AWS environments can quickly become disorganized, and non-compliant.

Risks of Poor Cloud Governance

Without a governance framework, misconfigurations and security gaps can easily go unnoticed by your teammates. Some common risks include:

  • Overly Permissive IAM Policies – Users and services may have more access than necessary, increasing security risks.
  • Uncycd Storage – Publicly accessible S3 buckets or unencrypted EBS volumes may expose sensitive data.
  • Weak Network Security – Poorly configured security groups and VPC rules can expose cloud resources to the internet.
  • Compliance Failures – Without continuous monitoring, resources may drift away from industry standards like CIS, NIST, PCI-DSS, and ISO 27001.

Governance gaps often go unnoticed until an audit or a breach occurs. A single misconfiguration can lead to a major security incident, making continuous enforcement essential.

The Role of Compliance Audits in Enforcing Governance Standards

A compliance audit is a structured process to check if cloud environments follow security and regulatory policies. These audits help organizations:

  • Detect Misconfigurations Early – Regular checks help identify security risks before they are exploited.
  • Ensure Compliance with Industry Standards – Frameworks like SOC 2, HIPAA, and GDPR require strict security policies. Compliance audits verify adherence.
  • Prevent Configuration Drift – Infrastructure may change over time. Audits ensure that cloud resources stay aligned with security baselines defined by the organization.

Manual audits require security teams to inspect cloud configurations at regular intervals, comparing them against compliance standards. This process often leads to inconsistencies, as different teams may interpret policies differently or miss configuration drifts. Terraform eliminates these inconsistencies by automating compliance checks, enforcing security baselines, and ensuring that infrastructure remains aligned with governance policies across all deployments.

Defining Cloud Governance Policies with Terraform

Cloud environments require well-defined governance policies to maintain security, enforce compliance, and prevent misconfigurations. Without strict policy enforcement, AWS environments can become fragmented, introducing security risks and operational inconsistencies. Terraform provides a way to codify governance policies, ensuring they are consistently applied across all infrastructure deployments. Governance policies in AWS typically focus on identity and access management (IAM), storage security, and network security. Each of these domains plays a crucial role in enforcing security best practices. Let’s examine how Terraform helps implement and enforce these governance policies at scale.

IAM Policies: Enforcing Least Privilege Access

IAM is the foundation of cloud security, controlling who can access resources and what actions they can perform. Over-permissioned IAM policies are a major security risk, often leading to privilege escalation and unauthorized data access. Enforcing the principle of least privilege (PoLP) ensures that identities only have the minimal permissions required to function. Terraform allows organizations to define IAM policies programmatically, ensuring uniform enforcement across environments. A common security requirement is restricting access to S3 buckets by assigning read-only permissions to a specific IAM role.

Effect   = “Allow” Action   = [“s3:GetObject”] Resource = “arn:aws:s3:::my-cyc-bucket/*”

By defining IAM policies as code, Terraform eliminates the risks associated with manual misconfiguration and overly permissive access controls. This approach makes sure that the IAM best practices are consistently enforced across all AWS accounts.

Storage Governance: Securing S3 and Enforcing Encryption

Misconfigured storage is one of the leading causes of data breaches in the cloud. Publicly accessible S3 buckets, unencrypted storage, and missing logging mechanisms can expose sensitive information. Terraform allows organizations to enforce storage security policies at the infrastructure level. S3 bucket policies can be configured to block public access, ensuring that no accidental exposure occurs. Encryption can also be enforced to protect data at rest, ensuring compliance with CIS, PCI-DSS, and NIST standards.

block_public_acls   = true block_public_policy = true restrict_public_buckets = true

By integrating these storage policies into Terraform modules, security teams can standardize encryption and access policies across multiple environments, eliminating manual errors and enforcing compliance from the start.

Network Governance: Restricting Traffic and Enforcing VPC Security

Unrestricted network access poses a significant security threat in AWS environments. Misconfigured security groups, network ACLs (NACLs), and VPC peering rules can expose resources to the public internet, increasing the attack surface. Terraform enables teams to define security group rules as part of infrastructure deployments, ensuring that only authorized traffic flows into cloud workloads. If an organization wants to allow SSH access only from a trusted IP address, this can be enforced at deployment.  

from_port   = 22 to_port = 22 protocol = “tcp” cidr_blocks = [“203.0.113.0/32”]

  By defining network policies in Terraform, organizations prevent open security groups, enforce zero-trust network segmentation, and eliminate the risk of accidental exposure of some important services.

Scaling Governance Policies with Terraform

Manually managing security policies across multiple AWS accounts and environments introduces inconsistency and risk. Terraform provides a way to standardize governance policies, ensuring that security configurations remain declarative, version-controlled, and reproducible. By integrating Terraform with CI/CD pipelines, organizations can enforce security policies before deployment, preventing misconfigurations from ever reaching production. Terraform can also be used with AWS Config to detect configuration drift, alerting teams when resources deviate from the approved governance baseline. Effective governance requires continuous enforcement, real-time monitoring, and automated remediation. By using Terraform to manage IAM, storage, and network policies, organizations can proactively cyc their AWS environments, enforce compliance at scale, and eliminate any kind of security gaps within the infra.

Automating Compliance Audits Using Terraform

Manually auditing cloud environments for compliance is inefficient, prone to errors, and difficult to scale. Security teams often rely on periodic reviews to identify misconfigurations, but by the time these audits are completed, the infrastructure may have already drifted away from compliance standards. Terraform addresses this challenge by automating compliance audits, ensuring that governance policies are continuously enforced and deviations are detected early. Compliance frameworks like CIS, NIST, and PCI-DSS provide security benchmarks that organizations must follow to cyc their cloud environments. Terraform enables teams to define these governance policies as code and validate infrastructure configurations against them. By integrating Terraform with AWS services like AWS Config, organizations can automatically detect and remediate non-compliant resources, reducing the risk of security incidents.

Defining Compliance Checks in Terraform

The first step in automating audits is defining compliance baselines in Terraform. These baselines outline the required configurations for cloud resources, ensuring that security policies are applied consistently across deployments. For example, a compliance rule might state that all S3 buckets must be encrypted and block public access by default. Terraform can enforce this by defining security policies at the infrastructure level.  

block_public_acls   = true block_public_policy = true restrict_public_buckets = true

  By applying these policies at deployment, Terraform prevents security misconfigurations before they happen, ensuring that infrastructure always meets compliance requirements.

