Before You Build: A Diagnostic for AI Infrastructure That Won’t Break Later
Before you lock in your AI architecture, pause.
Most teams are defaulting to the cloud without asking how compliance, cost, or architecture constraints will shape their real-world deployment.
By then, it’s not a pivot. It’s a rebuild. And the business ends up trying to catch up instead of getting the advantage.
They assume “cloud” means flexibility.
But they ignore where the data has to live, or who has to sign off. They skip the questions that actually matter. Then procurement blocks the region. Legal flags a compliance issue. And the project stalls. Six weeks in, everything’s on hold.
This is a diagnostic for teams that want AI to run reliably—not just in dev, but in production, under real constraints.
We’ll map the landscape for AI, tie each to real infrastructure constraints, and show you the breakpoints where your decisions today cost six figures to undo.
Use this to build your AI infrastructure roadmap.
The AI Landscape for Infrastructure
Before you even think about infrastructure, you need to understand what kind of AI workload you're actually trying to run. Most teams treat "AI" as if it were one thing.
It's not.
It's a broad, emerging field defined by different use cases.
If you don’t know where your use case sits, you’ll end up committing to the wrong architecture. To better understand your requirements, you should have a firm grasp of the categories.
1. Data Science (Manual)
This is the foundation. You're using mathematical models to manually analyze data. For example, to identify churn risk by finding patterns in historical data. You run the numbers manually.
Think: statistical analysis with human judgment.
2. Machine Learning (Automated)
Same idea, but instead of crunching the numbers yourself, you're feeding data into a system that identifies patterns automatically. You’re still categorizing and scoring things, such as classifying images or predicting risk. However, the machine calculates the weights and gets more accurate over time with more data.
3. Large Language Models (LLMs)
This is where most of the noise is. LLMs like LLaMA, DeepSeek, and OpenAI models are trained on massive datasets to generate human-like text, code, or even multilingual output.
They're efficient at generating language, but not necessarily accurate. That’s why you need guardrails to prevent hallucinations, security issues, or bad medical/legal advice.
4. Specialized Visual Models
Not every AI model deals in language or numbers. Some work with pixels.
Visual Models: If you're generating images from prompts (think diffusion models like Stable Diffusion) you're dealing with heavy GPU workloads, usually cloud-hosted. Creative teams use them for media, design, or synthetic data. Most orgs shouldn’t build this themselves.
Visual Interpretation Models: If you're interpreting images (spotting defects, analyzing scans, reviewing footage) you're using visual interpretation models like IBM’s Granite. These often need to run close to the data, with stricter control over latency and compliance.
Both require serious GPU planning. If you treat vision models like LLMs, you’ll overspend and underperform.
The Infrastructure You Think You Need vs. What You Need
A. Running Pre-Trained Models
You can download and run models like LLaMA on-prem or in your own cloud environment. This doesn’t take massive compute (maybe 10–15 GPUs). It’s viable for most orgs that want to build chatbots or internal tools without leaking data.
B. Training Custom Models
Completely different ballgame. This is where you need massive GPU fleets, extreme power, and huge datasets. There are additional costs that firms often overlook. For example, Meta’s AI facility consumes 500,000 gallons of water daily to cool its training operation.
Unless AI is your business, you’re not doing this on-prem. You’ll need to go all-in on cloud. If you don’t know why you need a custom model, you likely don’t.
Bottom line: If you're just trying to solve a business problem, start with a pre-trained model. Try it. If it fails, then consider training.
Don’t jump straight to infrastructure for training unless you already know the existing options won’t work. Otherwise, you’re overbuilding and locking yourself into a dead-end.
What Are You Trying to Do with AI?
Companies only have three real starting points:
1. You're testing the waters. You're not committed to a long-term AI strategy, but you're exploring what's possible. In that case, use a pre-trained model. Run it in the cloud. See if it gives you anything valuable.
2. You know your use case and want to operationalize it internally without sending data outside your walls. This means running pre-trained models in a private cloud or on-premises. This is where infrastructure agility matters.
Note: Teams using platforms like OpenShift already have that portability baked in. Others need to plan for it upfront.
3. You want to train your own model. This is for firms specializing in AI. If you don't or don’t know exactly why you need your own model, stop. You're about to spend a lot of money for nothing.
And if you haven’t proven your use case with a pre-trained model, don’t even consider training your own. Test first. Then decide.
This is where most teams make bad calls. They get pressure from execs or the board to "do something with AI". So they reach for the most complex, expensive option without validating if it's even necessary.
Then, they sink time and budget into infrastructure that doesn’t fit the job. Security gets bolted on too late. The use case shifts halfway through. Suddenly they’re rebuilding systems or scrapping projects entirely.
Use this moment to check your motives:
- Are you reacting to hype?
- Are you trying to build differentiation or just follow competitors?
- Have you tried existing models on your real problem?
If the answer to that last question is no, stop here. Go try a pre-trained model. If it doesn’t work, now you have a reason to explore further.
If it does? Great. You just saved six months and a ton of money.
Which AI Use Case Best Fits Your Firm?
Use the chart to pressure-test your assumptions about AI infrastructure before you scope out a project or try to build a POC.
