
Assembly Language Programming From Low-Level Logic to System Kernel
Assembly language is the ultimate interface between human intent and hardware reality, serving as the foundational bedrock upon which all modern computing abstractions are built.
Courses and lessons for members.

Assembly language is the ultimate interface between human intent and hardware reality, serving as the foundational bedrock upon which all modern computing abstractions are built.

This course systematically explains the working principles, structural design, and selection calculations of engineering machinery, covering power, transmission, actuation, and control systems, providing a theoretical foundation for engineering equipment development.

This course introduces the core concepts and system components of mechatronics, covering the integration of mechanical, electronic, control, and information technologies, establishing a theoretical foundation for automated system design and integration.

Robot perception involves sensor fusion, visual recognition, laser SLAM, and environmental modeling, enabling robots to understand, interact with, and adapt to complex dynamic environments for autonomous navigation and manipulation.

Robot control covers motion planning, trajectory tracking, force control, and adaptive control, involving methods such as PID, fuzzy control, and neural networks to achieve precise, stable, and intelligent robot operations.

Robots can be classified by function, structure, and application areas, including industrial robots, service robots, mobile robots, collaborative robots, etc., involving sensing, control, artificial intelligence, and mechatronics technologies.

Systematically learn industrial network communication protocols like Industrial Ethernet, Fieldbus, TSN, and OPC UA. Master network planning, device interconnection, real-time performance, and network security protection.

Systematically learn the architecture, communication protocols, and security of industrial control systems like PLC, SCADA, and DCS. Master device integration, process control, data acquisition, and industrial network operations.

Systematically learn Solana's high-performance blockchain architecture, Rust smart contract development, Sealevel runtime, and parallel processing. Master the complete development and deployment lifecycle for high-speed DeFi, NFT, and dApp applications.

Systematically learn Ethereum Virtual Machine architecture, smart contract development, Gas optimization, and Layer2 scaling. Master DApp development on Solidity, Vyper, and EVM-compatible chains for DeFi, NFTs, and cross-chain applications.

Systematically learn Bitcoin ecosystem technologies such as Bitcoin Script, Lightning Network, sidechains, Ordinals, and BRC-20. Master application development, Layer-2 scaling, and innovative asset issuance on the Bitcoin network.

Systematically learn the design of on-chain blockchain protocols, including token standards, governance mechanisms, cross-chain interaction, and smart contract security. Master protocol implementation for advanced applications like DeFi and NFTs.

Systematically learn the cryptographic principles, circuit construction, proof systems, and blockchain integration of zero-knowledge proofs. Master advanced applications of ZKPs in privacy protection, scalability, and on-chain verification.

Systematically learn blockchain underlying architecture, consensus mechanisms, smart contracts, and new chain development. Master frameworks like Substrate and Cosmos SDK to build high-performance, scalable custom blockchains.

Systematically learn the VHDL hardware description language, mastering the modeling from basic logic units to complex systems, covering behavioral and RTL-level design, simulation verification, and FPGA synthesis implementation.

Systematically learn the Verilog hardware description language, from combinational and sequential logic to complex digital system design. Master modular design, simulation verification, and FPGA/ASIC implementation flow.