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Databricks Certified Generative AI Engineer Associate Bundle

Exam Code: Certified Generative AI Engineer Associate

Exam Name Certified Generative AI Engineer Associate

Certification Provider: Databricks

Corresponding Certification: Databricks Certified Generative AI Engineer Associate

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Databricks Certified Generative AI Engineer Associate Practice Test 67

Question 660

A public-facing assistant receives an abrupt bot-driven traffic surge that consumes the team's inference budget within minutes. What prevention measure is most targeted to this underlying cause?

  1. Enforce history budgets, retention limits and quality regression checks.
  2. Maintain rate-limit policies and incident escalation thresholds per consumer identity.
  3. Monitor both tool and model events with trace correlation and separate access policies.
  4. Configure usage tagging and cost anomaly alerts for serving endpoints and gateway policies.

Explanation

Correct Answer

B:

Model serving cost is coupled to request rate and generated tokens; uncontrolled callers can exhaust capacity or spend.

Other Answers

A:

This control addresses a different exposure: A support app repeatedly sends full conversation histories to a model when only the latest summarized context is required. It would not prevent this failure, because model serving cost is coupled to request rate and generated tokens; uncontrolled callers can exhaust capacity or spend.

C:

That model serving cost is coupled to request rate and generated tokens; uncontrolled callers can exhaust capacity or spend.

D:

Model serving cost is coupled to request rate and generated tokens; uncontrolled callers can exhaust capacity or spend.

Question 661

A support app repeatedly sends full conversation histories to a model when only the latest summarized context is required. Which implementation decision best restores the intended behavior?

  1. Record input/output tokens and per-application usage, then isolate cost drivers by model, tenant and workflow.
  2. Compare quality-adjusted cost per successful response and task latency, not raw inference price alone.
  3. Reduce context to approved relevant history and measure token savings without losing resolution quality.
  4. Apply rate limits and budget safeguards at the approved gateway/service boundary, with graceful error handling for excess traffic.

Explanation

Correct Answer

C:

The action targets the stated cause: Input token costs and latency grow with unnecessary history; context reduction must still preserve required state. Check the repair by: compare token usage and answer correctness on long conversation tests before and after pruning.

Other Answers

A:

Input token costs and latency grow with unnecessary history; context reduction must still preserve required state.

B:

Input token costs and latency grow with unnecessary history; context reduction must still preserve required state.

D:

Input token costs and latency grow with unnecessary history; context reduction must still preserve required state.

Question 662

Production model serving latency spikes every hour, but the team records only the number of requests and has no payload-size or stage-level diagnostic signal. Which engineering action most directly addresses this specific requirement?

  1. Correlate model-serving and tool-spans with inference table status and retry records before diagnosing the failing component.
  2. Log minimal redacted diagnostics and stable trace/source IDs rather than raw protected customer fields.
  3. Configure the supported scorer sampling/monitoring schedule and verify trace ingestion and service prerequisites.
  4. Enable approved inference telemetry capturing timestamps, latency, token counts, status and trace IDs while respecting privacy constraints.

Explanation

Correct Answer

D:

The action targets the stated cause: Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors. Check the repair by: correlate slow trace IDs with tokens, stage timings and endpoint status across the hourly spike.

Other Answers

A:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

B:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

C:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

Question 663

Production model serving latency spikes every hour, but the team records only the number of requests and has no payload-size or stage-level diagnostic signal. What architectural constraint is most directly responsible?

  1. Without evidence-version provenance, the team cannot separate retrieval mistakes from answer-generation mistakes.
  2. Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.
  3. Layered agents can turn upstream rate-limit errors into user-visible failures even when the base model is healthy.
  4. Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

Explanation

Correct Answer

D:

Enable approved inference telemetry capturing timestamps, latency, token counts, status and trace IDs while respecting privacy constraints.

Other Answers

A:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

B:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

C:

That mechanism describes another problem: An on-call team attributes every 5xx answer failure to model generation, although endpoint logs show upstream tool 429 throttling. It does not explain this case, where request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

Question 664

Production model serving latency spikes every hour, but the team records only the number of requests and has no payload-size or stage-level diagnostic signal. What validation evidence would most specifically confirm the resolution?

  1. Correlate slow trace IDs with tokens, stage timings and endpoint status across the hourly spike.
  2. Trace a synthetic tool-throttling incident and identify the 429 call and final error under one request ID.
  3. Reproduce a reported answer and find the exact document IDs and index revision in the recorded trace.
  4. Send controlled test requests and confirm scorer feedback appears for a measured subset in the experiment.

Explanation

Correct Answer

A:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

Other Answers

B:

Correlate slow trace IDs with tokens, stage timings and endpoint status across the hourly spike.

C:

Correlate slow trace IDs with tokens, stage timings and endpoint status across the hourly spike.

D:

Correlate slow trace IDs with tokens, stage timings and endpoint status across the hourly spike.

Question 665

Production model serving latency spikes every hour, but the team records only the number of requests and has no payload-size or stage-level diagnostic signal. What prevention measure is most targeted to this underlying cause?

