Cloud-native foundations and agentic pipeline orchestration on AWS, GCP, and Azure, so your AI products run reliably, scale automatically, and cost what they should.
The model works in the notebook. The demo runs fine. But in production, agentic workflows time out, vector search latency spikes unpredictably, and nobody knows which prompt version caused the regression two weeks ago. Most teams are running AI on infrastructure designed for traditional web apps, and wondering why it's unreliable. The fix isn't a better model. It's an infrastructure layer built specifically for the way AI workloads actually behave.
Building an AI product is only half the job. The teams that ship reliably are not just good at models, they are good at infrastructure: agent pipelines that run on a schedule, recover from failure, and route intelligently between tools; observability that surfaces prompt drift before a customer notices; CI gates on eval scores instead of test coverage. We build that layer, cloud-native foundations on AWS, GCP, and Azure, vector database deployments (pgvector, Pinecone, Qdrant, Weaviate), agent orchestration on LangGraph and Temporal, and the cost and latency controls that keep your AI bill predictable.
AWS, GCP, and Azure environments right-sized for AI: GPU instances for fine-tuning, serverless inference endpoints, auto-scaling policies that match token throughput, not just HTTP requests.
LangGraph, Temporal, and Prefect workflows that handle multi-step agent execution, tool-calling loops, retries, and state persistence. Built to recover gracefully from LLM failures and partial completions.
Qdrant, Weaviate, and pgvector deployments optimised for retrieval latency and embedding freshness. Indexing pipelines, namespace management, and the monitoring that surfaces staleness before users notice.
Prompt versioning, output logging, and continuous evaluation against your golden dataset. Datadog for infra metrics, RAGAS and Braintrust for model quality, wired together into a single operational picture.
Model promotion pipelines that gate on eval scores, not just test coverage. Canary deployments for new prompt versions, automated rollback on quality regression, and the audit trail that satisfies enterprise procurement.
Model routing between providers based on latency and cost targets, caching strategies for repeated queries, and the infrastructure changes that cut your monthly AI bill without degrading output quality.
Tools and technologies we use in this practice, chosen for fit, not familiarity.
Consistent across every engagement, adapted to your constraints, not the other way around.
We map your current stack, model providers, vector stores, pipeline triggers, and observability gaps. Output: a written architecture decision record with a prioritised list of infra risks and a proposed target state.
Cloud environments, agentic orchestration scaffolding, and vector DB setup deployed in two-week phases. Each phase ships something to production, we don't hold back until the full architecture is complete.
Dashboards, eval pipelines, and runbooks your team owns. We consider the engagement done when your engineers can deploy a new agent, monitor its quality, and roll it back, without us in the loop.
Cloud agentic infrastructure is the set of cloud-native services, orchestration layers, data pipelines, and security controls that underpin AI agent systems in production. It covers compute for inference, vector databases, message queues for agent coordination, observability tooling, and the networking and IAM policies that keep agentic workloads secure and compliant at scale.
7code designs and deploys agentic infrastructure on AWS, Google Cloud Platform, and Microsoft Azure. For clients with existing cloud commitments, 7code works within the incumbent provider. Multi-cloud and hybrid architectures — where sensitive model inference stays on-premises while orchestration runs in the cloud — are supported for regulated industries.
AI workloads have fundamentally different profiles from conventional applications: they require GPU or TPU compute for inference, low-latency access to vector databases, high-throughput pipelines for data ingestion, and sophisticated observability to monitor model behaviour over time. Standard cloud setups are inadequate — purpose-built agentic infrastructure reduces cost, latency, and operational risk significantly.
7code uses a combination of model quantisation, intelligent caching of frequent LLM responses, spot/preemptible compute for batch inference, auto-scaling groups calibrated to actual traffic patterns, and CDN-layer caching for static AI outputs. Infrastructure is right-sized during a two-week Architecture Review before build, preventing over-provisioning from day one.
7code designs infrastructure with horizontal scalability as a first principle: stateless inference services behind load balancers, Kubernetes-managed autoscaling, queue-based decoupling of agent tasks from inference compute, and database sharding strategies for vector stores. Load and stress testing is conducted before go-live; scaling thresholds are documented so clients can manage growth without emergency rearchitecting.
Security is embedded at design time: IAM roles follow least-privilege principles, all data at rest and in transit is encrypted, network segmentation isolates AI workloads from general systems, and audit logs capture all model interactions. For EU clients, infrastructure is GDPR-compliant by design. Regulated sectors receive additional controls aligned to sector-specific frameworks.
Standard observability includes: model latency and error rate dashboards, token usage and cost tracking per agent, anomaly detection on output distributions, human-in-the-loop review queues for flagged outputs, and alerting for infrastructure events. 7code typically delivers observability via Grafana, Datadog, or AWS CloudWatch depending on the client’s existing tooling.
7code conducts a Legacy Infrastructure Assessment to map existing systems, identify integration points, and define a phased migration path that keeps current operations running throughout. Migration is staged: infrastructure is rebuilt in parallel, workloads are migrated incrementally with rollback capability, and the legacy system is decommissioned only after the new architecture is validated in production.




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