Terraform’s Declarative Approach to Governance Audits

Terraform follows a declarative model, meaning infrastructure is defined in code and any deviations from the expected state are flagged. This makes it easier to enforce governance policies, as Terraform continuously compares the actual infrastructure state with the desired configuration. With the Terraform plan, teams can preview infrastructure changes before applying them. If a change violates compliance policies – such as enabling public access on an S3 bucket – Terraform will flag it, preventing accidental misconfigurations. This approach acts as an automated security check, ensuring that governance rules are followed throughout the infrastructure lifecycle.

Integrating AWS Config with Terraform for Continuous Monitoring

While Terraform helps enforce governance at deployment, AWS Config ensures that compliance is maintained over time. AWS Config continuously monitors AWS resources and detects any drift from security baselines. When integrated with Terraform, AWS Config can automatically trigger alerts or remediation actions when a resource becomes non-compliant. For example, if an S3 bucket’s encryption setting is disabled, AWS Config can detect the change, and Terraform can be used to automatically reapply the correct security settings.

resource “aws_config_config_rule” “s3_encryption_check” { name = “s3-encryption-check” source { owner = “AWS” source_identifier = “S3_BUCKET_SERVER_SIDE_ENCRYPTION_ENABLED” } }

By using AWS Config alongside Terraform, organizations can maintain compliance across AWS environments, detecting and correcting misconfigurations in real time.

Generating Governance Compliance Reports with Terraform

Governance audits often require detailed reporting to demonstrate compliance with regulatory frameworks. Terraform outputs can be used to generate compliance reports, providing visibility into security controls and infrastructure state. Terraform can output a list of non-compliant resources, allowing security teams to track violations and remediate them efficiently.

output “non_compliant_resources” { value = aws_config_config_rule.s3_encryption_check.arn }

  These reports can be integrated into security dashboards, helping organizations maintain transparency and track compliance trends over time.

Proactive Compliance Auditing with Terraform

By automating compliance checks with Terraform, organizations move from a reactive to a proactive approach in cloud governance. Instead of waiting for audits to uncover security gaps, Terraform ensures that compliance policies are enforced before deployment and continuously monitored after deployment. With a combination of policy-as-code, AWS Config, and automated reporting, Terraform enables organizations to maintain a cyc, compliant, and well-governed AWS environment at scale.

Hands-On: Implementing Cloud Governance with Terraform

Governance policies ensure that cloud environments remain cyc, compliant, and well-structured. However, defining policies alone is not enough – these rules must be enforced at every stage of infrastructure deployment. Terraform enables organizations to implement governance controls as code, ensuring that security policies are applied consistently across all AWS environments. This section focuses on setting up Terraform for governance enforcement, applying IAM policies to restrict access, securing S3 storage, enforcing network security rules, integrating AWS Config for compliance monitoring, and generating governance audit reports. By the end of this implementation, Terraform will automate governance policies, detect any deviation from security baselines, and ensure that AWS resources remain compliant.

Setting Up Terraform for Governance Enforcement

Before applying governance policies, Terraform needs to be configured to interact with AWS. The first step is to verify AWS authentication by running:  

aws sts get-caller-identity

  This command confirms the authenticated AWS account and user details. A successful response should return output similar to:    authenticated aws account Once authentication is confirmed, Terraform must be initialized to prepare the environment for infrastructure provisioning. Running the terraform init command installs required provider plugins and ensures Terraform is ready to apply governance policies. With Terraform set up, governance policies can now be applied to enforce security standards across AWS resources.

Enforcing IAM Policies with Terraform

Identity and Access Management (IAM) controls who can access cloud resources and what actions they can perform. Overly permissive IAM policies increase security risks, making it crucial to follow the principle of least privilege. Terraform allows IAM policies to be defined as code, ensuring uniform enforcement across environments. To restrict access to an S3 bucket, a policy can be defined that allows only read-only permissions. This prevents unauthorized modifications while ensuring data accessibility.

resource “aws_iam_policy” “s3_read_only” { name    = “S3ReadOnlyAccess” description = “Provides read-only access to S3″policy = jsonencode({ Version = “2012-10-17”, Statement = [ { Effect   = “Allow”, Action   = [“s3:GetObject”], Resource = “arn:aws:s3:::prod-data-cyc/*” } ] }) }

  Applying this policy ensures that users can retrieve objects from the bucket but cannot modify or delete them. The policy is enforced by running terraform apply command. Verification can be done by listing IAM policies to check if the new policy exists:

aws iam list-policies –query “Policies[?PolicyName==’S3ReadOnlyAccess’]”

A properly applied policy returns output similar to: applied policy

Securing S3 Buckets and Enforcing Encryption

Publicly accessible S3 buckets and unencrypted storage create vulnerabilities that can lead to data breaches. Terraform ensures that all S3 buckets are encrypted and block public access by default. A governance-compliant bucket configuration includes encryption enforcement and access restrictions.

resource “aws_s3_bucket” “cyc_bucket” { bucket = “org-finance-data” }resource “aws_s3_bucket_server_side_encryption_configuration” “cyc_bucket_encryption” { bucket = aws_s3_bucket.cyc_bucket.id rule { apply_server_side_encryption_by_default { sse_algorithm = “AES256” } } } resource “aws_s3_bucket_public_access_block” “bucket_block” { bucket              = aws_s3_bucket.cyc_bucket.id block_public_acls   = true block_public_policy = true restrict_public_buckets = true }

After running the terraform apply command, the security status of the bucket can be verified using the AWS CLI:

aws s3api get-public-access-block –bucket org-finance-data

A properly cycd bucket returns:

Enforcing Network Security with Terraform

Security groups play a crucial role in restricting network access. Misconfigured security groups can expose services to the public internet, making them vulnerable to unauthorized access. To enforce network security, Terraform can define strict inbound and outbound rules. For SSH access, the following configuration allows connections only from a specific trusted IP:

resource “aws_security_group” “restricted_sg” { name    = “restricted_ssh” description = “Allows SSH access only from trusted IP” vpc_id  = aws_vpc.main.idingress { from_port   = 22 to_port = 22 protocol = “tcp” cidr_blocks = [“192.168.1.100/32”] } egress { from_port   = 0 to_port = 0 protocol = “-1” cidr_blocks = [“0.0.0.0/0”] } }