Use Case Category |
Infrastructure Implication |
Can Shadow-Soft Support? |
Pre-trained LLM, small-scale, basic API |
SaaS/cloud default fine |
Low fit |
Pre-trained LLM with private data |
infrastructure agility required |
Strong fit |
ML workloads plus compliance risk |
infrastructure agility critical |
Strong fit |
Custom model training |
100k+ GPUs, cloud only |
Not a fit unless ISV |
Note: OpenShift-based platforms or Red Hat AI pipelines give teams control over where models run and how quickly they can scale.
Every use case has an infrastructure implication. Most teams don’t map this out early. They just default to whatever’s trending. That’s a mistake.
If you're just hitting APIs for SaaS based models, you’re not building infrastructure. You don’t need a private cloud. You can do everything in a public AWS or Azure.
But if you're dealing with PII, internal-only data, or you have to stay in compliance with strict controls, then you need on-prem, private, or a blend. That’s where infrastructure agility comes into play. That’s where running a pre-trained model behind your firewall starts to make sense.
And if you're one of the rare orgs training custom models? You're already committed to the cloud. You're managing GPU clusters and watching usage metrics like a hawk. You're beyond discovery and deeply involved.
Kubernetes Today Decides Your Flexibility Tomorrow
Teams say: “We want to start in the cloud, but keep the option to go on-prem later.”
But this is a strategic question about infrastructure agility.
If you don’t plan for portability upfront, you won’t get it later. Kubernetes makes that agility possible by providing the abstraction layer that enables cloud-to-on-premises portability.
To get that portability, it has to be implemented properly.
If you start with EKS and think you’ll just shift to bare metal later, good luck. Many of the features in EKS are based on AWS natives like IAM policies which can be tricky to replicate on-premise.
The platform matters.
Red Hat OpenShift AI takes Kubernetes and makes it real for enterprise infrastructure teams validated, supported, and tuned for production. Without it, you're stitching it together yourself.
This is where most infrastructure plans fall apart.
They assume the move is easy.
It’s not.
Red Hat OpenShift AI for Production-Ready AI Infrastructure
You can run Kubernetes yourself. But if you're supporting AI workloads, that’s not enough.
You need GPUs validated for your platform. You need security baked into the stack. You need pipelines, observability, and compliance—all built in.
That’s where Red Hat OpenShift AI provides support.
It takes Kubernetes and wraps it with everything infrastructure teams need to run AI reliably: certified runtimes, GPU orchestration, and production support from day one. Built on OpenShift, it provides your team a real abstraction layer so cloud-to-on-prem portability isn’t just theoretical.
You get a path forward that works now and scales later.
Where Most AI Pilots Stall [Examples]
Even smart teams get this wrong. They start building with the wrong assumptions, and infrastructure decisions come back to bite.
Here are a few common failure patterns worth recognizing early:
1. Region constraints kill the momentum
A team builds an Azure OpenAI POC under a Global (or wrong Data Zone) deployment. It processes requests outside the approved geography. When compliance circled back, they realized they picked the wrong deployment type.
The infrastructure is rigid with everything tied to that Azure resource's configuration. They have to rebuild the pipelines, redeploy into the correct region or zone, and restart validation. The model functions fine, but the architecture failed.
2. Compliance blocks SaaS after the build starts
A healthcare org prototypes a cloud-hosted AI assistant to summarize patient intake. Legal reviews it late and flags a hard block: no PHI can leave the network.
The model can’t run on-prem. The team has to rebuild from scratch, including vendor selection and compliance review.
3. Infrastructure costs derail the rollout
The pilot is impressive. Leadership backs it. But once the team models real-world infrastructure costs (especially cloud-based GPU, network, and storage), the projected ROI drops.
When forecasted spend for real traffic and data volume spikes, the budget breaks. Leadership pauses due to the financial roadblock, the scope shrinks, and the project gets shelved.
What to Check Before You Commit to Your AI Infrastructure
You’re asking hard questions early. You’re pressure-testing assumptions. And you’re trying to build AI infrastructure with options instead of backing into a corner.
Here’s what to do next:
- Pressure test your assumptions. If you're not handling private data or compliance risk, you don’t need complex infra. But if you are, defaulting to SaaS is reckless.
- Map your constraints now. Legal, procurement, data gravity all show up late and are expensive. Plan for them now or pay for it later.
- Don’t overbuild. If you haven’t validated your use case on a pre-trained model, forget custom training. You're not ready.
Are you ready to run AI workloads?
Most infrastructure failures are organizational.
Here’s what you need to answer before you build:
Question |
Yes |
No |
Do you know which type of AI workload you're running (Data Science, ML, LLM)? |
||
Have you mapped where your data can legally reside (region, cloud, on-prem)? |
||
Do you have Kubernetes expertise (internal or trusted partner)? |
||
Have you validated your use case with a pre-trained model? |
||
Can you explain why cloud vs. private vs. on-prem matters for this use case? (And do you fully understand the costs?) |
||
Have you identified who owns the infra budget and what blockers they face? |
Note: If you can’t confidently check “Yes” across the board, you’re not ready to build infrastructure for AI.
We’ve helped teams untangle this before the budget gets wasted. If your internal plan has gaps or your vendor can’t explain your path off the public cloud, we should talk.
Show us what you're building.
We’ll show you where it breaks.
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About the author
Derrick Sutherland - Chief Architect at Shadow-Soft
Derrick is a T-shaped technologist who can think broadly and deeply simultaneously. He holds a master's degree in cyber security, develops applications in multiple languages, and is a Kubernetes expert.