mcAfee Secure Website
23

Amazon AWS Certified Solutions Architect - Associate SAA-C03 Bundle

Exam Code: AWS Certified Solutions Architect - Associate SAA-C03

Exam Name AWS Certified Solutions Architect - Associate SAA-C03

Certification Provider: Amazon

Corresponding Certification: AWS Certified Solutions Architect - Associate

AWS Certified Solutions Architect - Associate SAA-C03 Training Materials $23.86

Reliable & Actual Study Materials for AWS Certified Solutions Architect - Associate SAA-C03 Exam Success

The Latest AWS Certified Solutions Architect - Associate SAA-C03 Exam Questions as Experienced in the Actual Test!

  • 24
    Questions & Answers

    AWS Certified Solutions Architect - Associate SAA-C03 Questions & Answers

    1041 Questions & Answers

    Includes questions types found on actual exam such as drag and drop, simulation, type in, and fill in the blank.

  • 25
    AWS Certified Solutions Architect - Associate SAA-C03 Video Course

    AWS Certified Solutions Architect - Associate SAA-C03 Training Course

    368 Video Lectures

    Based on Real Life Scenarios which you will encounter in exam and learn by working with real equipment.

  • exam =30
    Study Guide

    AWS Certified Solutions Architect - Associate SAA-C03 Study Guide

    632 PDF Pages

    Study Guide developed by industry experts who have written exams in the past. They are technology-specific IT certification researchers with at least a decade of experience at Fortune 500 companies.

exam =32

AWS Certified Solutions Architect - Associate SAA-C03 Practice Tests

Guarantee

Satisfaction Guaranteed

Pass4sure has a remarkable Amazon Candidate Success record. We're confident of our products and provide no hassle product exchange. That's how confident we are!

99.3% Pass Rate
Total Cost: $184.97
Bundle Price: $161.11

Purchase Individually

  • exam =34
    Questions & Answers

    Questions & Answers

    1041 Questions

    $124.99
    exam =35
  • exam =37
    AWS Certified Solutions Architect - Associate SAA-C03 Video Course

    Training Course

    368 Video Lectures

    $29.99
  • exam =36
    Study Guide

    Study Guide

    632 PDF Pages

    $29.99

Amazon AWS Certified Solutions Architect - Associate SAA-C03 Practice Test 24

Question 230

A disaster recovery plan must protect EBS-backed application data. The team confirms that backups are successful but restoration duration exceeds the service RTO. What should the solution architect recommend?

  1. Copy required snapshots to a second AWS Region with verified permissions
  2. Create a supported AMI with block-device mappings and required snapshots
  3. Run restoration exercises and tune snapshot/restore readiness or architecture
  4. Restore the snapshot as a volume in the instance's Availability Zone

Explanation

Correct Answer

C:

The scenario identifies this requirement: Backups are successful but restoration duration exceeds the service RTO. Select Run restoration exercises and tune snapshot/restore readiness or architecture as the specified technical mechanism. Backup completion alone does not prove recovery time objectives. This response addresses the problem described rather than a different design goal.

Incorrect Answers

A:

The option Copy required snapshots to a second AWS Region with verified permissions addresses a separate condition: a backup must survive a regional outage. Cross-Region backup copies reduce regional single points of failure. The actual requirement is backups are successful but restoration duration exceeds the service RTO. Recommended corrective action: Run restoration exercises and tune snapshot/restore readiness or architecture. Backup completion alone does not prove recovery time objectives.

B:

Create a supported AMI with block-device mappings and required snapshots would help if engineers assume an EBS snapshot is a bootable EC2 AMI automatically. An AMI includes launch metadata beyond a raw snapshot. That is not the symptom described here: backups are successful but restoration duration exceeds the service RTO. The matching response is Run restoration exercises and tune snapshot/restore readiness or architecture, because backup completion alone does not prove recovery time objectives.

D:

Restore the snapshot as a volume in the instance's Availability Zone solves a different operational problem where a restored EBS volume is attached to an EC2 instance in another AZ. An EBS volume attaches to EC2 instances within its AZ. It does not directly address backups are successful but restoration duration exceeds the service RTO. The case calls for Run restoration exercises and tune snapshot/restore readiness or architecture, since backup completion alone does not prove recovery time objectives.

Question 231

Database teams implement suitable encryption and data restoration policies. A recent validation shows that an RDS database must use encryption at rest before creation. Which AWS architecture decision should be prioritized?

