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| Vendor: | Amazon |
|---|---|
| Exam Code: | DVA-C02 |
| Exam Name: | AWS Certified Developer - Associate |
| Exam Questions: | 600 |
| Last Updated: | October 8, 2026 |
| Related Certifications: | Amazon Associate, AWS Certified Developer Associate |
| Exam Tags: | Professional AWS Developers |
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A software company is launching a multimedia application. The application will allow guest users to access sample content before the users decide if they want to create an account to gain full access. The company wants to implement an authentication process that can identify users who have already created an account. The company also needs to keep track of the number of guest users who eventually create an account.
Which combination of steps will meet these requirements? {Select TWO.)
A company runs an ecommerce application on AWS. The application stores data in an Amazon Aurora database.
A developer is adding a caching layer to the application. The caching strategy must ensure that the application always uses the most recent value for each data item.
Which caching strategy will meet these requirements?
A developer is troubleshooting an Amazon API Gateway API Clients are receiving HTTP 400 response errors when the clients try to access an endpoint of the API.
How can the developer determine the cause of these errors?
This solution will meet the requirements by using Amazon CloudWatch Logs to capture and analyze the logs from API Gateway. Amazon CloudWatch Logs is a service that monitors, stores, and accesses log files from AWS resources. The developer can turn on execution logging and access logging in Amazon CloudWatch Logs for the API stage, which enables logging information about API execution and client access to the API. The developer can create a CloudWatch Logs log group, which is a collection of log streams that share the same retention, monitoring, and access control settings. The developer can specify the Amazon Resource Name (ARN) of the log group for the API stage, which instructs API Gateway to send the logs to the specified log group. The developer can then examine the logs to determine the cause of the HTTP 400 response errors. Option A is not optimal because it will create an Amazon Kinesis Data Firehose delivery stream to receive API call logs from API Gateway, which may introduce additional costs and complexity for delivering and processing streaming data. Option B is not optimal because it will turn on AWS CloudTrail Insights and create a trail, which is a feature that helps identify and troubleshoot unusual API activity or operational issues, not HTTP response errors. Option C is not optimal because it will turn on AWS X-Ray for the API stage, which is a service that helps analyze and debug distributed applications, not HTTP response errors.
A developer is building a new application on AWS. The application uses an AWS Lambda function that retrieves information from an Amazon DynamoDB table. The developer hardcoded the DynamoDB table name into the Lambda function code. The table name might change over time. The developer does not want to modify the Lambda code if the table name changes.
Which solution will meet these requirements MOST efficiently?
The simplest and most efficient way to avoid hardcoding configuration such as a DynamoDB table name is to use Lambda environment variables. Environment variables are designed for runtime configuration and allow changing values without updating application code logic. The developer can store the table name in an environment variable (for example, TABLE_NAME) and read it from the runtime environment using the standard language method (such as os.environ in Python, process.env in Node.js, etc.).
This approach has very low operational overhead: updating the table name becomes a configuration change (in the Lambda console, IaC templates, or CI/CD pipeline) rather than a code change. It also keeps deployment packages stable and avoids unnecessary dependencies.
Option B is not suitable because /tmp is ephemeral storage that can be cleared between invocations and is not intended for configuration management.
Option C is heavier than necessary. Lambda layers are great for shared libraries and dependencies, but using a layer to store a single changing table name is awkward and forces a layer update and function reconfiguration when the value changes.
Option D does not solve the problem because a global variable is still set in the code. If the table name changes, the code must still be modified and redeployed.
Therefore, storing the table name in a Lambda environment variable is the most efficient solution.
A developer is building a multi-tenant application that uses an AWS Lambda function and an Amazon S3 bucket. An S3 event notification invokes the Lambda function when a new file is uploaded to the S3 bucket. The function reads each new file from the S3 bucket, processes the file, and writes data to an Amazon DynamoDB table. Each file in the S3 bucket has a prefix that corresponds with the name of the tenant that owns the file. Items in the DynamoDB table use tenant name as the partition key.
The developer must reduce the risk that file data will leak across tenants during processing.
Which combination of actions will meet this requirement? (Select THREE.)
The safest way to prevent cross-tenant data leakage during processing is to enforce tenant isolation at the authorization layer, not only in application logic. AWS supports this with ABAC (attribute-based access control) using IAM principal/session tags and policy condition keys. The goal is to ensure that, for each invocation, the function can access only the S3 prefix and DynamoDB items that match the tenant being processed.
First, the Lambda execution role should be permitted to assume a dedicated data access role (B). This creates a clear separation: the execution role has minimal base permissions and can obtain tenant-scoped permissions only by assuming the data role.
Second, the Lambda function should assume that data access role with the tenant name as a session tag and then use the temporary credentials for all S3/DynamoDB calls (F). Session tagging ties the caller's identity attributes (tenant) to the credentials used for data access.
Third, attach policies to the data access role that restrict access using conditions that compare the session tag to the requested resource attributes (C). For S3, policies can restrict access to object ARNs like arn:aws:s3:::bucket/${aws:PrincipalTag/tenant}/*. For DynamoDB, policies can restrict access by partition key using dynamodb:LeadingKeys so the role can read/write only items whose partition key equals the tenant tag. This ensures that even if the function code has a bug or receives unexpected input, AWS authorization prevents it from reading or writing another tenant's data.
Option A is not required as stated; you typically need permission to pass session tags (and the trust/policy must allow tagging), but the key actions here are: enable assume role (B), enforce tag-based data policies (C), and actually assume the role with tenant tag (F). Option D is not generally the primary control for DynamoDB; the standard enforcement is via IAM identity policies (and dynamodb:LeadingKeys). Option E (RCP) is an AWS Organizations guardrail and is not necessary for this single-application isolation pattern.
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