search-engine-parser is a Python library and CLI tool designed to scrape search engines for structured results. It provides a base class for search engine implementations with specific parsers for engines like Google, Bing, Yahoo, DuckDuckGo, and others. The tool supports both synchronous and asynchronous HTTP requests, includes caching to avoid repeated requests, and uses user-agent rotation to prevent blocking. Key features include a command-line interface (pysearch) for terminal use and a programmatic API for integration into other projects, returning results as SearchItem objects with convenient access to titles, links, and descriptions.
TheAlgorithms/Java is a comprehensive, community-maintained collection of over 600 algorithm and data structure implementations in Java, organized into topic-specific packages (e.g., maths, sorts, searches, dynamic programming, graph, ciphers, compression, machine learning, streaming). It is designed as an educational reference library, not a production application. The architecture follows a modular utility-class pattern: most algorithms are implemented as final classes with private constructors and static methods, and many implement shared interfaces such as SortAlgorithm and SearchAlgorithm for polymorphic usage. The codebase includes extensive JUnit 5 test coverage with parameterized tests, and many classes reference Wikipedia or academic sources. While the overall quality is high with many reusable components, there are some inconsistencies such as duplicate implementations, leftover main methods, and occasional use of raw types or legacy APIs. The repository is actively maintained with CI workflows, dependabot, and a structured contribution process.
This repository is a massive, community-driven collection of algorithm and data structure implementations in Python, explicitly designed for education and reference. It contains over 1,700 files organized into topical directories such as maths, sorts, graphs, strings, ciphers, dynamic programming, machine learning, and Project Euler solutions. Each module is self-contained, typically with extensive docstrings, type hints, and doctests, making it easy to study or extract individual algorithms. The code is written for clarity and learning, not production performance, and many implementations include references to Wikipedia or academic sources. Despite its educational focus, the repository exhibits some technical drift. A handful of files still use Python 2 syntax (e.g., `except ValueError, EOFError:`), which will cause SyntaxError in modern Python. Several web-scraping scripts depend on the non-standard `httpx2` library and external APIs that may break. The project targets Python 3.15 (including free-threading), which is bleeding-edge and may cause compatibility issues with some tools. However, the majority of the codebase uses modern Python features (type hints, dataclasses, PEP 695 generics) and is actively maintained with CI workflows, pre-commit hooks, and regular contributions. This is not a production application or a data research pipeline; it is a reference library for learning and teaching algorithms. The sheer breadth and consistency of the implementations make it a valuable resource for students, educators, and developers looking for clear examples of classic algorithms. The most reusable components are the standalone data structures (e.g., kd-tree, suffix tree, Fenwick tree) and algorithm implementations (e.g., Dinic max flow, Huffman coding, federated averaging) that can be extracted with minimal modification.