Applying the configuration ensures that only the specified IP can connect via SSH. Running the following command confirms the security group’s configuration:

aws ec2 describe-security-groups –group-ids sg-0123abcd5678efgh9

Expected output: expected output

Integrating AWS Config for Governance Monitoring

AWS Config helps detect configuration drift and ensures that resources remain compliant with governance rules. Terraform can define a compliance rule to check if all S3 buckets are encrypted.

resource “aws_config_config_rule” “s3_encryption_check” { name = “s3-encryption-check” source { owner         = “AWS” source_identifier = “S3_BUCKET_SERVER_SIDE_ENCRYPTION_ENABLED” } }

Once deployed, AWS Config will monitor encryption settings in real time. Compliance status can be checked using:

aws configservice describe-compliance-by-config-rule –config-rule-name s3-encryption-check

If all buckets comply, the response will show: all buckets comply By implementing these governance policies with Terraform, security and compliance enforcement become an automated, integral part of cloud infrastructure. IAM restrictions, S3 encryption, and network security controls make sure that AWS environments remain protected. With AWS Config monitoring configuration drift, governance becomes a continuous process rather than a reactive measure. This approach ensures that misconfigurations are prevented before they become security risks, maintaining a cyc cloud environment at all times.

Best Practices for Continuous Cloud Governance

Implementing governance policies with Terraform ensures a cyc cloud environment, but following best practices strengthens compliance, reduces misconfigurations, and prevents security drift.

Version-Control Governance Policies

Storing Terraform configurations in Git allows teams to track changes, enforce approvals, and maintain an audit trail. Using branching strategies, such as GitFlow, prevents unauthorized modifications to governance rules.

Secure Terraform State Files

Terraform state files contain sensitive information, including IAM roles, database credentials, and networking details. Enabling encryption for state files and using remote storage solutions like AWS S3 with state locking in DynamoDB makes sure that state files are not tampered with or accessed unintentionally.

Conduct Regular Compliance Audits

Infrastructure changes, whether intentional or accidental, can introduce misconfigurations. Automating compliance checks using AWS Config and Terraform plan ensures that deviations from governance baselines are identified and corrected early.

Integrate Terraform into CI/CD Pipelines

Running terraform validate and terraform plan as part of the pipeline ensures that changes adhere to security policies before reaching production. Combining Terraform with policy-as-code tools like Open Policy Agent (OPA) further strengthens governance by enforcing predefined rules within pipelines. Making sure that every infrastructure change adheres to governance policies is often difficult. Many security teams rely on manual checks, pre-deployment security reviews, and post-deployment audits to enforce compliance. While these methods can identify misconfigurations, they introduce delays and inconsistencies. A common challenge in governance enforcement is the lack of real-time validation. Organizations often detect non-compliant configurations only after resources are already deployed, leading to costly rollbacks and security risks. Without a centralized mechanism to enforce security, IAM, and networking policies before deployment, teams struggle with operational inefficiencies and increased exposure to misconfigurations. One approach to address this challenge is to integrate compliance checks into Terraform workflows. Security teams write custom validation scripts that run during the Terraform execution process, scanning configurations for policy violations. While this method improves governance, it introduces complexity. These scripts must be maintained, updated as security policies evolve, and integrated into CI/CD pipelines. Additionally, enforcement varies across teams, as different engineers may interpret policies differently.

Enforcing Cloud Governance with Cycloid Infra Policies

Cycloid’s Infra Policies simplify governance enforcement by providing a centralized, automated approach to policy validation. Rather than relying on custom scripts, like running OPA commands repeatedly or waiting for team members to review your configurations, Cycloid allows DevOps teams to define governance rules as code. These policies are then automatically enforced during the Terraform plan execution, preventing misconfigurations before they make it to production. The first step in implementing governance policies with Cycloid is to create an Infra Policy in the Cycloid console. Navigate to Security -> InfraPolicies, where teams can define policy rules to enforce compliance standards.   cycloid setting   These policies are written in Rego, and in the image below, you can see an example of a Rego policy that stops deployment if the resource cost exceeds the defined limit. With this policy in place, Cycloid will block the deployment right at the Terraform plan stage. cost threshold For more examples of how to write InfraPolicies in Rego in Cycloid’s Infrapolicy, refer to the documentation. Once the policy is created, Cycloid validates infrastructure changes. However, before this happens, you need to go to the project and environment sections in Cycloid and then fill out the resource details, such as the bucket name and region if you’re creating a new S3 bucket. This step makes sure that Cycloid can evaluate your infrastructure configurations properly. aws cloud provider In order to use InfraPolicy within the pipeline, you’ll need to configure the cycloid-resource resource within your pipeline as follows:  

– name: cycloid-resource type: registry-image source: repository: cycloid/cycloid-resource tag: latest

  After this, you need to configure the InfraPolicy resource:  

– name: infrapolicy type: cycloid-resource source: feature: infrapolicy api_key: ((cycloid_api_key)) api_url: ((cycloid_api_url)) env: ((env)) org: ((customer)) project: ((project))

  This configuration will link the InfraPolicy to your pipeline and enable policy enforcement during Terraform deployment. The important step comes when you use the put step, which makes sure that the policy is checked before the deployment proceeds:  

– put: infrapolicy params: tfplan_path: tfstate/plan.json

  When this is set up, if any policy violation is detected, Cycloid will block the deployment right at the Terraform plan stage, preventing non-compliant resources from being provisioned. This makes sure that any infra changes that do not meet the governance rules are stopped early within the pipeline. For more information on integrating Cycloid InfraPolicy, refer to the Cycloid Resource GitHub repository. The effectiveness of this approach becomes clear when reviewing the Terraform execution pipelines in Cycloid. During the pipeline run, you’ll immediately see if the configuration aligns with governance policies. If all rules are met, the deployment proceeds. If any rule is violated, Cycloid halts the process and provides detailed feedback on what went wrong. terraform plan config This proactive policy enforcement reduces the risk of misconfigurations slipping through and removes the need for manual post-deployment audits. With Cycloid, governance is built into the deployment process, making it seamless and reliable. Cycloid Infra Policies ensure that governance enforcement isn’t an afterthought but an integral part of the infrastructure lifecycle. By defining policies centrally and enforcing them automatically, organizations can scale security best practices across teams without increasing operational overhead. This structured approach helps improve compliance, reduces errors, and allows DevOps teams to focus on delivering stable, secure infrastructure. Cycloid doesn’t stop at just InfraPolicy for governance. With its comprehensive cloud governance solutions, Cycloid enables you to manage everything from security and cost control to compliance at a large scale. For more information, check out Cycloid’s Cloud Governance solutions.

