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AWS

Decoupled Multimodal Video Search Using Bedrock Embeddings and OpenSearch

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Condé Nast swapped a 250‑minute manual video discovery process for an automated multimodal search pipeline that returns results in under two minutes. This change shows engineers how to combine Bedrock‑hosted embeddings with a managed OpenSearch vector index to achieve low‑latency, intent‑driven media retrieval at scale.

Condé Nast replaced a manual, 250‑minute‑per‑clip discovery workflow with an automated multimodal video search pipeline that returns relevant moments in under two minutes. Practitioners care because the pattern demonstrates how to offload heavy embedding generation to Amazon Bedrock while keeping query latency low using a managed vector index.

Why a new semantic search layer was required

Keyword matching could not satisfy editorial queries such as “beginner yoga content with calming backgrounds” or “behind‑the‑scenes fashion week moments.” The team needed a system that understood intent across three modalities—transcript text, visual frames, and audio tracks. Additionally, the 140,000‑video catalog demanded a split between compute‑intensive ingestion and fast, low‑latency serving; a monolithic design would have forced a trade‑off between throughput and response time.

Core architecture and service choices

The solution consists of two loosely coupled planes:

  • Ingestion plane: Video assets are streamed through a processing job that extracts transcripts, audio, and visual embeddings using the TwelveLabs Marengo model accessed via Amazon Bedrock. Bedrock provides a single API for the foundation model and enforces IAM policies, VPC isolation, and CloudTrail audit logging.
  • Indexing and query plane: The resulting multimodal vectors are stored in Amazon OpenSearch Service with the managed k‑nearest‑neighbor (k‑NN) plugin. OpenSearch replicates across multiple Availability Zones and supports metadata filtering for hybrid queries, enabling precise timestamp retrieval without managing the underlying search cluster.

During back‑fill, the decoupled design allowed the ingestion jobs to run at scale while the query tier remained responsive for editorial users.

Operational and security implications

From an operations perspective, the split architecture simplifies scaling: compute resources for embedding generation can be sized independently of the search service, and OpenSearch’s managed nature reduces patching and node‑failure concerns. The use of Bedrock’s managed model serving eliminates the need to host custom inference servers, lowering operational overhead and surface area for security misconfiguration.

Security controls are inherited from the underlying AWS services. Access to the Bedrock model and OpenSearch domain is governed by IAM policies, while network traffic is confined to a private VPC. All actions are recorded in CloudTrail, providing an audit trail for compliance and incident response. Practitioners should verify that least‑privilege policies are applied to both the ingestion jobs and the query API to avoid unnecessary exposure of the embedding model or vector index.

Related CloudNinjas coverage: AWS.

What This Means For Practitioners

Adopting a similar pattern means you can replace costly, manual media discovery with a scalable, intent‑driven search experience. Evaluate whether your workload benefits from a multimodal embedding model available on Bedrock, and pair it with a managed vector store such as OpenSearch k‑NN. Ensure that ingestion and query workloads are isolated to allow independent scaling and that IAM, VPC, and CloudTrail controls are correctly scoped. Finally, monitor ingestion throughput and query latency separately to detect bottlenecks without impacting end‑user experience.

Originally published atAWS Machine Learning Blog