  1. Require source-version metadata and sanitized retrieval-span logging for grounded applications.
  2. Monitor scorer execution health, configured sample rate and missing-feedback alerts.
  3. Maintain distributed trace correlation and component-specific error budgets.
  4. Set telemetry retention and completeness tests for supported endpoint observability.

Explanation

Correct Answer

D:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

Other Answers

A:

Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

B:

This control addresses a different exposure: An MLflow production scorer is registered against an experiment but never samples incoming traces, so dashboards stay empty despite active traffic. It would not prevent this failure, because request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

C:

That request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.

Question 666

An MLflow production scorer is registered against an experiment but never samples incoming traces, so dashboards stay empty despite active traffic. Which implementation decision best restores the intended behavior?

  1. Configure the supported scorer sampling/monitoring schedule and verify trace ingestion and service prerequisites.
  2. Enable approved inference telemetry capturing timestamps, latency, token counts, status and trace IDs while respecting privacy constraints.
  3. Add a task-specific numeric correctness scorer alongside the built-in safety scorer and inspect results per trace.
  4. Correlate model-serving and tool-spans with inference table status and retry records before diagnosing the failing component.

Explanation

Correct Answer

A:

The action targets the stated cause: Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration. Check the repair by: send controlled test requests and confirm scorer feedback appears for a measured subset in the experiment.

Other Answers

B:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

C:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

D:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

Question 667

An MLflow production scorer is registered against an experiment but never samples incoming traces, so dashboards stay empty despite active traffic. Which underlying technical principle explains why this occurs?

  1. Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.
  2. Request totals alone cannot explain tail latency linked to prompt length, retries or endpoint errors.
  3. MLflow scorers measure distinct attributes; passing one risk dimension does not establish task correctness.
  4. Layered agents can turn upstream rate-limit errors into user-visible failures even when the base model is healthy.

Explanation

Correct Answer

A:

Configure the supported scorer sampling/monitoring schedule and verify trace ingestion and service prerequisites.

Other Answers

B:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

C:

That mechanism describes another problem: An evaluation run produces a high Safety score but no measurement of whether the requested invoice total was calculated correctly. It does not explain this case, where registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

D:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

Question 668

An MLflow production scorer is registered against an experiment but never samples incoming traces, so dashboards stay empty despite active traffic. After correction, what targeted test should demonstrate success?

  1. Send controlled test requests and confirm scorer feedback appears for a measured subset in the experiment.
  2. Trace a synthetic tool-throttling incident and identify the 429 call and final error under one request ID.
  3. Correlate slow trace IDs with tokens, stage timings and endpoint status across the hourly spike.
  4. Run traces with known incorrect totals and confirm the numeric scorer flags them even when safety passes.

Explanation

Correct Answer

A:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

Other Answers

B:

Send controlled test requests and confirm scorer feedback appears for a measured subset in the experiment.

C:

Send controlled test requests and confirm scorer feedback appears for a measured subset in the experiment.

D:

Send controlled test requests and confirm scorer feedback appears for a measured subset in the experiment.

Question 669

An MLflow production scorer is registered against an experiment but never samples incoming traces, so dashboards stay empty despite active traffic. Which release safeguard most directly addresses this failure class?

  1. Monitor scorer execution health, configured sample rate and missing-feedback alerts.
  2. Maintain a scorer portfolio aligned to business success, correctness and safety requirements.
  3. Maintain distributed trace correlation and component-specific error budgets.
  4. Set telemetry retention and completeness tests for supported endpoint observability.

Explanation

Correct Answer

A:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

Other Answers

B:

This control addresses a different exposure: An evaluation run produces a high Safety score but no measurement of whether the requested invoice total was calculated correctly. It would not prevent this failure, because registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

C:

That registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

D:

Registering a scorer is distinct from activating production monitoring; coverage depends on trace collection and sampling configuration.

Question 670

An on-call team attributes every 5xx answer failure to model generation, although endpoint logs show upstream tool 429 throttling. Which design change directly satisfies the stated constraints?

  1. Enable approved inference telemetry capturing timestamps, latency, token counts, status and trace IDs while respecting privacy constraints.
  2. Inspect per-stage inference records for search timeouts and missing-context flags before changing prompt text.
  3. Configure the supported scorer sampling/monitoring schedule and verify trace ingestion and service prerequisites.
  4. Correlate model-serving and tool-spans with inference table status and retry records before diagnosing the failing component.

Explanation

Correct Answer

D:

The action targets the stated cause: Layered agents can turn upstream rate-limit errors into user-visible failures even when the base model is healthy. Check the repair by: trace a synthetic tool-throttling incident and identify the 429 call and final error under one request ID.

Other Answers

A:

Layered agents can turn upstream rate-limit errors into user-visible failures even when the base model is healthy.

B:

Layered agents can turn upstream rate-limit errors into user-visible failures even when the base model is healthy.

C:

Layered agents can turn upstream rate-limit errors into user-visible failures even when the base model is healthy.