What is an AI workload?

An AI workload is the collection of computational tasks and processes that power artificial intelligence or machine learning (ML) systems. Think of it as the heavy-duty computing required for an AI application to learn, make predictions, or generate new content. These workloads can be essential for professionals building AI, as they encompass the key stages that drive machine learning systems: data preparation, model training, inference, and monitoring.

AI workload orchestration options

Types of AI workloads

AI and ML workloads can be broadly categorized in two ways

Understanding these types helps technical decision-makers plan for the specific infrastructure, compute power, and orchestration strategies each one demands.

AI workload type

Primary function in AI life cycle

Required computational focus

Data preparation


Cleansing, transforming, and formatting raw data into a model-ready state.

High I/O (input/output) and CPU-heavy processing for data manipulation.

Model training

Using prepared data to teach the AI model, iteratively adjusting its parameters for accuracy.

Extreme compute power (GPUs/TPUs), high memory, and parallel processing.

Model inference

Deploying the trained model to make real-time predictions or generate outputs on new data.

Low latency and high throughput, often requiring specialized edge or cloud hardware.

Generative AI

Creating new content, such as text, images, or code, using large foundation models.

Massive scale inference and fine-tuning, demanding high-end GPUs/TPUs.

Computer vision


Enabling machines to interpret and act on visual data like images and video.

High-volume data throughput and specialized deep learning acceleration.

Natural language processing (NLP)

Processing and understanding human language for tasks like translation and summarization.

A mix of GPU-accelerated training and low-latency serving for real-time applications.

AI workload type

Primary function in AI life cycle

Required computational focus

Data preparation


Cleansing, transforming, and formatting raw data into a model-ready state.

High I/O (input/output) and CPU-heavy processing for data manipulation.

Model training

Using prepared data to teach the AI model, iteratively adjusting its parameters for accuracy.

Extreme compute power (GPUs/TPUs), high memory, and parallel processing.

Model inference

Deploying the trained model to make real-time predictions or generate outputs on new data.

Low latency and high throughput, often requiring specialized edge or cloud hardware.

Generative AI

Creating new content, such as text, images, or code, using large foundation models.

Massive scale inference and fine-tuning, demanding high-end GPUs/TPUs.

Computer vision


Enabling machines to interpret and act on visual data like images and video.

High-volume data throughput and specialized deep learning acceleration.

Natural language processing (NLP)

Processing and understanding human language for tasks like translation and summarization.

A mix of GPU-accelerated training and low-latency serving for real-time applications.

Frequently asked questions about AI workloads

AI workloads are primarily characterized by being data-intensive, processing massive, often unstructured datasets, and compute-intensive, demanding specialized, parallel processing hardware like GPUs for training. Traditional workloads, like relational databases or simple web servers, are more focused on consistent transactional throughput and are typically optimized for standard CPU architectures.

You choose training workloads when you need to create a new model or significantly improve an existing one by feeding it new data, which can require high-cost, high-compute power.

You use inference workloads when your model is ready and deployed to production, and you need it to make real-time or batch predictions, which prioritize low latency and high throughput at a lower cost per transaction.

The biggest challenges typically involve orchestration, which is coordinating large clusters of GPUs and TPUs efficiently; data management, which is ensuring fast, reliable access to petabytes of data; and cost control, which is managing the consumption of expensive compute resources to prevent overspending on idle infrastructure.

Emerging trends include using serverless platforms with GPU support to abstract away infrastructure management, adopting multicloud orchestration for flexible resource utilization, and leveraging foundation models that require less from-scratch training and focus more on fine-tuning and efficient serving.

Common use cases for AI workloads

AI workloads are at the heart of digital transformation, delivering high-impact, real-world applications across nearly every industry, turning data into practical value.

Personalized customer experiences

AI workloads can power recommendation engines for retail, e-commerce, and media companies. For example, a streaming company uses a sophisticated ML model, trained on billions of viewing habits, to provide highly personalized content suggestions.

Predictive maintenance in manufacturing

Manufacturers deploy sensors on critical equipment, generating massive time-series data. AI workloads can continuously analyze this data to predict mechanical failures days or weeks in advance, allowing for scheduled maintenance.

Fraud detection and financial risk analytics

Financial institutions use machine learning workloads to analyze millions of transactions in real-time. These models can identify patterns indicative of fraud, with some systems detecting unauthorized transactions with a high degree of accuracy and low false-positive rate.

Healthcare imaging and diagnostics

Computer vision workloads are used to analyze medical images like X-rays, CT scans, and MRIs. These AI models can flag potential anomalies, such as early-stage tumors, often with speed and consistency that aids human clinicians in making faster and more accurate diagnoses.

