Performance Bottlenecks Necks in Data Heavy Python Applications

  • Authors

    • Madhurima Kommuru Senior System Analyst at UST Global Inc., USA. Author
    • Appala Nooka Kumar Doodala QA Analyst, Infosys, USA. Author

    DOI:

    https://doi.org/10.67228/30713498/IJADSMC-2023PII2Q7P

    Published 09-08-2023

  • Python Performance, Data-Intensive Applications, Bottlenecks, Optimization, Memory Management, Parallel Computing, Profiling Tools

    Issue

    Section

    Articles

    How to Cite

    [1]
    M. Kommuru and A. N. K. Doodala, “Performance Bottlenecks Necks in Data Heavy Python Applications”, IJADSMC, vol. 6, no. 2, pp. 01–19, Sep. 2023, doi: 10.67228/30713498/IJADSMC-2023PII2Q7P.
  • Abstract

    Performance improvements in data-intensive Python applications have become more critical due to the increasing computational needs of modern analytics, machine learning, and large-scale data processing systems. Although the Python environment is enormous as well as flexible in development, frequent delay in execution, memory inefficiency and scalability problems are often encountered in many applications because of CPU demanding processes, over allocation of memory and I/O bottlenecks. In this research, we provide a systematic experimental technique to identify, classify, and resolve performance bottlenecks in large-scale Python applications. The approach we provide here unifies the profiling, benchmark based analysis, bottleneck detection, focused optimization, and quantitative validation into a single procedure. The proposed approach was tested on a transactional dataset of around 10 million records. We used performance profiling tools like cProfile, line_profiler and memory_profiler to identify computational bottlenecks, memory allocation inefficiencies and disk I/O latencies. Profiling findings were used to apply these optimization methods such as vectorization using NumPy and Pandas, multiprocessing, memory-efficient information management, and asynchronous I/O techniques. Experimental evaluation showed significant performance improvements, in particular decrease in execution time from 120 seconds to 50 seconds, reduction in peak memory use by roughly 38%, and significant gains in throughput and scalability under high workloads. The findings demonstrate that effective performance enhancement needs a systematic strategy that correlates bottleneck discovery, optimization selection along with validation rather than different tuning approaches. The proposed technique provides practical recommendations to improve computational performance, scalability, and resource consumption of data-intensive Python systems in production environments.

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