AI Architecture
We build RAG pipelines on pgvector and Pinecone, and design agent orchestration with LangGraph. Guardrails keep retrieval grounded, so every output traces back to its source documents.
We build RAG pipelines on pgvector and Pinecone, and design agent orchestration with LangGraph. Guardrails keep retrieval grounded, so every output traces back to its source documents.
We deploy training and serving pipelines on Kubeflow, provision infrastructure with Terraform, and track experiments with MLflow. Any environment can be rebuilt exactly, and a change gets from commit to production faster.
We run Kubernetes clusters on EKS and GKE, and automate node scaling and cost allocation with Terraform. Prometheus and Grafana keep infrastructure observable and costs in check.
We configure multi-AZ deployments, automated failover through Route 53 health checks, and self-healing Kubernetes pods. Recovery from an outage stays under a minute.
We provision Kubernetes HPA and Karpenter-based node autoscaling on AWS and GCP. Clusters scale with real load and right-size themselves to keep cloud spend in check.
SageMaker for model training, Lambda for event-driven logic, S3 for data lakes, CloudWatch for alerting: we combine these into AWS architectures built for workloads with strict compliance and audit requirements.
We set up CI/CD with GitHub Actions and ArgoCD, monitor services with Prometheus and Grafana, and configure PagerDuty alerting. Teams ship daily with full visibility into what's running.
We connect ML models to production applications through typed API contracts, structured logging, and circuit breakers. Predictions are served behind clear failure boundaries, with fallback paths in place.
We implement IAM policies, VPC isolation, encryption at rest with KMS, and audit logging for SOC 2 and GDPR. We put these controls into the deployment pipeline on the first day, so nobody has to add them later.
We build computer vision systems that run in production, from the first dataset to deployment. We design them to be reliable, easy to improve, and suited to the conditions they will actually work in.
We build inference pipelines with ONNX Runtime and TensorRT, served behind FastAPI endpoints with health checks and structured logging. Every prediction is traceable.
We manage datasets with DVC for versioning and Label Studio for annotation. In our experience, careful review of the data improves accuracy more than moving to a bigger model.
We train RT-DETR and custom detection models with reproducible MLflow experiments, deploy through canary rollouts, and retrain on feedback from production.
We deploy vision models to edge devices (Jetson, Coral) for low-latency inference, and to GPU-backed Kubernetes for cloud workloads. Latency, throughput, and cost get profiled before anything goes live.
We version datasets with Git LFS and S3-backed storage, so training runs can be compared side by side. When a model regresses, the issue traces back to the exact data change that caused it.
We monitor prediction confidence with Prometheus, flag distribution drift with Evidently, and route low-confidence samples to human reviewers. Models stay accurate as real-world data shifts.
Kaya reads the tower light on each machine through the cameras your factory already has, and reports how many hours each machine actually ran. Nothing is fitted to the machines.
Kaya reads each machine's tower light as green, amber, red or off, and turns that into hours per machine, per day and per shift. When the light is amber and nobody is at the machine, that time is shown separately and not counted.
Kaya uses the cameras already on the factory floor. You don't add sensors, wiring or a PLC connection. If your camera recorder can only be reached from inside the factory, one small computer sits on your network, and it touches no machine. Brand and age don't matter: CNC, presses, injection moulding, packaging lines and any other machine with a tower light.
Any hour in a report opens into the camera frames it was measured from, with the light colour Kaya read and how confident it was. If the camera could not see the light, that time is marked as no data, never as zero.
Glotech is an AI infrastructure and MLOps consultancy focused on taking AI systems from development into reliable production.
No. AWS is a major part of our work, but Glotech also works with Google Cloud and cloud-agnostic technologies such as Kubernetes, Terraform, Docker, Prometheus, Grafana, and MLflow.
No. Kaya is a product developed by Glotech for equipment-runtime measurement. Glotech's consultancy work and Kaya are separate offerings.