A startup AI company needs to train a custom computer vision model but expects their compute demands to fluctuate wildly over the next six months. Why would they choose cloud-based GPU instances rather than purchasing on-premises hardware?
Select an answer to reveal the explanation.
Short Explanation and Infographic
Imagine your boss walks in and says, 'Hey, we need to train a new model by Friday, and we need 64 H100 GPUs to do it.' If you're running on-premises, you're in trouble. You'd have to write a purchase order, wait months for shipping (assuming there isn't a chip shortage!), configure the power, rack the servers, and hook up the cooling. That's a nightmare for a fast-moving team! With cloud GPU services, you just log into your portal, spin up the instances, and you're training in minutes. When you're done, you tear them down so you're not paying for idle silicon. This on-demand scalability is the absolute biggest selling point of the cloud. You avoid the massive upfront capital expense (CapEx) and the logistics headache. Now, don't get fooled on the exam: cloud GPUs don't magically write your code or make latency disappear—in fact, on-premises is usually faster for local latency. But for flexibility? Cloud wins every day.
Full explanation below image
Full Explanation
The primary operational benefit of cloud-hosted GPU services (such as AWS EC2, Google Cloud Vertex AI, Azure ML, or specialized bare-metal GPU clouds) is elastic scalability and speed-to-market. AI and ML development is characterized by highly variable resource demands—teams may need hundreds of GPUs for a short training run, and then only a few for inference or development. Acquiring physical GPUs on-premises involves major capital expenditure (CapEx), hardware supply chain delays, and significant engineering effort to design, power, cool, and network the infrastructure. Cloud GPUs convert these costs into operational expenditures (OpEx) and allow resources to be provisioned or de-provisioned programmatically in minutes, matching the hardware footprint directly to project demands. Let's analyze the incorrect options: - Option B is incorrect because cloud platforms do not automate the design and optimization of custom AI models without human intervention. While Auto-ML tools exist, they are software services and not an inherent feature or operational advantage of renting GPU compute instances. - Option C is incorrect because cloud solutions do not eliminate network latency. In fact, moving large datasets to and from the cloud can introduce significant network latency and data egress fees, whereas on-premises setups often have lower latency for localized operations. - Option D is incorrect because cloud GPUs do not guarantee faster training times. A GPU of the same model (e.g., an A100 in the cloud vs. an A100 on-premises) will perform similarly; software bottlenecks, poor data pipelines, or mismatched model sizes can still result in slow training times.