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LEARN. EXPERIMENT. BUILD.
Yashotantra
Academy.
The foundations behind
extraordinary engineering.
Explore AI, cloud, data, and Web3. Connect the theory to hands-on coding, working simulations, and your next project.
New to programming? Start hereA clear learning path
Foundations to advanced systems
Your browser. Your workshop.
Write, compile, and test Solidity
Learn alongside the lecture
Curated videos, credited creators
Career-aligned tracks
Built around real engineering roles and production workflows.
Assessment-driven learning
Theory, labs, and progress checkpoints guide each step.
Hands-on execution
Learn in-browser without local setup or blocking toolchain friction.
Trust & rigor
Structured foundations, security-first thinking, and practical outcomes.
Mapped to real-world engineering roles
Pick a Mission
Small engineering challenges designed to turn concepts into working systems.
Build a Mini RAG
Create a small retrieval pipeline using embeddings, vector search, and an LLM.
Build an ERC-20
Write, test, and understand the lifecycle of a basic Ethereum token contract.
Deploy a Docker Service
Containerize an application and understand the fundamentals of deployment.
Build a Data Pipeline
Move structured events through a streaming pipeline and inspect the results.
Explore the Code Lab and start building real projects.
1,000+ Theory Checkpoints
From memory layouts to BGP routing and zero-copy deserialization, test your knowledge with interactive MCQs.
Zero-Setup Browser Runtimes
Compile Solidity with in-browser solc, run Python via Pyodide, and test TypeScript without configuring toolchains.
Multi-Framework Depth
Compare Anchor, Pinocchio, and Steel on Solana; explore Sui Move vs Aptos Move; master C++20 alongside Rust and C#.
Telecom & Global Payments
Understand the physical and network foundations: 5G Core, eBPF, QUIC, and real-time payment rails like UPI vs SWIFT.
Code, Compile, and Ship Live
No local dependencies or Docker daemons required for getting started. Write Solidity, test Python scripts, and experiment with code directly in the browser.
// SPDX-License-Identifier: MIT
pragma solidity ^0.8.20;
import "@openzeppelin/contracts/token/ERC20/ERC20.sol";
contract TokenVault is ERC20 {
address public immutable owner;
event Staked(address indexed user, uint256 amount);
constructor() ERC20("YieldVault", "yVAULT") {
owner = msg.sender;
}
function deposit(uint256 amount) external {
_mint(msg.sender, amount);
emit Staked(msg.sender, amount);
}
}Select a Domain
Deep-dive into Web3 smart contracts, systems programming, networking, cloud infrastructure, and distributed data architectures.
Web3 & Multi-Chain Smart Contracts
EVM, Solana, Move 2024, Cairo 2.x & Polkadot 2.0
Core Objective & Paradigm
Design, audit, and deploy production smart contracts across both account-based and object-centric execution environments. Build protocols utilizing transient storage (EIP-1153), Account Abstraction (ERC-4337), and zero-allocation runtime patterns.
Key Competencies & Invariants
Supported Ecosystems & Toolchains
The full language & platform library
46 tracks in total — 46 with complete written theory and MCQs, 46 with a live in-browser lab. Web3 first, everything else right behind it.
AI Engineering
LLM providers, agents and MCP, retrieval-augmented generation, vector search, AI security and observability.
Web3 & Smart Contracts
EVM, Solana multi-framework, Sui/Aptos Move, Starknet Cairo, Polkadot, and Stacks.
Systems & Native Languages
High-performance native development: Rust, C, Modern C++, C#, Java 21, Kotlin, and Swift.
Full-Stack & Application Stack
Languages and frameworks for modern dApp frontends, APIs, mobile apps, and enterprise CMS.
Networking, Telecom & Payments
Core internet protocols, packet engineering, observability, eBPF, firmware, and global payment rails (UPI/SWIFT).
Cloud, DevOps & Distributed Systems
Containers, orchestration, distributed data stores, messaging backbones, and system design.
Operating System Administration
PowerShell, Linux administration, macOS developer utilities, and shell engineering.
The 10-Stage Progression Model
From vocabulary and execution models to audited production architectures.
Fundamentals
Vocabulary, memory models & mental foundations
Programming
Syntax, type systems & execution loops
Tools
IDEs, toolchains, CLIs & SDK workflows
Development
End-to-end applications & services
Architecture
Scalable design patterns & state isolation
Security
Exploit mitigation, auditing & invariants
Deployment
Zero-downtime CI/CD & orchestration
Advanced
Low-level internals, bytecodes & protocols
Research
Papers, specs & emerging standards
Projects
Production-grade portfolio architectures
Blockchain Bootcamp chapters
Complete all 18 Track B chapter quizzes with 75%+ accuracy to complete this track. Every course and language has its own certificate on the Certification page.
Frequently Asked Technical Questions
Understand runtime choices, architectural models, and learning pathways.
Why does the academy teach Pinocchio and Steel alongside Anchor on Solana?
While Anchor is great for rapid application development, high-frequency protocols, AMMs, and DEX orderbooks frequently require ultra-low compute unit (CU) consumption. Pinocchio (#![no_std]) and Steel (Bytemuck zero-copy) provide maximum performance without framework overhead.
What is the difference between Sui Move and Aptos Move?
Sui Move is object-centric (state is encapsulated in distinct globally unique UIDs, enabling lock-free parallel execution without consensus for single-owner objects). Aptos Move follows an account-centric global storage model (move_to, borrow_global_mut) optimized via Block-STM optimistic parallel execution.
How are the courses structured for career transitions?
Each track follows our 10-Stage Pedagogical Model: progressing from vocabulary and memory models to syntax, toolchains, architecture design, security audits, formal verification, and production-grade capstone protocols.
Can I receive verifiable certificates upon completion?
Yes. Passing the theory checkpoints and completing the code lab exercises unlocks a completion certificate for that course or language. On-chain verification is planned for a future release.
Deep-Tech Specializations
Advanced engineering modules for protocol engineers and systems architects.
Zero-Knowledge Proofs (ZKPs)
zk-SNARKs, Halo2, Circom circuits, and verifiable compute proofs for privacy-preserving protocols.
Smart Contract Auditing & Security
Echidna fuzzing, Slither static analysis, flash loan vulnerability mitigations, and formal invariant checks.
High-Frequency Trading & Market Microstructure
Order matching engines, lock-free memory rings, WebSocket feeds, and microsecond arbitrage telemetry.
Kernel Instrumentation & eBPF Networking
XDP high-speed packet processing, kernel tracepoints, and custom Linux driver telemetry.
Start Building Systems Today
Hands-on interactive learning with verifiable certificates. No local configuration required.