SLO-aware inference optimization
Latency contracts first. Energy and cost moves are not allowed to blow TTFT, TPOT, or the tail.
About
I am an AI Infrastructure Engineer building inference systems for data centers, neoclouds, and hyperscalers. I founded Joule, an inference power economics engine connecting physical GPU energy to token throughput and SLO goodput.
I have spent over a decade building production ML systems and work across the inference stack: runtimes, distributed systems, GPUs, compilers, networking, and cluster efficiency. I architect infrastructure for serving systems built on TensorRT-LLM, TorchDynamo, SGLang, and vLLM, with a focus on high-concurrency inference at scale, from requests and tokens to GPUs, network fabric, power, cooling, and data-center capacity.
I am a doctoral researcher in HPC distributed systems, studying SLO-aware inference optimization and hardware-aware compiler design for supercomputers, and developing a digital twin for LLM inference that lets operators manage energy while protecting latency SLOs.
I build, measure, research, write about, and teach these systems. I am an Invited Expert and Faculty Member on AI Inferencing for Andreessen Horowitz Academy (The Academy SF by a16z). I teach one of the highest-rated Maven courses on AI Inference Engineering & Systems Design, an 8-week live cohort for professionals looking for an engineering-heavy, practical infrastructure deep dive, and a shorter introductory course on AI Inference for FDE and PM Roles. Ex-students have been AI Infra Founders, Head of AI, AI engineers, Solutions Architects, Principal Engineers, SWEs from FAANG, National banks and Energy companies, from across 5 continents.
I am the author of LLMOps (2025), translated into Korean, Japanese, Russian, and Simplified Chinese, and What is LLMOps (O'Reilly, 2024). My next book, GPU Engineering: AI Inference and System Design (Packt), is nearing completion, with publication planned for late 2026 or early 2027. I write ModelCraft and review for NeurIPS, ACL, EMNLP, ICML, ICLR, TMLR, and AABI.
Previously, I co-founded Abide, a research lab focused on reflective intelligence and neuro-symbolic models for agents, where I contributed platform and observability solutions for agentic reasoning in LLMs. This work was presented at NeurIPS 2025. Abide is prior work; Joule is the company I run today.
A mathematician by training, I was a visiting research scholar at UCLA's Cognitive Systems Lab from 2018-19 under Dr. Judea Pearl, ACM 2012 Turing Award Winner, where my research spanned intelligence in agents, causal inference, AutoML, and multi-agent learning.
For talks, see Speaking. For audit and advisory work, see Advisory.
Doctoral research in AI HPC distributed systems: SLO-aware inference optimization, hardware-aware compiler design, and a digital twin for energy optimization for bursty workloads.
Latency contracts first. Energy and cost moves are not allowed to blow TTFT, TPOT, or the tail.
The compiler has to see the GPU in front of it: memory hierarchy, occupancy, and the serving loop, not a generic IR.
Prefill and decode are different workloads. The twin has to see which phase is burning watts and which is blowing the tail.
SLO-aware inference optimization, hardware-aware compiler design, and a digital twin for energy optimization for bursty workloads.
Thesis: Cascading Fragility in National AI Infrastructure: A Seven-Layer Framework for Resilience Assessment and Policy Design. Master's thesis, NOVA IMS. Preparing for journal submission.
Supervisor: Dr. Judea Pearl, ACM 2012 Turing Award Winner. Research on intelligence in agents, spanning causal inference, AutoML, emotion recognition, and multi-agent learning.
Youngest postgraduate candidate at age 18. Thesis: Image Pattern Recognition using Hopfield Neural Networks. Courses included Algorithms and Computation, Game Theory, Cryptography, Control Optimization, Non-Linear Dynamics, Financial Risk Analysis, Behavioral Finance, and Quantitative Methods in Financial Modelling.
Distinction (Top 5). Thesis: Are Twin Primes Infinite? (Literature Review) Majors in pure and applied mathematics, with minors in statistics, computer science, and operations research. University record holder in Statistics.
Master's thesis, NOVA IMS. By evaluating 22 global suppliers across a seven-layer dependency model, this work quantifies how critical single points of failure in semiconductor supply chains and hyperscalers trigger cascading systemic collapse. It provides a quantitative framework to measure concentration risk, guide sovereign capacity planning, and ensure continuity for mission-critical AI services. Preparing for journal submission.
MSc Applicable Mathematics, The London School of Economics and Political Science, 2013–2014. My early research in 2014 at LSE focused on energy-based associative memory (Hopfield networks), a class of architectures now recognized as mathematically isomorphic to modern Transformer self-attention. This thread of viewing compute through physical energy landscapes informs my current work on inference economics at Joule.
BSc (Honors) Mathematics, MDU.
Working paper for DAIS 2026.
Working paper for KR 2026. OpenReview lE2UP2pZ1g.
arXiv:2509.21234. In review at GECCO 2026.
NeurIPS 2025 Efficient Reasoning Workshop.
With Shubhi Sareen.
I was featured on the Times Square Billboard by Topmate.