As enterprises transition AI projects from pilot phases to full-scale deployment, the focus has shifted from training models to sustaining thousands of concurrent inference requests. The introduction of agentic AI—systems that autonomously perform tasks—has intensified the challenge, turning infrastructure efficiency into a critical business metric.
According to Anindo Sengupta, VP of products at Nutanix, the economics of AI are undergoing a fundamental transformation. "Every AI assistant deployed, every automated workflow, and every agent pipeline relies on continuous inferencing," he explains. "These requests demand specialized GPU resources, high-speed networks, and storage systems designed specifically for AI workloads."
The paradox: cheaper tokens, higher total costs
The cost per token for AI inference has plummeted over the past two years, thanks to improvements in model efficiency and competitive pressure among cloud providers. Data shows costs have dropped by nearly an order of magnitude. Yet, total infrastructure expenses are climbing. Sengupta attributes this to what economists call the Jevons paradox: as a resource becomes cheaper, usage often surges disproportionately, offsetting cost reductions.
While token costs have fallen dramatically, consumption has skyrocketed more than 100-fold. This shift has elevated cost per token and GPU utilization to primary operational metrics—rivaling traditional measures like uptime and throughput. "Cost per token reflects the total cost of ownership for serving models," Sengupta notes. "Utilization ensures we maximize returns from expensive GPU assets. These metrics are now non-negotiable for enterprise IT leaders."
Optimizing these metrics is complex. Token costs fluctuate based on the models in use, where workloads run, and how prompts are structured. "There are too many variables to manage intuitively," Sengupta adds. "It’s an engineering challenge that demands continuous tuning."
Why traditional infrastructure struggles with agentic AI
Agentic AI introduces a workload profile alien to traditional enterprise systems. Classic data centers are built for predictable, scheduled tasks—agentic environments, by contrast, generate unpredictable, high-frequency bursts of short-lived inference requests. These workloads place unprecedented demands on networking, storage, and compute resources, outpacing the design of legacy infrastructure.
The infrastructure required for agentic AI differs fundamentally from CPU-based computing. High-speed GPU interconnects, parallel storage for agent memory and key-value caches, and networking architectures with DPU offloading capabilities are now essential. These components demand new operational expertise and integrated management.
Siloed infrastructure exacerbates the problem. When GPU resources, networking, and storage operate in isolation, inefficiencies compound. Organizations often underutilize expensive GPUs while simultaneously bottlenecked by storage or network throughput. This fragmentation inflates costs and slows deployment cycles.
The rise of full-stack AI platforms
In response, infrastructure vendors are increasingly adopting full-stack, tightly integrated platforms tailored for production AI. The rationale is clear: end-to-end optimization across compute, networking, storage, and software layers yields better utilization and lower per-token costs than piecing together best-of-breed components from disparate vendors.
Nutanix’s Agentic AI solution exemplifies this approach. Built on the Nutanix AHV hypervisor, Nutanix Enterprise AI, and Nutanix Kubernetes Platform, the solution bridges traditional compute layers—where agent orchestration runs—and accelerated compute layers for inference. It introduces NVIDIA topology-aware enhancements to AHV, automatically optimizing GPU, CPU, memory, and DPU allocations to virtual machines. Additionally, Nutanix Flow Virtual Networking offloads tasks to BlueField DPUs, freeing GPU cycles without compromising security.
The platform supports instant deployment of NVIDIA NIM microservices and open-source models like Nemotron. It also integrates an AI gateway that governs access to leading cloud LLMs from Anthropic, Google, and OpenAI, implementing the Model Context Protocol (MCP) for secure enterprise data connectivity. Compatibility with Cisco infrastructure allows organizations to deploy on existing hardware.
"By integrating everything from the AHV hypervisor and Flow Virtual Networking up to the Kubernetes platform, we eliminate the silos that bottleneck AI projects," Sengupta states.
Balancing platform control and developer agility
As agentic AI adoption grows, organizations face a critical tension: balancing platform team oversight with developer agility. Platform teams manage shared infrastructure, enforcing governance and cost controls, while developers prioritize rapid iteration and application performance. Historically, these priorities have clashed, but integrated full-stack platforms aim to reconcile them.
By providing pre-validated, end-to-end solutions, organizations can reduce the complexity of managing disparate tools. This enables developers to focus on building agentic applications while platform teams maintain visibility and control over resource usage and costs. The result is faster deployment cycles, improved collaboration, and a more predictable path to scaling AI initiatives.
The future of enterprise AI hinges on infrastructure that can adapt to the demands of agentic workloads. As tokens grow cheaper and workloads more dynamic, the winners will be those who optimize not just for cost per token, but for the total cost of ownership and operational efficiency. The shift is underway—and the infrastructure choices made today will define the AI landscape of tomorrow.
AI summary
AI projelerini tam ölçekli dağıtıma taşırken şirketler, altyapı maliyetlerini düşürmek için agentic AI'nin zorluklarına çözüm arıyor. Tam yığın AI platformları, daha iyi kullanım ve düşük token maliyetleri sunuyor.


