Atharv Gyan

Quick hook. What if algorithms could propose a new drug candidate, predict a protein’s 3-D shape, and run thousands of experiments in an automated lab all in the time it would take a human team to run a few? That is not sci-fi. Generative AI is already part of real scientific workflows in 2025, and this guide explains how , why , what works , what doesn’t , and how you can learn and experiment with these tools. 1. Plain-language definition: what is “generative AI for science”? Generative AI are machine-learning models that create   they generate text, images, molecular graphs, 3-D structures, or even experimental plans instead of only classifying or labeling. In scientific discovery these models are used to: propose new hypotheses, molecules or materials; predict structures and behavior (e.g., protein folding); design experiments and optimize conditions; run closed loops with robots that execute experiments and feed back results. These systems don’t replace scie...

1. What are data centers and what does “hyperscale” mean? Data center: a facility housing compute servers, storage arrays, networking equipment, power distribution, cooling systems, and physical security all to run, store, and transmit digital workloads. They range from small server rooms to massive campuses. Hyperscale: describes a class of very large, standardized, automated data centers operated by major cloud providers or large enterprises. Hyperscale design emphasizes: Massive capacity (thousands to millions of servers across many sites), Standardized racks and modules for predictable deployment, Heavy automation for provisioning, monitoring, and failure handling, Economies of scale that reduce per-unit costs and enable rapid growth. Hyperscale facilities run the backbone of modern cloud services, streaming platforms, search, social media, and large AI model training. 2. Why sustainability is essential for data centers Scale of impact: As cloud use, streaming,...

Decentralized Stablecoins: The Future of Stable Value in DeFi | Atharv Gyan 1. Introduction to Stablecoins Stablecoins are a class of cryptocurrency designed to maintain a stable value by pegs to external assets most commonly fiat currencies like the U.S. dollar, but also commodities or other cryptocurrencies. They emerged to solve the extreme volatility that plagues Bitcoin and many altcoins, enabling crypto‑native applications (especially in DeFi) to transact, lend, borrow, and hedge with minimal price risk.  Traditional stablecoins fall into four categories: Fiat‑Collateralized (e.g., USDC, Tether USDT) Commodity‑Backed (e.g., PAXG backed by gold) Crypto‑Collateralized (e.g., MakerDAO’s DAI on Ethereum) Algorithmic (e.g., Terra USD, Ampleforth’s AMPL) Decentralized stablecoins are those that avoid reliance on a central issuer meaning no single ...