The article walks through a C programmer's journey from hard‑coded if‑else shape handling to embedding function pointers in structs, introducing shared function tables, automatic initialization, memory savings, inheritance via table overrides, and finally showing how C++ virtual functions automate the same mechanism.
This article explains C++ polymorphism, covering virtual functions, the override and final keywords, pure virtual functions, virtual destructors, vtable implementation, performance considerations, modern C++ improvements, and practical examples with code snippets.
This article presents a comprehensive C++ interview guide covering dynamic polymorphism, vtable mechanics, static vs virtual functions, memory alignment benefits, iterator invalidation in vector and map, erase‑remove idiom, map implementation details, and common synchronization primitives used in multithreaded programming.
This article explains the fundamentals of multi‑dimensional (pivot) tables, describes core BI concepts such as dimensions, hierarchies, members and indicators, and shows how VTable maps these concepts to configuration options, data analysis features, custom dimension trees, and real‑world use cases.
This guide introduces VTable, an open‑source high‑performance table component built on VRender, covering installation via npm or CDN, basic usage, table types, cell rendering options, interaction features, theming, and performance characteristics for modern web applications.
This article explains how C++ implements runtime polymorphism through virtual function tables, analyzes the memory layout of single‑ and multiple‑inheritance classes using gcc and gdb, and clarifies the role of thunks and offset adjustments for correct virtual calls.
This article explains a novel Swift hooking technique that modifies the virtual function table (VTable) to replace method implementations, detailing Swift's runtime structures such as TypeContext, Metadata, OverrideTable, and providing concrete ARM64 assembly and Swift code examples.
This article examines Swift's binary representation in Mach-O files, compares it with Objective‑C storage, demonstrates runtime dynamic method calls, and analyzes class metadata, VTable construction, and related flags to reveal how Swift functions are located and invoked at runtime.
This article explains how C++ compilers implement virtual functions using a hidden vptr and virtual table, showing how class size grows from 1 to 8 bytes, detailing memory layouts for single, multiple, and diamond inheritance, and providing commands to dump vtable and layout information.