Conclusion

Now, you should have a clear understanding of how Terraform automates governance, enforces compliance, and prevents misconfigurations. Integrating policy checks early ensures cyc, auditable, and compliant cloud environments.

Frequently Asked Questions

1. Which AWS Cloud Service Enables Governance Compliance, Operational Auditing, and Risk Auditing of Your AWS Account?

AWS CloudTrail is the primary service that enables governance, compliance, operational auditing, and risk auditing of AWS accounts. It continuously records AWS API calls, providing visibility into user activity across AWS services. CloudTrail logs include details such as the identity of the caller, the time of the API call, the source IP address, and the request parameters. These logs help monitor changes, detect unusual activities, and ensure compliance with internal security policies and external regulations like GDPR, HIPAA, and SOC 2.

2. Which AWS Service Continuously Audits AWS Resources and Enables Them to Assess Overall Compliance?

AWS Config is a managed service that continuously audits and assesses the configuration of AWS resources to ensure they comply with security best practices and governance policies. It tracks configuration changes in resources such as EC2 instances, security groups, IAM roles, and S3 buckets, maintaining a historical record of configurations.

Organizations use AWS Config to:

  • Assess compliance with industry standards such as PCI-DSS, NIST, ISO 27001, and CIS benchmarks.
  • Detect misconfigurations and remediate them using AWS Config Rules and AWS Systems Manager.
  • Monitor resource relationships and dependencies for better visibility into infrastructure changes.

3. Which AWS Service Supports Governance, Compliance, and Risk Auditing of AWS Accounts?

AWS Audit Manager is a fully managed service that simplifies compliance assessments and risk auditing by automating the collection of evidence across AWS resources.

The key capabilities of AWS Audit Manager include:

  • Automated compliance reporting for frameworks such as SOC 2, ISO 27001, PCI-DSS, GDPR, and HIPAA.
  • Continuous evidence collection to track user activity, resource changes, and security configurations.
  • Customizable assessment frameworks to align with internal governance policies.

Organizations use Audit Manager to simplify compliance processes, reduce manual effort in audits, and ensure that security controls are continuously monitored and assessed.

4. What Are Governance, Risk, and Compliance in Cloud Computing?

Governance, Risk, and Compliance (GRC) in cloud computing refers to a structured framework that helps organizations:

  • Governance: Define policies and enforce best practices to ensure secure and efficient use of cloud resources. This includes identity and access management, cost control, and operational policies.
  • Risk Management: Identify, assess, and mitigate security risks, misconfigurations, and potential breaches by implementing proactive security controls.
  • Compliance: Ensure that cloud infrastructure adheres to regulatory requirements such as GDPR, HIPAA, SOC 2, and ISO 27001, and that cloud workloads meet industry standards.

AWS provides several GRC tools, including AWS Organizations, AWS Control Tower, AWS Security Hub, AWS CloudTrail, and AWS Audit Manager, to help enterprises implement a robust GRC strategy.

5. What is the Cloud Governance Structure in Cloud Service Management?

Cloud governance structure refers to the policies, roles, responsibilities, and best practices that define how cloud environments are managed and secured. It ensures that an organization maintains control over cloud resources while staying compliant with industry regulations.

A strong cloud governance structure includes:

  • Identity and Access Management (IAM): Defining roles, permissions, and least-privilege access policies.
  • Security Policies and Compliance Frameworks: Enforcing standards like CIS, NIST, PCI-DSS, and automated compliance monitoring.
  • Resource Management and Cost Control: Implementing budget controls, cost allocation tags, and reserved capacity planning.
  • Continuous Monitoring and Auditing: Using services like AWS Security Hub, AWS Config, CloudTrail, and GuardDuty to detect anomalies and maintain security posture.

How IDPs Make Software Development Easier

IDP blog post image

What if you could deploy without having to fight cloud configurations, security groups, and Terraform scripts? Developers are responsible for writing application code, testing features, and deploying services, but a large portion of their time is also spent on infrastructure tasks. This means that instead of focusing on delivering new features or optimizing application performance, they often get pulled into provisioning compute instances for their workloads, configuring security groups for networking, and debugging failed deployments within CI/CD pipelines. These tasks require deep knowledge of cloud platforms like AWS, GCP, and Azure, and an understanding of security policies such as IAM role management and VPC configurations, alongside familiarity with automation tools like Terraform, Ansible, and CloudFormation. As a result, managing infrastructure becomes a bottleneck for most teams, slowing down development cycles. Developers need infrastructure to deploy new software or applications, run automated test environments, or scale workloads during traffic spikes. However, setting up infrastructure manually through Terraform scripts, CLI commands, or cloud consoles takes significant time and effort. While DevOps teams support these requests, the volume of infrastructure needs grows as development teams scale. Over time, the increasing demand for new environments, databases, and networking changes overloads DevOps teams, delaying infrastructure availability and slowing down deployments. This is where Internal Developer Platforms (IDPs) come in. An Internal Developer Platform (IDP) is a layer between developers and infrastructure that automates resource provisioning, standardizes deployments, and enforces security policies. It provides a structured platform where developers can deploy applications without manually configuring cloud resources, networking, or access control. Instead of repeatedly writing the same Terraform code for provisioning infrastructure that has likely been written multiple times within the team, organization, and even externally, developers interact with an IDP’s predefined workflows, templates, and APIs. This allows them to request and deploy infrastructure on demand without managing configurations manually, and removes dependencies on DevOps teams, ensures consistency across environments, and speeds up the entire software delivery process. IDPs also address major developer pain points:

  • Discoverability: Developers often struggle to find existing software or services, identify their owners, and access relevant documentation. This leads to duplicated efforts and wasted time, especially in large engineering teams working across multiple applications. IDPs solve this by providing a centralized service catalog where backend, frontend, and platform engineering teams can access all infrastructure components, environments, and tools in one place.