  1. Share the eligible snapshot and required customer-managed encryption key access
  2. Enable RDS encryption with an approved KMS key at database creation
  3. Require supported SSL/TLS connections with appropriate certificate verification
  4. Enable automated RDS backups with sufficient retention and test PITR

Explanation

Correct Answer

B:

The recommended action is: Enable RDS encryption with an approved KMS key at database creation. The evidence is an RDS database must use encryption at rest before creation. RDS storage encryption is configured at creation for supported engines. Its technical effect matches the identified failure.

Incorrect Answers

A:

Share the eligible snapshot and required customer-managed encryption key access would help if an RDS snapshot must be accessible for restore from another account. Cross-account snapshot restore needs snapshot and KMS permissions. That is not the symptom described here: an RDS database must use encryption at rest before creation. The matching response is Enable RDS encryption with an approved KMS key at database creation, because rDS storage encryption is configured at creation for supported engines.

C:

Require supported SSL/TLS connections with appropriate certificate verification solves a different operational problem where analysts want to encrypt all traffic from clients to RDS. Database client TLS protects data in transit. It does not directly address an RDS database must use encryption at rest before creation. The case calls for Enable RDS encryption with an approved KMS key at database creation, since rDS storage encryption is configured at creation for supported engines.

D:

The competing option Enable automated RDS backups with sufficient retention and test PITR would be useful when a developer needs point-in-time rollback after an accidental SQL change. Automated backups enable recovery to selected moments in retention. The present issue is an RDS database must use encryption at rest before creation; it is more directly addressed by Enable RDS encryption with an approved KMS key at database creation. RDS storage encryption is configured at creation for supported engines.

Question 232

Database teams implement suitable encryption and data restoration policies. During an architecture review, engineers observe that an existing unencrypted RDS instance must become encrypted. Which approach most directly resolves this gap?

  1. Snapshot the instance and restore from an encrypted snapshot to a new instance
  2. Enable RDS encryption with an approved KMS key at database creation
  3. Share the eligible snapshot and required customer-managed encryption key access
  4. Require supported SSL/TLS connections with appropriate certificate verification

Explanation

Correct Answer

A:

Snapshot the instance and restore from an encrypted snapshot to a new instance is appropriate for the described condition: an existing unencrypted RDS instance must become encrypted. Existing unencrypted RDS storage cannot simply be toggled to encrypted in place. This is the mechanism that acts on the affected access, service, recovery, or cost boundary.

Incorrect Answers

B:

Enable RDS encryption with an approved KMS key at database creation solves a different operational problem where an RDS database must use encryption at rest before creation. RDS storage encryption is configured at creation for supported engines. It does not directly address an existing unencrypted RDS instance must become encrypted. The case calls for Snapshot the instance and restore from an encrypted snapshot to a new instance, since existing unencrypted RDS storage cannot simply be toggled to encrypted in place.

C:

The competing option Share the eligible snapshot and required customer-managed encryption key access would be useful when an RDS snapshot must be accessible for restore from another account. Cross-account snapshot restore needs snapshot and KMS permissions. The present issue is an existing unencrypted RDS instance must become encrypted; it is more directly addressed by Snapshot the instance and restore from an encrypted snapshot to a new instance. Existing unencrypted RDS storage cannot simply be toggled to encrypted in place.

D:

The option Require supported SSL/TLS connections with appropriate certificate verification addresses a separate condition: analysts want to encrypt all traffic from clients to RDS. Database client TLS protects data in transit. The actual requirement is an existing unencrypted RDS instance must become encrypted. Recommended corrective action: Snapshot the instance and restore from an encrypted snapshot to a new instance. Existing unencrypted RDS storage cannot simply be toggled to encrypted in place.

Question 233

Database teams implement suitable encryption and data restoration policies. The current operating constraint is that analysts want to encrypt all traffic from clients to RDS. What should the solution architect recommend?

  1. Snapshot the instance and restore from an encrypted snapshot to a new instance
  2. Require supported SSL/TLS connections with appropriate certificate verification
  3. Share the eligible snapshot and required customer-managed encryption key access
  4. Enable automated RDS backups with sufficient retention and test PITR

Explanation

Correct Answer

B:

The requirement concerns analysts want to encrypt all traffic from clients to RDS. Apply the action: Require supported SSL/TLS connections with appropriate certificate verification. The causal explanation is that database client TLS protects data in transit. The other options address neighboring conditions.

Incorrect Answers

A:

Snapshot the instance and restore from an encrypted snapshot to a new instance solves a different operational problem where an existing unencrypted RDS instance must become encrypted. Existing unencrypted RDS storage cannot simply be toggled to encrypted in place. It does not directly address analysts want to encrypt all traffic from clients to RDS. The case calls for Require supported SSL/TLS connections with appropriate certificate verification, since database client TLS protects data in transit.

