The age of AI-powered applications is here. From generating text and images to complex data analysis, integrating AI models can provide incredible value to your users. But this power comes with a challenge: AI model inference can be slow. Running a complex model can take anywhere from a few seconds to several minutes, and if you do this during a user's web request, you're heading for disaster.
Users will be stuck staring at a loading spinner, your server's request queue will back up, and you'll inevitably hit request timeouts. The result? A sluggish, unresponsive application and a frustrating user experience.
The solution is to move this heavy lifting out of the main request-response cycle. It's time to offload your AI model inference to background workers.
Imagine a user types a prompt into your application to generate an image. They click "Generate," and your server gets to work.
This synchronous process locks up your application's main thread. Your user can't do anything else, and your server can't handle other requests efficiently. This pattern simply doesn't scale and creates a poor user experience.
A background worker is a separate process that runs independently of your main application. It's designed specifically to handle long-running or resource-intensive tasks without blocking the user interface.
By using a background worker, the workflow changes dramatically:
This asynchronous approach is the key to building scalable, responsive, and robust applications. But setting up and managing message brokers, job queues, and worker infrastructure can be complex and time-consuming.
This is where worker.do shines. Our Agentic Workflow Platform turns complex background processes into simple, manageable Services-as-Software. We provide a single, powerful API to manage everything for you, so you can focus on your application's logic, not on infrastructure.
With worker.do, offloading an AI task is as simple as enqueuing a job. There's no need to configure servers, manage job queues, or worry about scaling.
Here’s how you could queue an AI image generation task using the worker.do SDK:
import { Dô } from '@do/sdk';
// Initialize the .do client with your API key
const dô = new Dô(process.env.DO_API_KEY);
// Enqueue a new AI job to be processed by a worker
async function queueImageGeneration(prompt: string) {
const job = await dô.worker.enqueue({
task: 'generate-image-from-prompt',
payload: {
prompt: prompt,
style: 'photorealistic',
dimensions: '1024x1024'
}
});
console.log(`AI Job ${job.id} enqueued successfully!`);
return job.id;
}
That's it. With one API call, you've successfully offloaded a potentially long-running task. Our platform handles the rest:
While worker.do is perfect for AI model inference, its power extends to any long-running task. Use it to:
By adopting an asynchronous-first mindset with worker.do, you can build more resilient, scalable, and responsive applications. Stop letting long-running tasks dictate your user experience.
Ready to simplify your background processes? Get started with worker.do today and turn your complex backend workflows into a single API call.
Q: What is a background worker?
A: A background worker is a process that runs separately from your main application, handling tasks that would otherwise block the user interface or slow down request times. Common examples include running AI model inferences, sending emails, processing images, or generating reports.
Q: How does worker.do handle scaling?
A: The .do platform automatically scales your workers based on the number of jobs in the queue. This means you get the processing power you need during peak times and save costs during lulls, all without managing any infrastructure.
Q: What types of tasks are suitable for worker.do?
A: Any long-running or resource-intensive task is a great fit. This includes running AI model inferences, video encoding, data analysis, batch API calls, and handling scheduled jobs (cron).
Q: How are job failures and retries managed?
A: .do provides built-in, configurable retry logic. If a job fails, the platform can automatically retry it with an exponential backoff strategy, ensuring transient errors are handled gracefully without manual intervention.