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Machine Learning Operations (MLOps): Best Practices for Production AI
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Machine Learning Operations (MLOps): Best Practices for Production AI

Neural Intelligence

Neural Intelligence

6 min read

A comprehensive guide to MLOps—the discipline of deploying, monitoring, and maintaining machine learning systems in production.

What is MLOps?

MLOps (Machine Learning Operations) combines ML, DevOps, and data engineering to deploy and maintain ML systems in production reliably and efficiently.

Why MLOps Matters

The Production Gap

Stage% of Projects
Proof of concept100%
Pilot50%
Production20%
Scaled production10%

Most ML projects fail to reach production. MLOps bridges this gap.

Key Challenges

ChallengeDescription
ReproducibilitySame code, different results
VersioningData, code, and models
MonitoringModels degrade silently
ScalingNotebooks don't scale
CollaborationData scientists vs engineers

MLOps Lifecycle

Complete Pipeline

Data Pipeline:
├── Collection
├── Validation
├── Transformation
└── Feature Store

Training Pipeline:
├── Experiment tracking
├── Model training
├── Hyperparameter tuning
└── Model validation

Deployment Pipeline:
├── Model packaging
├── Testing
├── Deployment (canary/blue-green)
└── Serving infrastructure

Monitoring Pipeline:
├── Performance metrics
├── Data drift detection
├── Model drift detection
└── Alerting and retraining

Core Components

Experiment Tracking

ToolFeaturesPricing
MLflowOpen source standardFree
Weights & BiasesVisualization focusFree tier + paid
Neptune.aiCollaborationFree tier + paid
Comet MLLLM supportFree tier + paid

What to Track

import mlflow

with mlflow.start_run():
    mlflow.log_param("learning_rate", 0.01)
    mlflow.log_param("epochs", 100)
    mlflow.log_metric("accuracy", 0.95)
    mlflow.log_metric("loss", 0.05)
    mlflow.log_artifact("model.pkl")
    mlflow.log_model(model, "model")

Feature Store

PlatformTypeBest For
FeastOpen sourceFlexibility
TectonEnterpriseScale
DatabricksIntegratedDatabricks users
AWS SageMaker FStCloud-nativeAWS users

Purpose

  • Feature reuse across models
  • Point-in-time correctness
  • Online/offline consistency
  • Feature versioning
  • Feature monitoring

Model Registry

RegistryIntegration
MLflow RegistryMLflow ecosystem
AWS Model RegistrySageMaker
Azure ML RegistryAzure ML
Vertex AI RegistryGoogle Cloud

Capabilities

  • Model versioning
  • Stage management (dev/staging/prod)
  • Approval workflows
  • Lineage tracking
  • Deployment automation

Deployment Patterns

Serving Options

PatternLatencyThroughputUse Case
REST APIMediumMediumWeb apps
gRPCLowHighInternal services
BatchHighVery highOffline processing
StreamingLowHighReal-time events
EdgeLowestLowIoT, mobile

Deployment Strategies

StrategyRiskRollback
RecreateHighFull
RollingMediumGradual
Blue-GreenLowInstant
CanaryLowestInstant
A/B TestingLowPer-user

Example: Canary Deployment

# Traffic splitting for canary
apiVersion: networking.istio.io/v1alpha3
kind: VirtualService
spec:
  hosts:
  - model-service
  http:
  - route:
    - destination:
        host: model-v1
      weight: 90
    - destination:
        host: model-v2
      weight: 10  # Canary

Monitoring and Observability

What to Monitor

CategoryMetrics
InfrastructureCPU, memory, latency, errors
DataDistribution, quality, drift
ModelPredictions, confidence, accuracy
BusinessConversion, satisfaction, revenue

Drift Detection

from evidently import ColumnDriftReport

report = ColumnDriftReport()
report.run(
    reference_data=train_data,
    current_data=production_data
)
# Alerts if distribution shifts significantly

Monitoring Tools

ToolFocus
EvidentlyOpen-source ML monitoring
ArizeML observability platform
WhyLabsAI observability
FiddlerExplainability + monitoring
Monte CarloData observability

Infrastructure

Platform Options

PlatformBest For
AWS SageMakerFull AWS ecosystem
Google Vertex AIFull GCP ecosystem
Azure MLFull Azure ecosystem
DatabricksSpark-based workflows
Kubernetes + OSSMaximum flexibility

Open Source Stack

Complete OSS MLOps Stack:

Data: DVC + Great Expectations
Features: Feast
Training: Ray + MLflow
Serving: KServe / Seldon
Monitoring: Evidently + Prometheus/Grafana
Orchestration: Airflow / Kubeflow
Infrastructure: Kubernetes

LLMOps Extension

LLM-Specific Concerns

ConcernSolution
Prompt versioningPrompt management tools
Cost trackingToken monitoring
Quality evaluationLLM-as-judge, human eval
HallucinationGuardrails, RAG
LatencyCaching, model selection

LLMOps Tools

ToolFocus
LangSmithLangChain debugging
Prompt LayerPrompt management
HeliconeLLM observability
PortkeyGateway + observability

Best Practices

Maturity Levels

LevelCharacteristics
0: ManualJupyter notebooks, no versioning
1: BasicVersion control, some automation
2: AutomatedCI/CD for ML, proper testing
3: MonitoredFull monitoring, drift detection
4: OptimizedAuto-retraining, continuous learning

Key Recommendations

PracticeDescription
Version everythingCode, data, models, configs
Automate testingUnit, integration, model tests
Monitor proactivelyDon't wait for problems
Document thoroughlyReproducibility matters
Plan for retrainingModels decay

Getting Started

Quick Start Path

WeekFocus
1Version control + experiment tracking
2Model packaging + basic serving
3Testing + CI/CD
4Monitoring setup
5+Optimization and scaling

Minimum Viable MLOps

Start With:
✅ Git for code
✅ MLflow for experiments
✅ Docker for packaging
✅ GitHub Actions for CI
✅ Basic monitoring (latency, errors)

"MLOps isn't about using every tool—it's about having the right processes to reliably operate ML systems. Start simple, add complexity as needed."

Neural Intelligence

Written By

Neural Intelligence

AI Intelligence Analyst at NeuralTimes.

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