C:

The option Share the eligible snapshot and required customer-managed encryption key access addresses a separate condition: an RDS snapshot must be accessible for restore from another account. Cross-account snapshot restore needs snapshot and KMS permissions. The actual requirement is analysts want to encrypt all traffic from clients to RDS. Recommended corrective action: Require supported SSL/TLS connections with appropriate certificate verification. Database client TLS protects data in transit.

D:

Enable automated RDS backups with sufficient retention and test PITR would help if a developer needs point-in-time rollback after an accidental SQL change. Automated backups enable recovery to selected moments in retention. That is not the symptom described here: analysts want to encrypt all traffic from clients to RDS. The matching response is Require supported SSL/TLS connections with appropriate certificate verification, because database client TLS protects data in transit.

Question 234

Database teams implement suitable encryption and data restoration policies. The security and operations review finds that a developer needs point-in-time rollback after an accidental SQL change. What is the most appropriate correction?

  1. Enable automated RDS backups with sufficient retention and test PITR
  2. Snapshot the instance and restore from an encrypted snapshot to a new instance
  3. Share the eligible snapshot and required customer-managed encryption key access
  4. Require supported SSL/TLS connections with appropriate certificate verification

Explanation

Correct Answer

A:

The case evidence is a developer needs point-in-time rollback after an accidental SQL change. The selected response is Enable automated RDS backups with sufficient retention and test PITR. Automated backups enable recovery to selected moments in retention. This distinction is why that action is the best answer for the stated situation.

Incorrect Answers

B:

The option Snapshot the instance and restore from an encrypted snapshot to a new instance addresses a separate condition: an existing unencrypted RDS instance must become encrypted. Existing unencrypted RDS storage cannot simply be toggled to encrypted in place. The actual requirement is a developer needs point-in-time rollback after an accidental SQL change. Recommended corrective action: Enable automated RDS backups with sufficient retention and test PITR. Automated backups enable recovery to selected moments in retention.

C:

Share the eligible snapshot and required customer-managed encryption key access would help if an RDS snapshot must be accessible for restore from another account. Cross-account snapshot restore needs snapshot and KMS permissions. That is not the symptom described here: a developer needs point-in-time rollback after an accidental SQL change. The matching response is Enable automated RDS backups with sufficient retention and test PITR, because automated backups enable recovery to selected moments in retention.

D:

For the alternative failure analysts want to encrypt all traffic from clients to RDS, the control Require supported SSL/TLS connections with appropriate certificate verification is relevant: database client TLS protects data in transit. Here the evidence instead is a developer needs point-in-time rollback after an accidental SQL change. The selected technical mechanism is Enable automated RDS backups with sufficient retention and test PITR: automated backups enable recovery to selected moments in retention.

Question 235

Database teams implement suitable encryption and data restoration policies. The business requirement is that an RDS snapshot must be accessible for restore from another account. What is the best design response for this workload?

  1. Require supported SSL/TLS connections with appropriate certificate verification
  2. Enable automated RDS backups with sufficient retention and test PITR
  3. Enable RDS encryption with an approved KMS key at database creation
  4. Share the eligible snapshot and required customer-managed encryption key access

Explanation

Correct Answer

D:

The scenario identifies this requirement: An RDS snapshot must be accessible for restore from another account. Select Share the eligible snapshot and required customer-managed encryption key access as the specified technical mechanism. Cross-account snapshot restore needs snapshot and KMS permissions. This response addresses the problem described rather than a different design goal.

Incorrect Answers

A:

The option Require supported SSL/TLS connections with appropriate certificate verification addresses a separate condition: analysts want to encrypt all traffic from clients to RDS. Database client TLS protects data in transit. The actual requirement is an RDS snapshot must be accessible for restore from another account. Recommended corrective action: Share the eligible snapshot and required customer-managed encryption key access. Cross-account snapshot restore needs snapshot and KMS permissions.

B:

Enable automated RDS backups with sufficient retention and test PITR would help if a developer needs point-in-time rollback after an accidental SQL change. Automated backups enable recovery to selected moments in retention. That is not the symptom described here: an RDS snapshot must be accessible for restore from another account. The matching response is Share the eligible snapshot and required customer-managed encryption key access, because cross-account snapshot restore needs snapshot and KMS permissions.

C:

For the alternative failure an RDS database must use encryption at rest before creation, the control Enable RDS encryption with an approved KMS key at database creation is relevant: rDS storage encryption is configured at creation for supported engines. Here the evidence instead is an RDS snapshot must be accessible for restore from another account. The selected technical mechanism is Share the eligible snapshot and required customer-managed encryption key access: cross-account snapshot restore needs snapshot and KMS permissions.

