Mar 18, 2026•By Yahya
MLOps in Production: Building Automated Pipeline Infrastructure with Kubeflow & MLflow
Architecting end-to-end MLOps automation with Kubeflow pipelines, MLflow experiment tracking, and automated drift detection.
Training a model on a Jupyter notebook is only 10% of the machine learning lifecycle. Building repeatable, automated MLOps pipelines that track data lineage, run automated retraining, and validate model performance requires robust infrastructure.
Here is a practical architectural blueprint for enterprise MLOps.
Core Pillars of an MLOps Engine
- Feature Store: Centralized feature registry (e.g. Feast) ensuring zero training-serving skew.
- Experiment Tracking: MLflow or Weights & Biases for logging hyperparameters, loss curves, and artifact binaries.
- Pipeline Orchestration: Kubeflow Pipelines or Argo Workflows for multi-step DAG execution on Kubernetes.
- Model Registry & Monitoring: Staging model artifacts and monitoring drift (Evidently AI) in production.
Sample Kubeflow Pipeline Definition
PYTHON
from kfp import dslfrom kfp.dsl import component
@component(base_image="python:3.10")def train_model(data_path: str, model_output: dsl.Output[dsl.Model]): import pandas as pd # Training code execution... with open(model_output.path, "w") as f: f.write("model binary data")
@dsl.pipeline(name="mlops-training-pipeline")def mlops_pipeline(): train_task = train_model(data_path="s3://data-bucket/train.csv")Monitoring Model & Concept Drift
Once a model is live in production, incoming request distributions inevitably drift over time. Setting up automated Prometheus metrics for output distribution shift ensures models are re-trained before performance degrades.