Generative AI and content production

Workloads based on generative AI models are helping transform creative and technical fields. They're used to automatically generate marketing copy, synthesize realistic images for advertising, create virtual meeting summaries, or even assist developers by suggesting and completing code blocks.

Implementing AI workloads on Google Cloud

Google Cloud can offer a powerful, unified ecosystem built on the infrastructure that powers Google's own AI advancements, making it an ideal platform for hosting, scaling, orchestrating, and governing your AI and ML workloads.

Vertex AI is a unified machine learning platform that brings together all the cloud services for building, deploying, and scaling ML models. It can provide a single environment for the entire MLOps life cycle, letting data scientists and engineers focus on model development rather than tool integration.

Google Cloud offers a wide range of compute options, including Cloud TPU and Cloud GPU. Cloud TPUs (Tensor Processing Units) are purpose-built to provide large-scale AI models. Cloud GPUs are powered by NVIDIA Graphics Processing Unit (GPU) offer flexible, high-performance compute, for a wide range of AI and HPC workloads.


Vertex AI Pipelines allow you to automate, manage, and monitor your entire machine learning workflow using open source tools like Kubeflow. This can be essential for creating reliable, repeatable processes for data preparation, training, and deployment.

Google Cloud's Identity and Access Management (IAM) provides fine-grained controls to manage who can access and manage your AI resources, data, and models. This can ensure that only authorized personnel and services can interact with your sensitive AI workloads, helping to meet strict regulatory and security standards.

Google Kubernetes Engine (GKE) is a fully managed, scalable Kubernetes service that's crucial for running containerized AI workloads. It can allow you to orchestrate and manage complex clusters, with flexibility in hardware accelerators, and can extend your AI environment seamlessly across the public cloud and on-premises systems.

Benefits of AI workloads

Deploying AI workloads can bring significant business and technical advantages, primarily by focusing on efficiency, superior scalability, and the ability to drive data-driven innovation at speed. They can allow organizations to transition from reactive operations to a more proactive, intelligent strategy.

Scalability and accelerated performance

AI workloads, particularly in the cloud, can scale resources—like adding hundreds of GPUs—on demand to handle enormous datasets and complex models without needing a huge upfront capital expenditure.

Optimized operational costs

Cloud-based AI platforms let you pay only for the compute resources you actually use, offering help on cost optimization over maintaining dedicated, on-premises hardware clusters that sit idle for periods.

Standardized and streamlined deployment pipelines

Platforms for AI workloads use MLOps (machine learning operations) tools to automate and standardize the end-to-end life cycle, from data prep to model deployment and monitoring.

Security and governance integration

A cloud platform provides built-in security features, such as identity and access management (IAM) and network security, directly integrated with your AI environment. This helps simplify the process of meeting regulatory compliance and governance requirements.

Support for hybrid and multicloud environments

AI solutions are designed to run flexibly. They can leverage containers and orchestration tools to manage and run workloads consistently across public cloud providers.

Steps for deploying a model inference workload with Vertex AI

Deploying a trained machine learning model for inference can be a key step in productionizing an AI workload. Vertex AI simplifies this process by providing managed services that handle the underlying infrastructure.

Upload the trained model to the model registry

  • The first step is to take your trained model artifact and upload it to the Vertex AI Model Registry. This central repository securely stores and versions your models, making them ready for deployment.

Create a managed endpoint

  • Next, you create an endpoint, which is a dedicated, real-time HTTP server for your model. This endpoint is the URL that your applications will call to get predictions. You define the type of compute resources it will use, such as an N1 CPU machine or a specific type of GPU for accelerated performance.

Deploy the model to the endpoint

  • After creating the endpoint, you deploy a specific version of your model to it. This step involves specifying the container image that includes your model and the prediction server code (often a pre-built image provided by Vertex AI). You also configure traffic splits, which allow you to test a new model version with a small percentage of live traffic before rolling it out completely.

Send and receive online predictions

  • Once deployed, the model is available for online prediction. Your application sends input data (the payload) via an HTTP request to the endpoint's URL, and the managed service handles the inference workload, returning the prediction or result in near real-time.

Monitor and govern the endpoint

  • The final step is continuous monitoring. You use Vertex AI's integrated tools to track the health of the endpoint (latency, error rates, resource utilization) and the performance of the model itself (drift, skew, and prediction quality) to ensure the inference workload remains reliable and accurate over time.

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Additional resources

  • Introduction to AI/ML workloads on GKE: Google Kubernetes Engine provides a managed platform to deploy and scale containerized AI and machine learning workloads, supporting large-scale training and inference with hardware accelerators like GPUs and TPUs.
  • Design storage for AI and ML workloads: This guide helps you design storage strategies for AI and machine learning workflows, recommending services such as Cloud Storage and Managed Lustre based on specific latency, throughput, and capacity requirements.

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