Uploaded August 2026 | Updated September 2026, 1 week ago
The network capacity lifecycle, from demand signal to production operations, is a pipeline. Each stage consumes the output of the previous one, and failures compound downstream. A bad forecast leads to a bad design; a bad design leads to a painful deployment; a painful deployment leads to operational fragility.
The AI-native effort asks: what if every stage of this pipeline had an AI agent as a first-class participant? An AI agent can act as a force multiplier, automating the mechanical, surfacing the non-obvious, and closing feedback loops that today take weeks or months.
Learn more about the @Scale conferences here: atscaleconference.com
The network capacity lifecycle, from demand signal to production operations, is a pipeline. Each stage consumes the output of the previous one, and failures compound downstream. A bad forecast leads to a bad design; a bad design leads to a painful deployment; a painful deployment leads to operational fragility.
The AI-native effort asks: what if every stage of this pipeline had an AI agent as a first-class participant? An AI agent can act as a force multiplier, automating the mechanical, surfacing the non-obvious, and closing feedback loops that today take weeks or months.
Learn more about the @Scale conferences here: atscaleconference.com

![Evolving GenAI Media Infrastructure Deployments | Rushaan Mahajan, Sima Labs
This presentation by Rushaan Mahajan from Sima Labs explores how to optimize video generation infrastructure to meet the growing demand for personalized, high-quality video experiences.
Video generation is a computationally intensive process that requires significantly more resources than text generation, leading to high latency and costs. [00:35]
The key challenges in video inference include the iterative denoising loop, the memory and bandwidth bottleneck in the VAE decoder, and the need to optimize the entire runtime stack to achieve real-time, high-fidelity, and personalized video generation at scale.
Optimizing the balance between the VAE compression ratio and the denoiser complexity is crucial to reducing the overall computational cost of the video generation pipeline. [09:52]
Techniques like latent space compression, sampling optimization, caching, and pruning can significantly improve the runtime efficiency of video diffusion models without compromising quality. [11:39]
A multi-GPU strategy that utilizes different GPU types for different tasks (base generation, super-resolution, personalization) can help scale video generation without proportional cost increases. [13:35]
The goal is to make personalized video generation truly instant, transitioning it from a compute-bound novelty to a mainstream, interactive, and globally relevant platform. [13:57] Evolving GenAI Media Infrastructure Deployments | Rushaan Mahajan, Sima Labs](https://i.ytimg.com/vi/PrZpl4w1Lxk/mqdefault.jpg)








