Google Professional Security Operations Engineer Practice Exam
Google Professional Security Operations Engineer Practice Exam
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What’s Included
No. of Questions0
AccessImmediate
Access DurationLife Long Access
Exam DeliveryOnline
Test ModesPractice, Exam
Google Professional Security Operations Engineer Practice Exam
About the Google Professional Security Operations Engineer Exam
A Google Cloud Certified Professional Security Operations Engineer detects, monitors, analyzes, investigates, and responds to security threats against workloads, endpoints, and infrastructure. This individual uses Google Cloud resources to protect an enterprise environment and is proficient in writing detection rules, log prioritization and ingestion, orchestration, and response automation. Further, this individual has experience leveraging posture and threat intelligence for detection and response.
Skills Assessed
The Professional Security Operations Engineer exam assesses your ability to conduct:
Platform operations
Data management
Threat hunting
Detection engineering
Incident response
Observability
Exam Details
Length: 2 hours
Registration fee: $200 (plus tax where applicable)
Language: English
Exam format: 50-60 multiple-choice and multiple-select questions
Exam delivery method:
a. Take the online-proctored exam from a remote location. Review the online testing requirements.
b. Take the onsite-proctored exam at a testing center. Locate a test center near you.
Prerequisites: None
Recommended experience: 3+ years of security industry experience, including 1+ years using Google Cloud security tooling
Certification renewal: Candidates may renew their certification within the renewal eligibility period. For more information about the renewal process, eligibility period, and certification validity timeline, please refer to the Renewal FAQs below.
Google Professional Security Operations Engineer Course Outline
The Google Professional Security Operations Engineer Exam covers the following topics -
Domain 1: Platform Operations (approx 14% )
1.1 Enhancing Detection and Response
Prioritizing telemetry sources (e.g., SCC, Google SecOps, GTI, Cloud IDS) to detect incidents or misconfigurations
Integrating multiple tools (e.g., SCC, Google SecOps, GTI, Cloud IDS, third-party systems) in the security architecture to improve detection
Justifying the use of overlapping tools based on requirements
Evaluating effectiveness of existing tools to identify coverage gaps and mitigate threats
Assessing automation and cloud-based tools to strengthen detection and response
1.2 Configuring Access
Configuring user and service account authentication for security tools (e.g., SCC, Google SecOps)
Setting authorization for feature access using IAM roles and permissions
Setting authorization for data access using IAM roles and permissions
Configuring and analyzing audit logs (e.g., Cloud Audit Logs, data access logs)
Configuring API access for automation in security tools (e.g., service accounts, API keys, SCC, Google SecOps, GTI)
Provisioning identities via Workforce Identity Federation
Domain 2: Data Management (14%)
2.1 Ingesting Logs for Security Tooling
Determining approaches for data ingestion in tools (e.g., SCC, Google SecOps)
Configuring ingestion tools or built-in features (e.g., SCC, Google SecOps)
Assessing required logs for detection and response (e.g., SCC Event Threat Detection, Google SecOps)
Evaluating parsers for log ingestion in Google SecOps
Modifying or extending parsers in Google SecOps
Applying data normalization techniques from log sources in Google SecOps
Evaluating and applying new labels for log ingestion
Managing log ingestion costs
2.2 Identifying a Baseline of User, Asset, and Entity Context
Identifying relevant threat intelligence within the enterprise environment
Differentiating event and entity data log sources (e.g., Cloud Audit Logs, Active Directory context)
Evaluating event and entity data matches for enrichment using aliasing fields
Domain 3: Threat Hunting 19%)
3.1 Performing Threat Hunting Across Environments
Developing queries to analyze logs and detect anomalies
Analyzing user behavior to uncover suspicious activity
Investigating network, endpoints, and services to identify IOCs using Google Cloud tools (e.g., Logs Explorer, Log Analytics, BigQuery, Google SecOps)
Collaborating with incident response teams to uncover active threats
Formulating hypotheses from behavior, threat intel, posture, and incident data (e.g., SCC, GTI)
3.2 Leveraging Threat Intelligence for Threat Hunting
Searching for IOCs in historical logs
Detecting new attack patterns and techniques in real time using threat intel and risk assessments (e.g., GTI, detection rules, SCC toxic combinations)
Analyzing entity risk scores to flag anomalous behavior
Performing retrohunt on historical event data with enriched logs (e.g., Google SecOps rules engine, BigQuery, Cloud Logging)
Proactively hunting for hidden threats using threat intel (e.g., GTI, detection rules)
Domain 4: Detection Engineering (22%)
4.1 Developing and Implementing Detection Mechanisms
Reconciling threat intelligence with user and asset activity
Analyzing logs and events for anomalies
Detecting suspicious patterns using detection rules and timeline-based searches
Designing detection rules with risk values (e.g., Google SecOps reference lists)
Discovering anomalous behavior of assets/users and assigning risk values (e.g., SecOps Risk Analytics, curated rules)
Designing rules to detect posture or risk profile changes (e.g., SCC SHA, SCC posture management, Google SecOps)
Identifying rare or unknown processes, domains, and IPs using methods like YARA-L rules or dashboards
Using entity/context data in rules for accuracy (e.g., Google SecOps entity graph)
Configuring SCC Event Threat Detection custom detectors for IOCs
4.2 Leveraging Threat Intelligence for Detection
Scoring alerts by IOC risk level
Searching for latest IOCs in ingested telemetry
Measuring repetitive alerts to reduce false positives