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| Author | SHA1 | Message | Date | |
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 Christoph
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1ae576bd07 |
Based on the structure and content of the data you provided, this is a listing of **platform-specific binary wheels (.whl files)** for the Python package charset_normalizer version 3.4.9.
In simple terms, it's an index showing every possible combination of operating system (OS) and CPU architecture that can run this specific piece of software. Here is a detailed breakdown of what this data means and why there are so many different files: *** ### 💡 Core Concept: Why So Many Files? When a Python package contains compiled code (meaning it has parts written in C, C++, or other low-level languages that need to interact directly with the operating system kernel), it cannot be universal. The way that compiled code interacts with the OS and CPU is unique for every platform. * **Example:** Code compiled for an Intel/AMD 64-bit processor (`x86_64`) will not run on a Raspberry Pi running ARM architecture (`armv7l`), even if they are both running Python. * **The Solution:** Package managers (like `pip`) must download the exact wheel file that matches your specific combination of OS and CPU to ensure the package installs correctly and runs without errors. ### 📂 Breakdown by Category The entries can be grouped into three main categories: #### 1. Operating System / Environment These prefixes tell you what kind of operating system or environment the compiled code is designed for: * **`manylinux...`**: These wheels are built to run on a wide variety of Linux distributions (like Ubuntu, Fedora, etc.). They represent standard compatibility targets. * `manylinux_2_17_x86_64`: Standard 64-bit Intel/AMD Linux build. * `manylinux_2_39_riscv64`: Build for RISC-V architecture on Linux. * **`musllinux...`**: These wheels are built specifically for environments that use the **Musl C library**, which is a lightweight alternative to the standard GNU C Library (glibc). This is common in containerized or minimal embedded Linux systems. * **`win32` / `win_amd64`**: Wheels designed for Microsoft Windows operating system (32-bit and 64-bit, respectively). #### 2. Architecture (The CPU Type) This part of the filename specifies the type of processor the code is compiled to run on: * **`x86_64`**: The standard architecture for modern desktop computers (Intel/AMD 64-bit). * **`aarch64`**: The 64-bit architecture commonly used by Apple Silicon Macs and many modern ARM servers. * **`armv7l`**: The 32-bit ARM architecture (common in older or smaller embedded devices). * **`s390x`**: Architecture specific to IBM mainframes/servers. * **`riscv64`**: Build for the RISC-V instruction set, a growing open-source CPU standard. #### 3. Metadata (The Technical Details) The rest of the data provides technical information used by package managers: * **`charset_normalizer-3.4.9`**: The name and version of the package. * **`hash = "sha256:..."`**: A cryptographic hash that verifies the file hasn't been corrupted or tampered with during download. * **`size = ...`**: The size of the wheel file in bytes. * **`upload-time = "..."`**: When this specific package version was uploaded to PyPI (the Python Package Index). *** ### 🎯 Summary for a Developer If you were running your code on an **Apple Silicon Mac**, `pip` would ignore all the other entries and select the wheel matching: * **OS:** Linux/macOS compatible (`manylinux` or similar) * **Architecture:** `aarch64` (or sometimes a specific macOS wheel if available). If you were running your code on an **old Windows XP machine**, it would select the `win32` wheel. |