Question 236

A security team implements a secret and key separation of duties. The system is failing this objective: the app's database credential is embedded inside a container image. Which implementation most closely meets this requirement?

  1. Use version-aware secret retrieval with a bounded cache and reconnection logic
  2. Store the secret in Secrets Manager and inject it securely at runtime
  3. Record key policy API activity in CloudTrail and alert as required
  4. Implement a custom rotation Lambda with controlled permissions and rollback

Explanation

Correct Answer

B:

The recommended action is: Store the secret in Secrets Manager and inject it securely at runtime. The evidence is the app's database credential is embedded inside a container image. Runtime secret access avoids shipping credentials within images. Its technical effect matches the identified failure.

Incorrect Answers

A:

Use version-aware secret retrieval with a bounded cache and reconnection logic would help if an application requires a secret refresh after a scheduled rotation. Rotated values must propagate to consumers safely. That is not the symptom described here: the app's database credential is embedded inside a container image. The matching response is Store the secret in Secrets Manager and inject it securely at runtime, because runtime secret access avoids shipping credentials within images.

C:

Record key policy API activity in CloudTrail and alert as required solves a different operational problem where audit requires a record when a KMS key policy changes. KMS API management events provide key governance evidence. It does not directly address the app's database credential is embedded inside a container image. The case calls for Store the secret in Secrets Manager and inject it securely at runtime, since runtime secret access avoids shipping credentials within images.

D:

The competing option Implement a custom rotation Lambda with controlled permissions and rollback would be useful when a credential manager needs rotation for an unsupported external service. Secrets Manager rotation workflows can invoke approved custom logic. The present issue is the app's database credential is embedded inside a container image; it is more directly addressed by Store the secret in Secrets Manager and inject it securely at runtime. Runtime secret access avoids shipping credentials within images.

Question 237

A security team implements a secret and key separation of duties. An incident exposes the following failure: developers can modify KMS key policy and decrypt sensitive records. Which choice directly addresses the documented cause?

  1. Record key policy API activity in CloudTrail and alert as required
  2. Use version-aware secret retrieval with a bounded cache and reconnection logic
  3. Separate key administration and key usage permissions
  4. Store the secret in Secrets Manager and inject it securely at runtime

Explanation

Correct Answer

C:

Separate key administration and key usage permissions is appropriate for the described condition: developers can modify KMS key policy and decrypt sensitive records. Administrative KMS privileges need not include data decrypt rights. This is the mechanism that acts on the affected access, service, recovery, or cost boundary.

Incorrect Answers

A:

For the alternative failure audit requires a record when a KMS key policy changes, the control Record key policy API activity in CloudTrail and alert as required is relevant: kMS API management events provide key governance evidence. Here the evidence instead is developers can modify KMS key policy and decrypt sensitive records. The selected technical mechanism is Separate key administration and key usage permissions: administrative KMS privileges need not include data decrypt rights.

B:

Use version-aware secret retrieval with a bounded cache and reconnection logic solves a different operational problem where an application requires a secret refresh after a scheduled rotation. Rotated values must propagate to consumers safely. It does not directly address developers can modify KMS key policy and decrypt sensitive records. The case calls for Separate key administration and key usage permissions, since administrative KMS privileges need not include data decrypt rights.

D:

The option Store the secret in Secrets Manager and inject it securely at runtime addresses a separate condition: the app's database credential is embedded inside a container image. Runtime secret access avoids shipping credentials within images. The actual requirement is developers can modify KMS key policy and decrypt sensitive records. Recommended corrective action: Separate key administration and key usage permissions. Administrative KMS privileges need not include data decrypt rights.

Question 238

A security team implements a secret and key separation of duties. The review identifies this gap: audit requires a record when a KMS key policy changes. Which design adjustment best addresses that requirement?

  1. Implement a custom rotation Lambda with controlled permissions and rollback
  2. Separate key administration and key usage permissions
  3. Record key policy API activity in CloudTrail and alert as required
  4. Store the secret in Secrets Manager and inject it securely at runtime

Explanation

Correct Answer

C:

The requirement concerns audit requires a record when a KMS key policy changes. Apply the action: Record key policy API activity in CloudTrail and alert as required. The causal explanation is that kMS API management events provide key governance evidence. The other options address neighboring conditions.

Incorrect Answers

A:

Implement a custom rotation Lambda with controlled permissions and rollback solves a different operational problem where a credential manager needs rotation for an unsupported external service. Secrets Manager rotation workflows can invoke approved custom logic. It does not directly address audit requires a record when a KMS key policy changes. The case calls for Record key policy API activity in CloudTrail and alert as required, since kMS API management events provide key governance evidence.