For example, without an IDP, a backend team might build a new authentication service, unaware that the security team has already developed a similar solution. With a structured platform, developers can quickly locate what they need, reducing redundancy and ensuring teams reuse existing services instead of rebuilding them from scratch.

  • Self-Service: Without an IDP, developers often need to wait for DevOps teams to manually provision resources, leading to bottlenecks and delays in development cycles. IDPs introduce self-service capabilities by providing pre-configured infrastructure templates and automated workflows. For instance, instead of submitting a request for a Kubernetes cluster and waiting for DevOps to set it up, a developer can select a pre-approved cluster template and deploy it instantly through a self-service portal. This not only accelerates development but also ensures that infrastructure follows security and compliance policies without requiring manual intervention.
  • Simplified Developer Experience: Managing deployments, tracking logs, and configuring services often requires developers to switch between multiple tools, leading to inefficiencies and context switching. IDPs centralize these functions into a single interface where developers can monitor deployments, manage configurations, and troubleshoot issues without needing to access multiple cloud dashboards.

For example, instead of logging into AWS CloudWatch for logs, Terraform for infrastructure changes, and Jenkins for pipeline execution, developers can access all relevant data within the IDP’s unified dashboard, improving efficiency and reducing cognitive load.

What is an Internal Developer Platform?

Now that we know managing infrastructure manually slows down software development and adds extra work for DevOps teams, the next step is understanding how Internal Developer Platforms solve this problem. Instead of developers spending time provisioning compute instances, setting up networking, or fixing failed deployments, an IDP automates these tasks and provides a structured way to deploy applications. An IDP sits between developers and cloud services, handling infrastructure provisioning, security enforcement, and deployment automation. Whether it’s creating EC2 instances, managing IAM roles, or setting up Kubernetes clusters, the IDP ensures these tasks follow standardized workflows and security policies so developers don’t have to configure everything manually. If you were to build an IDP from scratch using Backstage, you would quickly realize that Backstage alone does not provide infrastructure automation. It is a framework for creating an internal developer portal, but it does not include native capabilities for provisioning infrastructure, managing CI/CD, or enforcing security policies. To turn Backstage into a fully functional IDP, you would need to integrate ArgoCD or Flux for CI/CD, Prometheus or OpenTelemetry for monitoring, and Crossplane to define CRDs and manage infrastructure as code. Even with plugins like the ArgoCD plugin, it only provides insights into deployments; it does not manage workflows independently. Beyond tooling, a custom-built IDP using Backstage would require extensive API integrations and automation to bridge gaps between different systems. Without these additions, Backstage remains a developer portal, not an IDP. Organizations that choose to build an IDP on top of Backstage must account for the time, resources, and maintenance required to manage integrations, ensure security compliance, and continuously improve the platform. In short, purpose-built IDPs offer these capabilities out of the box, reducing complexity and operational overhead.

Key Features of an IDP

Now, an IDP simplifies infrastructure management by automating provisioning, enforcing security policies, and integrating with DevOps workflows. Unlike a CI/CD pipeline that focuses only on code deployment, an IDP handles infrastructure setup, access control, and observability, making sure it is a simple development and operations process.

Infrastructure as Code for Automation

Manages infrastructure through code-based templates, eliminating manual setup and ensuring consistency.

  • IDPs integrate with Terraform, OpenTofu, Ansible, Helm, and eventually Pulumi to automate resource provisioning. With Kubernetes as a core component, test environments can be deployed using Helm, streamlining application deployments in a structured and repeatable manner.
  • Infrastructure is defined as code, ensuring consistency across deployments.
  • Developers select pre-configured templates instead of writing infrastructure code from scratch.
  • Version control ensures that changes can be tracked, rolled back, and audited.

CI/CD Pipelines for Deployment

Automates application builds, testing, and deployments, reducing manual work and errors.

  • IDPs integrate with CI/CD tools through APIs, webhooks, and plugins. They trigger pipeline executions, enforce policies, and manage infrastructure provisioning automatically.
  • Code changes trigger automated build, test, and deployment pipelines.
  • Developers don’t need to configure CI/CD workflows – they use pre-built templates that ensure best practices.

Role-Based Access Control for Security

Controls who can modify infrastructure and deploy applications, enforcing strict access policies.

  • Only authorized users can modify infrastructure or trigger deployments.
  • Permissions can be set at different levels – project, service, or environment-based access.
  • Security policies ensure compliance with organizational standards and industry regulations.

By integrating automation, security, and monitoring into one centralized platform, IDPs help teams deploy their applications much faster while ensuring security and compliance at the same time.

Why Are More Organizations Using IDPs?

Managing your cloud infrastructure isn’t as simple as spinning up an EC2 instance or deploying an application. As organizations scale, their infrastructure and environment management become more complex – multiple cloud providers, containerized applications, strict security policies, and interconnected services. Developers need fast access to resources, but setting up environments manually slows them down and increases the chances of misconfigurations. Internal Developer Platforms solve these challenges by automating infrastructure tasks and enforcing standardized workflows across the development ecosystem. Here’s why more organizations are adopting IDPs:

Faster Development Cycles

Provisioning infrastructure manually can take hours or even days, depending on approval workflows and configuration steps. IDPs speed up the process by giving developers access to pre-approved infrastructure setups.

  • Developers can provision virtual machines, databases, and networking resources instantly instead of waiting for DevOps approvals.
  • Automated CI/CD pipelines ensure applications are tested and deployed consistently.
  • Pre-configured templates remove inconsistencies, making sure every environment is deployed the same way.

Lower Operational Costs

Manually handling infrastructure requests puts a heavy load on DevOps teams, increasing operational costs. IDPs automate infrastructure provisioning, allowing developers to self-serve resources without relying on any manual intervention.

