Rust is well-suited for low-level system programming due to its combination of high-level abstractions and fine-grained control over memory and hardware. Here's a humanized explanation of how Rust handles low-level system programming:

1. Control over Memory: Rust provides precise control over memory management. It has a strong ownership system, borrowing, and lifetimes that ensure memory safety. This means you can work with pointers and memory allocations while avoiding common issues like null pointer dereferences and memory leaks.
2. Unsafe Code: Rust allows the use of "unsafe" code blocks when necessary for low-level operations. These blocks are used to bypass some of the language's safety checks, such as dereferencing raw pointers, casting, or performing other operations that could be unsafe in uncontrolled contexts. This is crucial for low-level system programming.
3. Interop with C: Rust can easily interface with C libraries. It provides tools like the Foreign Function Interface (FFI) that allow Rust code to call functions from C libraries and vice versa. This is important when working with existing low-level system code.
4. Platform Independence: Rust is designed to be platform-independent, which means code written in Rust can be compiled and run on different architectures and operating systems with minimal modification.
5. No Garbage Collection: Rust does not have a garbage collector, making it suitable for real-time and resource-constrained systems where predictable memory usage is essential.
6. Built-in Concurrency: Rust offers built-in support for concurrent programming. You can create safe, concurrent programs without data races, which is vital for systems where multiple threads or processes are common.
7. Cross-Compilation: Rust supports cross-compilation, making it easy to develop code on one platform and deploy it to another, a critical capability for embedded and cross-platform systems.
8. Extensive Standard Library: Rust's standard library provides a rich set of features for working with I/O, filesystems, networking, and more, making low-level system tasks more accessible.
9. Safety Guarantees: While Rust allows low-level operations through "unsafe" blocks, it still enforces memory safety rules. This means you can write low-level code that is robust against common security vulnerabilities like buffer overflows and race conditions.
10. Zero-Cost Abstractions: Rust aims to provide zero-cost abstractions, meaning that high-level code can be just as efficient as low-level code. This ensures that you can write clean, maintainable code without sacrificing performance.

In summary, Rust's combination of memory safety, fine control over hardware, and support for low-level operations through "unsafe" code blocks make it an excellent choice for low-level system programming. It provides a balance between high-level abstractions and low-level control, making it a reliable and safe language for developing systems software, operating systems, device drivers, and other low-level components.