Skip to main content

Async review

Instruction and application
In Progress

Recap core topics:

Unit 1:

Fundamentals of ML Model Deployment

Unit 2:

Risk Management in Model Deployment

Unit 1: Fundamentals of ML Model Deployment

In Unit 1, you explored…

What ML deployment really means

Making trained models available for real-world use and understanding how this differs from traditional software deployment.

Core MLOps concepts

Practices that combine ML, DevOps, and automation to ensure models can be reliably deployed, monitored, and maintained.

Containerisation

Using tools like Docker to package ML models and their dependencies for consistent and reproducible deployments.

Deployment workflows

Designing robust CI/CD pipelines, versioning models and code, and using strategies like blue/green and canary releases to manage change safely.

Monitoring and logging

Setting up systems to track performance, detect drift, log anomalies, and trigger alerts — ensuring models remain accurate and useful over time.

Model governance

Applying traceability, documentation, audit logs, and ethical safeguards to ensure responsible, reproducible, and compliant ML operations.

Unit 2: Risk Management in Model Deployment

In Unit 2, you explored…

Understanding deployment risks

across technical, operational, business, and ethical dimension including drift, security gaps, and regulatory exposure.

Evaluating deployment approaches

such as batch, real-time, and edge, each with distinct risk profiles, especially in automated pipelines.

Applying safe transition strategies

such as dark launches, A/B tests, and canary or blue/green deployments to minimise disruption and enable early issue detection.

Developing mitigation plans

that include robust monitoring, rollback mechanisms, explainability tools, and compliance safeguards.

Analysing real-world scenarios

to identify and address risks related to latency, security, and regulations with targeted, practical solutions.

Why monitoring matters in ML production

  • Monitoring is not just about system uptime — it’s about model health.
  • Key metrics include:Model performance (e.g., accuracy, F1 score).

Prediction latency and failure rates

.

Input data characteristics

(e.g., missing values, feature distribution shifts).

  • Effective monitoring helps detect issues like model drift, silent failures, and unexpected input formats early.

Monitoring as a risk mitigation tool

  • Deployed models face technical, operational, and business risks.
  • Data drift is a major technical risk, where real-world input data changes over time, reducing model accuracy.
  • This can lead to poor decisions, customer dissatisfaction, or regulatory issues.
  • Monitoring is the first line of defence against drift and performance degradation.

What is data drift?

Data drift is a change in the distribution of input data over time in a production environment, which can reduce model prediction accuracy.

Action item: Monitoring and model risk poll

Let’s do a quick pulse check on key concepts from Units 1 and 2! This poll explores monitoring practices and model risks in real-world deployments. No pressure — just choose what makes the most sense based on what you’ve learned.

What’s the most important reason to monitor input data after deploying a machine learning model?
Sign in to vote.
Which scenario best represents data drift in production?
Sign in to vote.
Why is monitoring considered a key part of ML risk mitigation?
Sign in to vote.
In progress