  • Developers can deploy applications without waiting for DevOps to set up environments, reducing downtime.
  • IDPs offer cost estimation tools, helping teams see expected cloud expenses before deploying resources.
  • By automating infrastructure management, companies reduce the need for large DevOps teams, optimizing operational costs.

Real-World Impact of IDPs

Organizations that integrate IDPs see measurable improvements in efficiency, security and compliance standards, and cost savings.

  • 85% of organizations agree that investing in IDPs and improving Developer Experience (DevEx) directly contributes to revenue growth.
  • 77% of companies report a significant reduction in time-to-market due to centralized tooling, standardized workflows, and automated deployments.
  • IDPs help reduce redundant infrastructure tasks, allowing engineering teams to focus on high-value development instead of manual provisioning and troubleshooting.

By automating infrastructure management, enforcing security policies, and simplifying software delivery, IDPs help organizations scale faster while reducing operational overhead.

How Different IDPs Work

There are several internal developer platform examples in the industry, each designed to simplify your infrastructure management and application deployment. Not all Internal Developer Platforms work the same way. While they share the same goal – automating infrastructure provisioning, enforcing security policies, and simplifying deployments, their approaches vary. Some IDPs focus on stack-based deployments, where platform teams define reusable infrastructure components, while others offer UI-driven infrastructure automation, providing a visual interface for developers to configure resources without writing Terraform. Other platforms take an API-first approach, integrating directly into existing DevOps workflows.

Stack-based Deployments

One approach to IDPs is stack-based deployments, where infrastructure configurations are standardized and reused across multiple teams. Cycloid follows this model by allowing platform teams to define stacks for cloud services such as AWS EC2, RDS, and S3. Developers can then deploy these pre-configured stacks without worrying about networking, security groups, or storage configurations. To provide a visual representation of how Cycloid enables stack-based infrastructure management, the diagram below shows how predefined infrastructure stacks, reusable templates, and automated deployment workflows streamline infrastructure provisioning while ensuring governance, cost estimation, and policy enforcement. This works by using Infrastructure as Code, service catalogs, and orchestration layers:

  • Pre-defined IaC Modules – Platform teams create reusable infrastructure modules using Terraform, OpenTofu, Ansible, Helm, or Pulumi, defining compute, networking, and storage configurations.
  • Service Catalog & Parameterized Deployment – Developers select a predefined stack (e.g., AWS EC2 + RDS, Kubernetes cluster) from the IDP catalog, customizing parameters like instance type, VPC, and IAM roles.
  • Automated Provisioning via Workflow Orchestration – The IDP invokes Terraform or Pulumi execution through an automation engine (e.g., ArgoCD, Jenkins, or a custom workflow runner), applying infrastructure changes without manual intervention.
  • Built-in Policy & Security Enforcement – The IDP integrates with IAM, OPA, or custom rule engines to validate configurations, enforce RBAC, restrict unapproved changes, and ensure compliance with security standards before provisioning.

UI-driven Infrastructure Automation

Another approach is UI-driven infrastructure automation, which simplifies the provisioning process by allowing developers to select infrastructure components through an interactive interface. Instead of writing Terraform scripts or navigating complex Kubernetes configurations, developers can deploy resources with a few clicks. This model integrates with API-based automation, self-service interfaces, and cloud provisioning tools:

  • Visual Control Plane – Cycloid provides a web interface where users can configure cloud resources through an interactive UI instead of manually writing Infrastructure as Code configurations.
  • Service Catalog & API Calls – Behind the UI, pre-configured infrastructure templates (Terraform modules, Kubernetes manifests) are stored in a service catalog.
  • On-Demand Resource Provisioning – When a developer submits a request, the IDP makes API calls to cloud providers (AWS, GCP, Azure) or internal automation layers (Terraform Cloud, ArgoCD) to create infrastructure.
  • Self-Service with Governance – Role-based access control makes sure that only authorized developers can provision resources, and approval workflows can be enforced if needed.

The diagram below shows how UI-driven infrastructure automation enables self-service provisioning, graphical deployment workflows, and governance enforcement through a structured interface. Now, if you were to build an IDP from scratch using Backstage, several challenges would arise. While Backstage provides a framework for building an internal developer platform, it does not include infrastructure automation, security enforcement, or CI/CD management out-of-the-box. This means DevOps teams would need to integrate multiple tools and use custom plugins to make it a full-fledged IDP. Some of the limitations include:

  • Security & Governance Gaps – Backstage lacks built-in IAM, RBAC, and credential management, requiring custom authentication and policy enforcement integrations (e.g., OPA, Rego, or Terraform Sentinel)by default.
  • Lack of CI/CD Tracking & Observability – It has no native pipeline tracking, requiring additional plugins to fetch logs from GitHub Actions, GitLab CI, or ArgoCD to monitor deployments.
  • No Cost Estimation & FinOps Support – Cloud cost tracking isn’t built-in, meaning teams must integrate AWS Cost Explorer, GCP Billing API, or Azure Cost Management separately.
  • Manual Infrastructure Provisioning – No built-in Terraform or Kubernetes automation, requiring additional configurations and workflow automation.

