ADMM | Examples/code for the alternating direction method | Machine Learning library

 by   nirum Python Version: Current License: No License

kandi X-RAY | ADMM Summary

kandi X-RAY | ADMM Summary

ADMM is a Python library typically used in Artificial Intelligence, Machine Learning, Deep Learning applications. ADMM has no bugs, it has no vulnerabilities and it has low support. However ADMM build file is not available. You can download it from GitHub.

Examples/code for the alternating direction method of multipliers (ADMM)
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            kandi-support Support

              ADMM has a low active ecosystem.
              It has 62 star(s) with 24 fork(s). There are 4 watchers for this library.
              OutlinedDot
              It had no major release in the last 6 months.
              ADMM has no issues reported. There are no pull requests.
              It has a neutral sentiment in the developer community.
              The latest version of ADMM is current.

            kandi-Quality Quality

              ADMM has 0 bugs and 0 code smells.

            kandi-Security Security

              ADMM has no vulnerabilities reported, and its dependent libraries have no vulnerabilities reported.
              ADMM code analysis shows 0 unresolved vulnerabilities.
              There are 0 security hotspots that need review.

            kandi-License License

              ADMM does not have a standard license declared.
              Check the repository for any license declaration and review the terms closely.
              OutlinedDot
              Without a license, all rights are reserved, and you cannot use the library in your applications.

            kandi-Reuse Reuse

              ADMM releases are not available. You will need to build from source code and install.
              ADMM has no build file. You will be need to create the build yourself to build the component from source.
              ADMM saves you 35 person hours of effort in developing the same functionality from scratch.
              It has 94 lines of code, 6 functions and 2 files.
              It has medium code complexity. Code complexity directly impacts maintainability of the code.

            Top functions reviewed by kandi - BETA

            kandi has reviewed ADMM and discovered the below as its top functions. This is intended to give you an instant insight into ADMM implemented functionality, and help decide if they suit your requirements.
            • Generate lowrank approximation for low rank approximation
            • Add a proximal operator to the list
            • Perform ADMM decomposition
            • Lasso algorithm
            Get all kandi verified functions for this library.

            ADMM Key Features

            No Key Features are available at this moment for ADMM.

            ADMM Examples and Code Snippets

            No Code Snippets are available at this moment for ADMM.

            Community Discussions

            QUESTION

            Difference between algorithm solution and MATLAB CVX solution in Graphical LASSO?
            Asked 2021-Apr-09 at 21:34

            Graphical Least Absolute Shrinkage and Selection Operator, has been introduced by Jerome Friedman, Trevor Hastie and Robert Tibshirani ("Sparse inverse covariance estimation with the graphical lasso",2014). They suggest the block coordinate-descent algorithm for the problem solution (see. "The Graphical Lasso: New Insights and Alternatives" by Rahul Mazumder and Trevor Hastie). I wrote this easy MATLAB code using CVX, given X (regressor's matrix of size m,n):

            ...

            ANSWER

            Answered 2021-Apr-09 at 21:34

            Provided

            1. There is a unique solution (which should be true if your objective is regularized, which it appears to be by the last term.)
            2. There are no bugs in either implementation.

            Both implementations should return the exact same solution as the problem is a convex semidefinite program. The difference you should observe is

            1. Runtime, one will likely run longer than the other, I would bet your implementation uses a general-purpose solver package (CVX) so should be slower.
            2. Memory usage, once again, I would expect the general purpose (unutuned) package should consume more memory.
            3. Numerical stability, in general this some implementations will be much more numerically stable. That is, if you use a weak regularization (very small lambda) you may find that some implementations fail to converge while others still work.

            For small and toy problems this should not be a big deal (which is usually the case if you are an academic.) If you are a person trying to do something useful in the real world, runtime & memory usage tend to be extremely important, as they control what size problems you can tackle with your approach.

            The only way to know the relative limitations to each approach is to implement and try both! At the very least, I would implement and run both approaches as a sanity check that both implementations are likely correct (the chance of both implementations being incorrect and reporting the same results across a range on inputs is very low.)

            Source https://stackoverflow.com/questions/67023543

            QUESTION

            Slow Dask performance compared to native sklearn
            Asked 2018-Nov-18 at 17:35

            I'm new to using Dask but have experienced painfully slow performance when attempting to re-write native sklearn functions in Dask. I've simplified the use-case as much as possible in hope of getting some help.

            Using standard sklearn/numpy/pandas etc I have the following:

            ...

            ANSWER

            Answered 2018-Nov-18 at 17:35

            A quote from the documentation you may want to consider:

            For large arguments that are used by multiple tasks, it may be more efficient to pre-scatter the data to every worker, rather than serializing it once for every task. This can be done using the scatter keyword argument, which takes an iterable of objects to send to each worker.

            But in general, Dask has a lot of diagnostics available to you, especially the scheduler's dashboard, to help figure out what your workers are doing and how time is being spent - you would do well to investigate it. Other system-wide factors are also very important, as with any computation: how close are you coming to your memory capacity, for instance?

            In general, though, Dask is not magic, and when data fits comfortable into memory anyway, there will certainly be cases where dask add significant overhead. Read the documentation carefully on the intended use for the method you are considering - is it supposed to speed things up, or merely allow you to process more data than would normally fit on your system?

            Source https://stackoverflow.com/questions/53320649

            Community Discussions, Code Snippets contain sources that include Stack Exchange Network

            Vulnerabilities

            No vulnerabilities reported

            Install ADMM

            You can download it from GitHub.
            You can use ADMM like any standard Python library. You will need to make sure that you have a development environment consisting of a Python distribution including header files, a compiler, pip, and git installed. Make sure that your pip, setuptools, and wheel are up to date. When using pip it is generally recommended to install packages in a virtual environment to avoid changes to the system.

            Support

            For any new features, suggestions and bugs create an issue on GitHub. If you have any questions check and ask questions on community page Stack Overflow .
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