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Multi-core fuzzing for C/C++ security testing is executed by compiling target harnesses with LLVM/Clang support and launching AFL++ campaigns to mutate inputs across multiple CPUs, maximizing input coverage and uncovering memory corruption defects.

Fuzzing harness compilation is the process of building a target interface using a compiler like LLVM/Clang, required before running security testing to expose C/C++ project functions so that fuzzers can mutate inputs and detect logic bugs.

Yes, LLVM and Clang are required to compile fuzzing harnesses for AFL++, providing the necessary build environment and instrumentation to mutate inputs and uncover memory corruption issues in large-scale fuzzing scenarios.

Yes, multi-core fuzzing can uncover memory corruption bugs in large-scale C/C++ projects by leveraging advanced mutation strategies and scalable throughput across available CPUs to process diverse inputs efficiently.

The best way to achieve scalable throughput during a fuzz campaign is utilizing multi-core fuzzing with AFL++, which distributes diverse mutation strategies across CPUs to maximize input coverage and accelerate defect discovery.

Fuzzing a production C/C++ harness requires multi-core environments to handle the computational intensity of diverse mutation strategies, ensuring stable tooling and scalable throughput necessary to uncover robustness issues in large-scale fuzzing scenarios.