Deploying an Application Using Cycloid

Cycloid easily eliminates these challenges by offering an all-in-one platform that includes stack-based infrastructure automation, security policies, observability, and cost tracking out-of-the-box. Instead of stitching together different tools, Cycloid provides a simple interface for deploying and managing your cloud infrastructure. Instead of writing Terraform from scratch or configuring cloud resources manually, developers can use pre-configured stacks to provision environments, define resources, estimate costs, and deploy applications, all through an automated workflow. The first step in this process is creating a stack. A stack in Cycloid defines the infrastructure resource that will be deployed, such as an AWS EC2 instance, an RDS database, or a Kubernetes cluster. This ensures consistency across deployments for development and operations teams and eliminates the need for developers to manage infrastructure configurations manually. By selecting a predefined stack, teams can enforce security policies, optimize resource allocation, and reduce the risk of misconfigurations. Once the stack is created, the next step is to set up a project. In the upcoming update to Cycloid, a project will serve as the top-level structure where teams can organize deployments more flexibly. Instead of a direct project-to-stack mapping, Cycloid is introducing a component layer, allowing teams to create a project, then define environments such as production or staging, and finally, components within those environments. Each component will utilize a stack, making it possible to compose an application project in an environment using multiple stacks. This enhancement provides greater modularity, enabling teams to manage infrastructure and applications more efficiently while maintaining clear separation between environments and services. The diagram below shows how Cycloid structures deployments with its new component layer. It highlights how projects, environments, and components are organized, with each component leveraging a stack to automate infrastructure provisioning and deployment. This model ensures flexibility by allowing applications to be composed across multiple stacks while maintaining a GitOps-based approach for consistency and governance. Now, developers assign security teams together, configure access permissions, and define environment configurations within the project. Instead of handling networking, IAM roles, or security groups separately, the project inherits these configurations from the stack, making sure that every deployment follows the same standards. With the project in place, developers can move on to setting up an environment. In the upcoming update to Cycloid, an environment (such as production or staging) will act as a structured layer within a project, where applications and infrastructure components are organized. Instead of binding an environment directly to a single stack, Cycloid’s new component layer will allow teams to define multiple components within an environment, each utilizing different stacks. This enhancement enables greater flexibility in managing infrastructure, making it possible to compose an application using several stacks within the same environment. When creating an environment, teams typically define its cloud provider and infrastructure setup based on the project’s requirements. With Cycloid’s upcoming component layer, environments can include multiple components, each leveraging different stacks to support various services within the same environment. This allows teams to flexibly compose applications across multiple cloud providers or infrastructure setups as needed. This flexibility makes sure that existing cloud resources can be reused while maintaining the option to define custom configurations when required. Cycloid automates Terraform execution, provisioning the required infrastructure without requiring developers to apply configurations manually. Cycloid handles everything from instance creation to networking and IAM role assignment, making deployments faster and error-free. Once the infrastructure is provisioned, the CI/CD pipeline takes over. Cycloid follows a GitOps-based approach, where all desired configurations are version-controlled in a Git repository, which serves as the source of truth for infrastructure and application deployments. Cycloid integrates automated pipelines that fetch Terraform configurations, validate infrastructure changes, and ensure deployments remain consistent with the declared state in Git. This ensures that every modification is auditable, reproducible, and aligned with the defined infrastructure state. To ensure clear visibility into deployments, Cycloid provides an Observability Dashboard that gives teams a real-time view of active, paused, and failed pipeline runs. This helps developers track Terraform execution, identify issues in their deployment process, and troubleshoot errors without switching between cloud provider dashboards.   By structuring deployments through stacks, projects, environments, and components, Cycloid’s IDP ensures that infrastructure provisioning is consistent, automated, and easily accessible to developers. This approach eliminates the complexity of manual setups, reduces DevOps workload, and accelerates application delivery. To explore Cycloid more as an IDP, refer to the documentation.

Conclusion

So far, we’ve seen how an IDP internal developer platform removes the complexity of delivering software and managing infrastructure. We explored different IDP models and how Cycloid’s stack-based approach allows developers to deploy applications without handling Terraform or cloud configurations manually. With an IDP in place, teams can ship code faster while keeping infrastructure secure and consistent.

Frequently Asked Questions

1. What is the Difference Between a Developer Platform and a Developer Portal?

A developer platform provides tools, automation, and infrastructure for building, deploying, and managing applications, while a developer portal is a centralized interface where developers can access tools, documentation, APIs, and internal services.

2. What is the Difference Between an Internal Developer Platform and a Devops Platform?

  An Internal Developer Platform (IDP) automates infrastructure provisioning and abstracts complexity for developers, while a DevOps platform focuses on CI/CD, collaboration, and automating the software development lifecycle.

3. What is an IDP Platform Used for?

An IDP simplifies infrastructure management by automating resource provisioning, enforcing security policies, and providing self-service deployment capabilities for developers.

4. What is the Difference Between an Internal Developer Platform and a Service Catalog?

An IDP automates infrastructure and integrates CI/CD workflows, while a service catalog provides a collection of pre-approved services that developers can request and deploy.

When should you adopt Platform Engineering?

If you’ve not been living under a rock for the last year and a half, chances are you’ve heard of Platform Engineering. The latest industry trend promises to do everything DevOps tried to do and failed, yet again: lighten your devs’ workload, improve DevX, skyrocket operational efficiency, and turn your projects into rivers of gold.

In truth, Platform Engineering continues the process DevOps started. With PE, leaders have an actionable plan to build toolchains and workflows that empower developers of any skill level with self-service capabilities. It’s an all-round solution that not only improves devs’ autonomy and collaboration, but also enhances resource management, and provides ecosystem and plug-in integration.

You see why it’s an extremely attractive proposition for IT departments – and a very daunting undertaking. After all, it takes nearly 3 years and 20 dedicated specialists to start seeing tangible results. And yet, Gartner predicts that by 2026, 80% of IT departments will adopt internal platform engineering teams. 

Obviously, you don’t want to be left behind, but does this mean you should join the race now? When should you adopt Platform Engineering?

Let’s look at the factors that mean your organization needs to consider platform engineering seriously.

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New ESRS: A Roadmap for Sustainable Cloud Reporting

On July 31st, 2023 the European Commission announced new sustainability reporting in the European Union. The European Sustainability Reporting Standards (ESRS) will change how European businesses (and companies that do business in the EU) are required to report on their sustainability and ESG.

The standards cover the full range of environmental, social, and governance issues, including climate change, biodiversity, and human rights. They also provide information for investors to understand the sustainability impact of the companies in which they invest. Here’s what the timeline looks like.

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It’s important to note that while these standards have been announced, they are not yet legally binding. However, they serve as a powerful indicator of the direction Europe is taking regarding business sustainability. It’s clear that the winds of change are blowing strongly in favor of greater transparency and responsibility in the corporate world. And we’re all for it!

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ESRS : ce que révèlent les nouvelles normes de durabilité numérique

Le 31 juillet 2023, la Commission européenne a annoncé une nouvelle forme de communication de données sur la durabilité au sein de l’Union européenne. Les normes ESRS (normes européennes de reporting sur la durabilité) vont bouleverser les habitudes en matière de communication de données des entreprises européennes (et de celles qui génèrent un chiffre d’affaires dans l’UE). En effet, elles devront répondre à des nouvelles prérogatives quant à leurs rapports sur la durabilité et la Responsabilité Sociétale des Entreprises (RSE).

