Bare-metal high-throughput complex quadratic equation solver implemented with:
- x86_64 Assembly (System V ABI Compliance)
- NVIDIA PTX (Native IEEE-754 Float64 Precision)
- CUDA Driver API (Zero-overhead direct module loading)
The engine performs direct, non-iterative analytic resolution of millions of simultaneous complex quadratic expressions of the form
Input Matrix (.csv)
|
v
x86_64 Assembly Host Layer
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+-- sys_mmap (Direct virtual memory ingestion)
+-- sscanf parser (High-density float data packing)
+-- 16-Byte Stack-Aligned Frame Guarding
└── CUDA Driver API Orchestration
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v
NVIDIA PTX Core Kernel
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+-- Complex discriminant transformation: b^2 - 4ac
+-- Non-iterative half-plane sign stabilization
+-- Floating point conjugate division block
|
v
GPU Device Output VRAM Buffer
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v
Standard Output Layer (PLT printf)
.
├── bin/
│ └── x86_64/
│ └── quad_solver # Final compiled native host engine
├── build/
│ └── x86_64/
│ ├── quadratic_solver.o # Compiled CPU assembly host
│ └── solver_kernel.cubin # Assembled GPU binary slice
├── kernels/
│ └── quadratic_solver_kernel.ptx # Double precision complex solver kernel
├── src/
│ └── x86_64/
│ └── quadratic_solver.s # Pure System V host orchestration source
├── test/
│ └── test.sh # Pure shell validation harness
├── Makefile # Bare-metal build definitions
└── LICENSE # System tracking terms
Input files must map to packed comma-separated ASCII streams containing 6 distinct float parameters per row:
a_real, a_imag, b_real, b_imag, c_real, c_imag
Each parsed calculation frame is automatically balanced onto a 64-byte quadword row window inside your VRAM grid mapping space.
To clean existing temporary object allocations, trigger compiling sequences, build the device binaries, and execute the automated verification test run at once:
./test/test.shRun the application by passing your target calculation parameters file explicitly:
./bin/x86_64/quad_solver data/inputs.csvThis analytical engine is licensed under the Apache 2.0 open source tracking provisions.