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Google Cloud

Direct API Ingestion Cuts Telemetry Latency for SentinelOne on Google Security Operations

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Google Cloud and SentinelOne now stream endpoint events straight into Google Security Operations via a dedicated API, removing intermediate storage steps. This reduces latency and data overhead, giving security teams faster visibility and lowering operational costs.

Google Cloud and SentinelOne have re‑architected their integration so that endpoint detection and response (EDR) events are sent directly to Google Security Operations through a native API, bypassing the traditional cloud‑bucket staging layer. Practitioners gain near‑real‑time telemetry, smaller event payloads, and fewer moving parts to manage.

What Changed in the Integration

The partnership replaces the previous pattern of routing SentinelOne telemetry through intermediate storage buckets with a direct API call. Six engineering workstreams underpin the change:

  • Event size reduction: A revised EDR schema shrinks average event size while preserving analytical fidelity.
  • Direct Google API ingestion: Events are streamed straight into Google Security Operations, eliminating storage hops and associated fees.
  • Reduced streaming latency: Removing the staging layer makes data available for detection and response workflows in near real‑time.
  • Precision telemetry scoping: SentinelOne Cloud Funnel filters let customers tailor the telemetry sent to Google.
  • Unified alerts API and Mandiant alignment: Parsers, alert models, and SOAR playbooks support automated host isolation, deep scans, malware extraction, and artifact enrichment from within Google Security Operations.
  • Industry validation: The integration earned Google Threat Intelligence’s Intel Partner of the Year at Google Cloud Next.

Why It Matters for Engineers

For AI, cloud, DevOps, and security engineers, the shift impacts three practical concerns:

  • Latency: Every minute of delay expands an intrusion’s blast radius. Direct ingestion cuts the half‑hour latency described in legacy pipelines to near‑real‑time, enabling active mitigation instead of retrospective damage control.
  • Compute and cost: Smaller events reduce downstream processing load, and eliminating storage buckets removes recurring storage charges and the operational overhead of bucket lifecycle management.
  • Operational simplicity: Fewer components mean fewer failure points, less configuration drift, and a clearer ownership model for the telemetry pipeline.

Architectural and Operational Implications

Adopting the new pattern requires revisiting existing SOC architectures. Practitioners should consider the following implications:

  • API authentication and quota management: Direct calls rely on Google’s security APIs; teams must ensure appropriate service accounts and monitoring of API usage.
  • Schema compatibility: Downstream detection rules and analytics must be updated to consume the reduced‑size event format without loss of fidelity.
  • Telemetry filtering strategy: The Cloud Funnel filters provide a mechanism to limit data volume, but engineers should define filter criteria that balance coverage with cost.
  • SOAR playbook updates: Existing automation that expects bucket‑based inputs will need to be re‑wired to the unified alerts API.
  • Monitoring and alerting: New ingestion paths should be instrumented for health checks, latency metrics, and error handling to avoid silent data loss.

Related CloudNinjas coverage: Google Cloud.

What This Means For Practitioners

Evaluate your current endpoint telemetry pipeline: if it relies on intermediate storage, plan a migration to the direct API model. Start by provisioning the required Google service accounts, reviewing the revised event schema, and testing the Cloud Funnel filters in a staging environment. Update detection rules, SOAR playbooks, and monitoring dashboards to reflect the new data flow. Finally, track latency and compute usage to confirm the expected reductions before decommissioning legacy bucket resources.

Originally published atGoogle Cloud Blog