Ces normes s’appliquent aux échelles environnementale, sociale, et de gouvernance, ce qui comprend le dérèglement climatique, la biodiversité et les droits humains. Elles permettent également d’informer les investisseurs au sujet des répercussions environnementales des entreprises auxquelles ils sont associés. Voici à quoi ressemble la chronologie de leur application.

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Il faut retenir que malgré l’annonce de ces normes, elles ne sont pas encore entrées en vigueur du point de vue du droit. Cependant, elles représentent une prise de position claire de la part de l’UE quant à la durabilité des entreprises. Un vent nouveau souffle sur le monde des affaires, et il est manifestement en faveur de plus de transparence et de responsabilité ; pour nous, il s’agit d’excellentes nouvelles !

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Le GreenOps : une approche indispensable

Compte tenu de la chaleur qui a étouffé l’Europe l’été dernier, il faut reconnaître que des mesures urgentes doivent être prises par tout le monde. Oui, tout le monde, pas seulement les gouvernements et les acteurs du secteur de l’énergie. L’univers des technologies informatiques ne déroge donc pas à la règle et a son propre rôle à jouer. Pour ceux d’entre nous qui travaillent dans ce secteur, ce rôle implique notamment l’adoption du GreenOps. Alors, en quoi consiste cette approche, et pourquoi le monde en a-t-il besoin?

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7 ICP du Platform Engineering à ne pas perdre de vue

Le Platform Engineering constitue une approche de plus en plus attractive dans le domaine de la livraison de logiciels, car elle présente des avantages tels qu’une mise en marché plus rapide, une satisfaction accrue chez les développeurs, et une augmentation de la synergie entre les équipes. Nous avons déjà écrit au sujet du Platform Engineering, en expliquant qu’il ne s’agit en fait pas d’une pratique inédite, et que le DevOps n’est pas devenu obsolète. Cependant, compte tenu du nombre d’entreprises qui ont eu du mal à générer de la valeur commerciale grâce au DevOps, ces dernières considèrent peut-être que la construction de plateformes numériques internes pour favoriser la livraison de logiciels est une stratégie qui permet de bénéficier de tous les bienfaits du DevOps.

Mais comment ne pas tomber dans le piège qui a empêché 80% des entreprises d’adopter le DevOps?

Notre conseil est le suivant : traitez votre plateforme comme vous traiteriez un produit interne, et les utilisateurs de votre plateforme comme vos clients. En l’occurrence, vos indicateurs de réussite, riches d’une touche de Platform Engineering, devraient être similaires à ceux employés pour vos clients.

Les objectifs fondamentaux du Platform Engineering

Lorsque vous établissez vos indicateurs de réussite, assurez-vous de ne pas perdre de vue les buts de votre stratégie de Platform Engineering. Nous vous présentons les principaux objectifs des entreprises pour leurs équipes sur les plateformes, selon le rapport de 2023 sur l’état du DevOps.

L’éducation et l’émancipation des équipes de développeurs et de conception sont des priorités capitales pour les équipes de plateforme, et elles sont complétées par la vitesse d’itération et la sécurité des processus. Cette approche centrée sur le personnel doit se retrouver dans vos indicateurs de réussite. La réinvention des outils ne représente que la moitié de la tâche : vous devez également vous assurer que vos équipes ont bien maîtrisé l’utilisation des nouveaux systèmes. Les processus de rationalisation et d’automatisation inspirés par les meilleures pratiques de DevX favorisent la productivité générale de l’entreprise ainsi que sa démarcation sur le marché.

Les ICP du Platform Engineering

Selon le report mentionné plus haut sur l’état du Devops, la majorité des entreprises qui ont adopté le Platform Engineering ont constaté des améliorations aux niveaux suivants : fiabilité du système (60%), productivité et efficacité (59%), flux de travaux (57%), auxquelles s’ajoutent une amélioration du temps de développement pour 42% de ces sociétés.

La productivité

Compter le nombre de lignes de code produites par les développeurs sur une période de temps donnée est un indicateur dépassé, qui n’intéresse aujourd’hui que des profils comme Elon Musk. La productivité des développeurs est un sujet sensible, et bien que le Platform Engineering garantit l’accélération de la mise au point de logiciels, celle-ci ne s’opère pas en augmentant les rendus des développeurs.

L’idée, c’est plutôt de leur offrir les meilleures conditions de travail possibles. Pensez à tous les obstacles et contretemps que vos équipes doivent affronter au quotidien et à leur dépendance vis-à-vis des experts pour travailler correctement. Les déploiements d’infrastructures complexes, la création de nouveaux environnements et de fonctionnalités de livraison, sont quelques exemples qui nécessitent une intervention DevOps, ce qui ralentit inévitablement les processus. Les ICP centrés sur la rationalisation et la simplification du processus de livraison de logiciels devraient être votre priorité.

  • Délai de production

Il s’agit d’une mesure qui calcule le temps entre la mise en place du récit utilisateur et sa livraison. Ce temps comprend les discussions sur le récit utilisateur, l’attente dûe aux retards, et la durée entre la sélection du récit et sa distribution finale.

Si votre délai de production est trop long, c’est le signe d’un obstacle au niveau des processus, qui conduit à l’éternisation des retards. Automatiser tout ce qui peut l’être limitera votre délai de production, car il s’agit d’une preuve de la proactivité de vos équipes pour atteindre leurs objectifs et s’adapter aux retours.

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FinOps & GreenOps : Cloud Carbon Footprint responsable

Image of cloud carbon footprint blog post

Le module Cloud Carbon Footprint (Empreinte carbone du cloud) est la nouvelle fierté de Cycloid : il s’agit d’un outil intégré à notre solution FinOps qui sert à mesurer les émissions carbone. Notre approche est unique : nous combinons le GreenOps et le FinOps afin que vous puissiez mesurer au même endroit vos dépenses budgétaires et vos répercussions environnementales découlant de l’utilisation du cloud. Notre but est de promouvoir ainsi une culture de sobriété, qui favorise la conscience écologique des entreprises et qui réduit le gaspillage lié au cloud.

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