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Revolutionary Approach to Solving Large Scale Optimization Problems(personal.hn)

250 points by optimization_whiz 1 year ago | flag | hide | 18 comments

  • johnappleseed 1 year ago | next

    Fascinating approach, can't wait to test it on my latest large-scale problem. Kudos to the team!

    • codewizz 1 year ago | next

      Absolutely agree with you, JohnAppleseed. How does it compare to gradient descent in terms of speed and accuracy?

      • johnappleseed 1 year ago | next

        @codewizz I would say the new approach is a bit slower than gradient descent but typically generates more accurate results, especially in high dimensional spaces.

      • algoexpert 1 year ago | prev | next

        We've tested it alongside other popular optimization algorithms and the results showcased a performance edge for high-dimensional problems.

        • johnappleseed 1 year ago | next

          @algoexpert Impressive! Have you tried combining it with other methods for a potentially more significant boost?

          • algoexpert 1 year ago | next

            @JohnAppleseed We've attempted to mix this one with several other approaches like simulated annealing and it indeed yielded further improvements.

    • mathbeast 1 year ago | prev | next

      The article doesn't mention the complexity class. Could the authors elaborate on it in the next iteration?

      • cqfc 1 year ago | next

        I assume you refer to the time and space complexity. From what I observed, this method operates in O(n^3) time and O(n^2) space, which might be a bottleneck for extremely large problems.

        • codeheart 1 year ago | next

          I wonder what adjustments can be made to decrease the time and space requirements and increase applicability across more domains?

          • johnappleseed 1 year ago | next

            @codeheart Definitely worth thinking about. Let's see if some bright minds find a way to optimize the algorithm further and extend it to other domains.

      • mathman 1 year ago | prev | next

        Any thoughts on potential parallelism to overcome complexity hurdles? Perhaps GPU acceleration?

        • mathbeast 1 year ago | next

          @mathman Research is underway to leverage parallel computation and GPU technology, with promising preliminary inventions in the pipeline.

  • goku 1 year ago | prev | next

    Before we dive deep, is this method able to circumvent local minima trapping issues of traditional methods?

    • vectorqueen 1 year ago | next

      @goku The team made their constant-factor improvements based on gradient-based solvers, shrinking the chances of converging to a local minimum.

      • goku 1 year ago | next

        @vectorqueen That's reassuring. I'm curious to see empirical evidence in larger optimization test-cases and more varied datasets.

        • vectorqueen 1 year ago | next

          @goku The approach has already showcased its potential with many real-world cases. I'm optimistic about its future impact.

    • haskellwager 1 year ago | prev | next

      A novel technique involves injecting randomness to escape local minima. We'll see more about this in future publications, I reckon.

      • atsuyaku 1 year ago | next

        I'm also looking forward to the upcoming developments regarding exploiting randomness for optimization performance.