Only complete files and comments are allowed! I forbid any s...

Prompt

Only complete files and comments are allowed! I forbid any simplified, mock, placeholder, dummy, simulated, incomplete, or unoptimized production-ready code. It must not be truncated, and there must be no instances of … or similar. 50 xy must not be a dummy, “to do,” or “sorry” placeholder. You must provide the complete code for every file; do not write anything else besides that. Write a complete, from-scratch implementation of an Advanced Multi-Paradigm Compiler Suite. You must output the fully functional source code for every file described below. Do not include any placeholder, mock, or dummy implementations. Ensure every function and method is fully implemented without abbreviation. Do not use TODOs or unimplemented methods. Omit all source code comments and configuration comments. Do not output any tests or documentation. Do not implement or include any of the following: authentication, authorization, access control, security policies, auditing, monitoring, rate limits, usage limits, product limits, quotas, billing, or payments. Identify every specified file and output its complete contents directly. Implement the system natively. The system consists of the following discrete compiler subsystems, which must be fully implemented in the provided files: 1. Eager Reduction Compiler Subsystem File: src/eager_systems/compiler.cpp File: src/eager_systems/knowledge_graph.cpp File: src/eager_systems/types_memory.cpp File: src/eager_systems/capabilities.cpp * compiler.cpp must implement an eager compile-time reduction engine based on the philosophy that only the remaining required runtime code matters. It must reduce every computation mathematically provable at build time. It must lower only the irreducible residual program, which is strictly dependent on runtime inputs, to native code via a standard open-source intermediate backend. It must be self-hosted, capable of compiling itself in approximately one second, and must generate static binaries with absolutely no dependency on legacy standard procedural runtimes. It must implement optimizations yielding 0.85x legacy procedural wall time and 0.85x memory usage on straightforward standardized benchmark algorithms, and 0.75x geometric mean against hand-tuned code. It must optimize straight-line code, allocation-heavy workloads via region proofs, and scalable spawning. * knowledge_graph.cpp must implement a graph structure recording all compile-time reductions to expose debugging data answering strictly why specific paths execute at runtime. * types_memory.cpp must implement immutable values, explicitly disallowing variables, assignment, shadowing, and nulls. It must implement exact-width numbers: Int(8) through Int(512), Float(16) through Float(128), and Dec(N), enforcing strictly checked arithmetic that prevents silent wrap and truncation. It must implement "behaviors" acting as named knowledge for ordering and showing, completely replacing interfaces and traits. It must implement collections that update in-place exclusively when the compiler proves they are unshared. It must implement extremely cheap region-based concurrency via a spawn directive. * capabilities.cpp must implement explicit capabilities and authority checking using a @requires directive. It must enforce transitive checking for filesystem, network, and process access, generating sandboxed libraries completely devoid of ambient authority. 2. Lightweight Multi-Paradigm Compiler Subsystem File: src/lightweight_self_hosted/compiler.cpp * Must implement a lightweight, self-hosted systems language blending functional and object-oriented paradigms. It must target standard 32-bit/64-bit desktop architectures, web bytecode formats, and enterprise virtual machines. It must execute extremely fast compilations and generate tiny binaries in the hundreds of bytes. It must implement low overhead, whole-program optimizations for embedded and low-level systems with direct kernel interaction. It must implement unboxing and packing annotations for Algebraic Data Types to completely eliminate heap overhead. 3. Pragmatic OS Compiler Subsystem File: src/pragmatic_os/compiler.cpp * Must implement a simple, pragmatic systems language providing strong static typing, type inference, algebraic data types, pattern matching, generics, and packages. It must provide low-level pointer control with minimal to no heavy runtime, focusing on OS and embedded environments to guarantee metal-level predictability while removing common legacy procedural memory hazards. It must be a fully self-contained toolchain. 4. Safe Untrusted Format Data Handler Subsystem File: src/safe_format_handler/generator.cpp * Must implement a specialized language and library generator for parsers, decoders, and encoders dealing with untrusted formats like images and compression. It must enforce memory safety strictly at compile time, completely eliminating all runtime bounds checks, overflow checks, and null checks in the execution hot paths. It must optimize generated code to outperform hand-written legacy procedural code: 1.3-1.8x for block-sorting compression, 1.4x for deflation algorithms, 2-6x for indexed graphic formats, and 1.2-2.7x for portable network graphic formats. It must transpile its final output to a single-file legacy procedural library. 5. Flexible Memory Systems Subsystem File: src/flexible_memory/compiler.cpp * Must implement a systems language emphasizing highly flexible memory management, allowing per-object selection of single-owner, refcounting, garbage collection, arenas, pools, or lifetimes. It must implement permissions for data-race safety. It must support versatile types including variants, slices, and traits, mapped to a lean native runtime built on a standard intermediate backend with integrated concurrency. 6. Ergonomic Real-Time Systems Subsystem File: src/ergonomic_realtime/compiler.cpp * Must implement an ergonomic systems language with syntax inspired by enterprise object-oriented languages. It must implement manual memory management with custom allocators and a real-time leak detection system that can be disabled. It must disallow garbage collection. It must implement flawless interoperability with legacy procedural and object-oriented systems languages, incremental compilation, hot reloading, and an integrated custom development logic engine designed for fluid real-time interactive development. 7. Multiparadigm Metaprogramming Subsystem File: src/metaprog_multiparadigm/compiler.cpp * Must implement a language inspired by high-performance compile-time procedural systems. It must implement extreme compilation speed, strong metaprogramming, and Compile-Time Function Execution. It must provide templates, modules, and legacy procedural interoperability with no garbage collection and minimal runtime. It must integrate an AOT compiler, a JIT compiler, and a linker into a single executable with zero heavy dependencies. 8. Stable Minimalist Systems Subsystem File: src/stable_minimalist/compiler.cpp * Must implement a boring-by-design, stable systems replacement language. It must implement tagged unions for errors, defer statements, advanced string handling, and namespaces. It must implement a minimal runtime utilizing a lightweight intermediate backend. It must prioritize understandability, long-term stability, and small toolchain size, implementing inline assembly integration to mitigate performance bounds. 9. HPC and Specialized Optimizations Subsystem File: src/hpc_and_specialized/engine.cpp * Must implement extreme compile speed and metaprogramming modules for interactive real-time applications based on closed-beta architectures. * Must implement data-parallel array computation targeting combined CPU and GPU execution natively. * Must implement Single Program Multiple Data (SPMD) and SIMD-focused optimizations for high-performance numeric workloads. * Must implement a scripting-based metaprogramming layer over a standard intermediate backend for domain-specific language generation. * Must implement user-schedulable execution for High Performance Computing kernels requiring significantly less code than expert libraries. * Must implement single-assignment array optimization routines. * Must implement a whole-program optimizing functional module targeting numeric workloads to outperform legacy procedural counterparts. * Must implement an assembly-bootstrapped minimal compiler core executing direct system calls with tiny dependencies. * Must implement dedicated syntax parsing and compatibility evaluation layers for syntax-flexible procedural, flow-directed typing, metaprogramming data-oriented, safe concurrent OO, low-level procedural, Lisp-macro procedural, high-assurance systems, safe legacy procedural, basic combined programming, modular structured, and active object structured paradigms.