B:

The competing option Separate key administration and key usage permissions would be useful when developers can modify KMS key policy and decrypt sensitive records. Administrative KMS privileges need not include data decrypt rights. The present issue is audit requires a record when a KMS key policy changes; it is more directly addressed by Record key policy API activity in CloudTrail and alert as required. KMS API management events provide key governance evidence.

D:

Store the secret in Secrets Manager and inject it securely at runtime would help if the app's database credential is embedded inside a container image. Runtime secret access avoids shipping credentials within images. That is not the symptom described here: audit requires a record when a KMS key policy changes. The matching response is Record key policy API activity in CloudTrail and alert as required, because kMS API management events provide key governance evidence.

Question 239

A security team implements a secret and key separation of duties. A deployment test establishes that an application requires a secret refresh after a scheduled rotation. Which option best matches the identified issue?

  1. Implement a custom rotation Lambda with controlled permissions and rollback
  2. Store the secret in Secrets Manager and inject it securely at runtime
  3. Separate key administration and key usage permissions
  4. Use version-aware secret retrieval with a bounded cache and reconnection logic

Explanation

Correct Answer

D:

The case evidence is an application requires a secret refresh after a scheduled rotation. The selected response is Use version-aware secret retrieval with a bounded cache and reconnection logic. Rotated values must propagate to consumers safely. This distinction is why that action is the best answer for the stated situation.

Incorrect Answers

A:

The competing option Implement a custom rotation Lambda with controlled permissions and rollback would be useful when a credential manager needs rotation for an unsupported external service. Secrets Manager rotation workflows can invoke approved custom logic. The present issue is an application requires a secret refresh after a scheduled rotation; it is more directly addressed by Use version-aware secret retrieval with a bounded cache and reconnection logic. Rotated values must propagate to consumers safely.

B:

The option Store the secret in Secrets Manager and inject it securely at runtime addresses a separate condition: the app's database credential is embedded inside a container image. Runtime secret access avoids shipping credentials within images. The actual requirement is an application requires a secret refresh after a scheduled rotation. Recommended corrective action: Use version-aware secret retrieval with a bounded cache and reconnection logic. Rotated values must propagate to consumers safely.

C:

Separate key administration and key usage permissions would help if developers can modify KMS key policy and decrypt sensitive records. Administrative KMS privileges need not include data decrypt rights. That is not the symptom described here: an application requires a secret refresh after a scheduled rotation. The matching response is Use version-aware secret retrieval with a bounded cache and reconnection logic, because rotated values must propagate to consumers safely.

Question 240

A security team implements a secret and key separation of duties. The team confirms that a credential manager needs rotation for an unsupported external service. Which next design step is best?

  1. Store the secret in Secrets Manager and inject it securely at runtime
  2. Separate key administration and key usage permissions
  3. Implement a custom rotation Lambda with controlled permissions and rollback
  4. Use version-aware secret retrieval with a bounded cache and reconnection logic

Explanation

Correct Answer

C:

The scenario identifies this requirement: A credential manager needs rotation for an unsupported external service. Select Implement a custom rotation Lambda with controlled permissions and rollback as the specified technical mechanism. Secrets Manager rotation workflows can invoke approved custom logic. This response addresses the problem described rather than a different design goal.

Incorrect Answers

A:

The option Store the secret in Secrets Manager and inject it securely at runtime addresses a separate condition: the app's database credential is embedded inside a container image. Runtime secret access avoids shipping credentials within images. The actual requirement is a credential manager needs rotation for an unsupported external service. Recommended corrective action: Implement a custom rotation Lambda with controlled permissions and rollback. Secrets Manager rotation workflows can invoke approved custom logic.

B:

Separate key administration and key usage permissions would help if developers can modify KMS key policy and decrypt sensitive records. Administrative KMS privileges need not include data decrypt rights. That is not the symptom described here: a credential manager needs rotation for an unsupported external service. The matching response is Implement a custom rotation Lambda with controlled permissions and rollback, because secrets Manager rotation workflows can invoke approved custom logic.

D:

Use version-aware secret retrieval with a bounded cache and reconnection logic solves a different operational problem where an application requires a secret refresh after a scheduled rotation. Rotated values must propagate to consumers safely. It does not directly address a credential manager needs rotation for an unsupported external service. The case calls for Implement a custom rotation Lambda with controlled permissions and rollback, since secrets Manager rotation workflows can invoke approved custom logic.