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Article by Ayman Alheraki on January 11 2026 10:37 AM

#3 Modern C++ and Rust Programming – A Comparative Educational Guide from Concepts to Applications

#3 Modern C++ and Rust Programming – A Comparative Educational Guide from Concepts to Applications

 

Where High‑Level Languages Fail in Systems Development

Limited Hardware Control and Low-Level Access

High-level languages like Python and Java abstract away direct hardware interaction. They cannot directly manage memory addresses or CPU registers, which are essential for systems programming. Operating systems, device drivers, and other kernel-level components require precise control that these languages don’t provide ([GeeksforGeeks, 2025])

GeeksforGeeks.

For example, Python lacks native access to system-level interfaces, garbage collection introduces inefficiencies, and its interpreter layer prevents direct memory addressing— making it unsuitable for OS kernels or drivers ([GeeksforGeeks, 2025])

GeeksforGeeks learnxyz.in.

Performance Overhead from Abstraction and Interpretation

High-level languages introduce significant performance penalties due to interpretation, runtime environments, and garbage collection. This overhead leads to slower execution speed and larger memory footprints relative to compiled low-level or mid-level

languages ([Quanswer, 2023]) quanswer.com.

Specifically, the “abstraction penalty” refers to extra runtime cost from bounds checks, virtual dispatch, runtime type checks, and automatic memory safety features that reduce performance ([Wikipedia, 2025])

en.wikipedia.org.

Memory Management and Unpredictable Latency

Automatic memory management in high-level languages simplifies development but imposes unpredictable latency, making them unsuitable for real-time or latency-critical systems. Garbage collection pauses may lead to unacceptable lag in embedded systems or kernel modules ([Turn0search3, 2025])

dev.asburyseminary.edu.

Furthermore, high-level automated management restricts programmer control over allocation and deallocation timing, which is vital in low-level systems development.

Inadequate Debugging and Traceability of Low-Level Behavior

High abstraction layers in high-level languages make it difficult to trace how high-level constructs map to machine instructions. Debugging system-level issues—such as buffer overflows or race conditions—becomes opaque and unreliable, because the runtime environment handles many low-level behaviors invisibly ([Techwalla, 2025]) techwalla.com

digitalthinkerhelp.com.

Dependency Complexity and Ecosystem Limitations

High-level languages often rely heavily on external libraries and runtimes, which can introduce compatibility issues, increase attack surface, and hinder deployment in minimal environments like firmware or bootloaders ([DigitalThinkerHelp, 2025]) digitalthinkerhelp.com.

Embedding Python or Java into a kernel space would require packaging their entire runtime environment, which is typically impractical for systems programming ([GeeksforGeeks, 2025])

GeeksforGeeks.

Non‑Deterministic Behavior and Timing Constraints

Systems components such as device drivers require consistent and deterministic timing because hardware devices expect precise responses. High-level languages with garbage collection, just-in-time compiling, or interpreter overhead cannot guarantee consistent timing behavior, making them unsuitable for such tasks ([Reddit discussion, 2021]) reddit.com.

Summary Table: Why High‑Level Languages Often Fail in Systems Contexts

LimitationImplication in Systems Development
Limited hardware controlCannot manage memory pointers or registers directly
Performance overheadSlower execution, larger binaries, less efficient resource usage
Unpredictable memory managementGarbage collection causes latency; poor for real-time systems
Low-level debugging difficultyHard to map runtime errors to machine-level failures
Dependency and runtime bulkinessNot suitable for embedded or minimal environments
Non-deterministic performanceUnreliable timing in driver and kernel-level operations

References and Sources

  • GeeksforGeeks (Last updated July 2025): Why Python cannot be used for making an OS — Details on low-level access limitations, runtime overhead, and bootstrapping issues in high-level environments

GeeksforGeeks quanswer.com en.itpedia.nl en.wikipedia.org reddit.com.

  • LearnXYZ article (2025): Outlines limitations in performance, memory management, and hardware control when using Python for systems programming learnxyz.in.

  • Quanswer community Q&A (2023): Lists execution speed, memory usage, hardware access restrictions, and higher-level abstraction downsides

quanswer.com.

  • Wikipedia (2025): High-level programming language — Explains abstraction penalties and performance costs

en.wikipedia.org.

  • Techwalla article (2025): Highlights why high-level languages struggle with system-level tasks, including limited access to system resources techwalla.com.

  • Reddit discussion (r/learnprogramming, April 2021): Explains timing and determinism constraints that prevent languages like Java/Python from effective use in device drivers and kernels

reddit.com.

 

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