Amazon AWS Certified Cloud Practitioner CLF-C02 Bundle

Create an appropriately trusted cross-account role with a minimal permissions policy. The case involves: A partner AWS account needs temporary access to read selected resources in another company's account. The central AWS principle is that cross-account IAM roles support controlled access between trusted AWS accounts. What matters is: Look for a trusted external account, role trust policy, and target permissions. Recommended direction: Create an appropriately trusted cross-account role with a minimal permissions policy. Expected indication of success: The partner can assume the authorized role but cannot access unrelated resources. Caveat: Trusting an entire external account without conditions can create excessive exposure.

On-Demand EC2 pricing is suited to flexible usage without a long-term compute commitment. This directly addresses the question rather than a different AWS use case. On-Demand EC2 pricing is suited to flexible usage without a long-term compute commitment. Recognize the requirement: Look for changing, intermittent usage and little certainty about future capacity needs. At a high level, use On-Demand compute pricing for the short and unpredictable workload. The intended outcome is: The team pays for applicable resource use without a long-term commitment. Keep in mind: On-Demand rates can cost more than commitment-based options for sustained use.

AWS Config tracks configuration history for supported resource types over time. This is the best underlying concept for the stated situation. AWS Config tracks configuration history for supported resource types over time. The key business clue is: Look for configuration timeline questions rather than operational CPU utilization. A suitable choice is: Review AWS Config resource history for the selected resource and period. An expected result is: The auditor can identify material configuration changes and their recorded times. Important limitation: Resource-history coverage depends on recorder scope and retention settings.

Map compliance controls between AWS and customer owners for each workload. The case involves: A cloud governance team assumes that meeting an industry regulation becomes AWS's full responsibility after migration. The central AWS principle is that cloud compliance is a shared responsibility and customers retain obligations tied to their data and applications. What matters is: Look for customer-specific regulations, configuration decisions, and required evidence. Recommended direction: Map compliance controls between AWS and customer owners for each workload. Expected indication of success: Auditors can identify accountable parties and evidence for the applicable controls. Caveat: AWS compliance reports do not automatically certify the customer's application.

Supported DDoS events are mitigated according to the service's protection scope. This directly addresses the question rather than a different AWS use case. AWS Shield offers managed DDoS protections for supported AWS resources. Recognize the requirement: Look for traffic flooding attacks rather than ordinary SQL query errors. At a high level, use the relevant Shield protection alongside resilient networking architecture. The intended outcome is: Supported DDoS events are mitigated according to the service's protection scope. Keep in mind: DDoS protection does not automatically prevent account credential compromise.

Internet VPN latency and availability depend partly on the underlying network. This is the best important qualification for the stated situation. AWS Site-to-Site VPN provides encrypted tunnels between supported networks and AWS. The key business clue is: Look for encrypted private network traffic carried over public internet connectivity. A suitable choice is: Use a Site-to-Site VPN connection for the branch-to-AWS use case. An expected result is: The office can transmit permitted traffic securely through established VPN tunnels. Important limitation: Internet VPN latency and availability depend partly on the underlying network.

Secret storage does not protect a password if the consuming identity is compromised. The case involves: A web application saves an external database password in plaintext configuration and needs a managed storage location. The central AWS principle is that aWS Secrets Manager stores and controls retrieval of secrets such as application credentials. What matters is: Look for database passwords, secret retrieval, and supported rotation requirements. Recommended direction: Store the credential in Secrets Manager and restrict read access to intended applications. Expected indication of success: The application retrieves the approved secret without exposing it in deployed source files. Caveat: Secret storage does not protect a password if the consuming identity is compromised.

A bot recognizes the intended sample intents and supports customer interactions. This directly addresses the question rather than a different AWS use case. Amazon Lex provides capabilities for building conversational interfaces and bots. Recognize the requirement: Look for a natural-language chatbot or voice intent workflow. At a high level, use Amazon Lex for the appropriate conversational experience. The intended outcome is: A bot recognizes the intended sample intents and supports customer interactions. Keep in mind: Conversation design and data privacy safeguards still require customer attention.

Use Amazon SES with the required sender verification and appropriate sending configuration. This is the best high-level recommendation for the stated situation. Amazon Simple Email Service supports application email sending and related email workloads. The key business clue is: Look for programmatic sending of email rather than a queue for background jobs. A suitable choice is: Use Amazon SES with the required sender verification and appropriate sending configuration. An expected result is: Approved messages are accepted for sending with traceable delivery events. Important limitation: Email acceptance does not guarantee inbox placement or override recipient filtering.

Build a governed cloud platform foundation that supports migration teams. The case involves: A business needs a reusable foundation for accounts, networking, and workloads before migrating applications. The central AWS principle is that the AWS CAF platform perspective supports establishing cloud platform foundations and capabilities. What matters is: Look for landing-zone needs, scalable platform practices, and standardized provisioning. Recommended direction: Build a governed cloud platform foundation that supports migration teams. Expected indication of success: Teams can provision workloads on the intended baseline with consistent standards. Caveat: A platform foundation does not automatically modernize every application.

The AWS CAF security perspective focuses on risk management and security capabilities during adoption. This directly addresses the question rather than a different AWS use case. The AWS CAF security perspective focuses on risk management and security capabilities during adoption. Recognize the requirement: Look for protection priorities, identity, detection, and incident readiness. At a high level, include cloud security controls and ownership in the adoption program. The intended outcome is: Security requirements are addressed before sensitive workloads are moved. Keep in mind: Passing an initial review does not remove the need for continuous security work.