SearcharxivSearch

arXiv subjects

Victor Zhirnov

Publications and source records attributed to Victor Zhirnov.

2 recordsLinked to original sources

A Prior-Predictive Monte Carlo Framework for Pricing Complex Data Products in Data-Poor Markets

Pricing advanced data products - particularly in complex fields such as semiconductor manufacturing - is a fundamentally challenging task due to the sparsity of publicly available transaction data, and its frequent heterogeneity and confidentiality. While data value depends on multiple interacting factors, such as technical sophistication, quality, utility, and licensing rights, traditional pricing methods tend to rely on ad-hoc heuristics or require massive amounts of historical transaction data. In an increasingly data-based economy, we introduce a prior-predictive Monte Carlo framework that enables the generation of fair, consistent, and justified price ranges for data products in the absence of empirical data. By simulating many plausible pricing 'worlds' and deal configurations, the framework produces stable probabilistic price bands (e.g., P5/P50/P95) rather than single point estimates, creating an auditable and repeatable probabilistic pricing system with business realism enforced via constraint-truncated priors. The proposed model bridges traditional data pricing rooted in professional experience with a data-based approach that also allows for classical Bayesian updating as more transaction data is accumulated.

q-fin.CP

When Intelligence Overloads Infrastructure: A Forecast Model for AI-Driven Bottlenecks

The exponential growth of AI agents and connected devices fundamentally transforms the structure and capacity demands of global digital infrastructure. This paper introduces a unified forecasting model that projects AI agent populations to increase by more than 100 times between 2026 and 2036+, reaching trillions of instances globally. In parallel, bandwidth demand is expected to surge from 1 EB/day in 2026 to over 8,000 EB/day by 2036, which is an increase of 8000 times in a single decade. Through this growth model, we identify critical bottleneck domains across access networks, edge gateways, interconnection exchanges, and cloud infrastructures. Simulations reveal that edge and peering systems will experience saturation as early as 2030, with more than 70% utilization of projected maximum capacity by 2033. To address these constraints, we propose a coevolutionary shift in compute-network design, emphasizing distributed inference, AI-native traffic engineering, and intent-aware orchestration. Security, scalability, and coordination challenges are examined with a focus on sustaining intelligent connectivity throughout the next digital decade.

cs.NI